2312.11805

Model: nemotron-free

<details> <summary>Image 1 Details</summary> ![f12ede79](/v1/image/f12ede79aa7f83be060def0a45d8041089bbaaa4b54e9ef38e625bfc612f6f1e) ### Visual Description Icon/Small Image (184x28) </details> ## Gemini: A Family of Highly Capable Multimodal Models Gemini Team, Google 1 This report introduces a new family of multimodal models, Gemini, that exhibit remarkable capabilities across image, audio, video, and text understanding. The Gemini family consists of Ultra, Pro, and Nano sizes, suitable for applications ranging from complex reasoning tasks to on-device memory-constrained use-cases. Evaluation on a broad range of benchmarks shows that our most-capable Gemini Ultra model advances the state of the art in 30 of 32 of these benchmarks - notably being the first model to achieve human-expert performance on the well-studied exam benchmark MMLU, and improving the state of the art in every one of the 20 multimodal benchmarks we examined. We believe that the new capabilities of the Gemini family in cross-modal reasoning and language understanding will enable a wide variety of use cases. We discuss our approach toward post-training and deploying Gemini models responsibly to users through services including Gemini, Gemini Advanced, Google AI Studio, and Cloud Vertex AI. ## 1. Introduction We present Gemini, a family of highly capable multimodal models developed at Google. We trained Gemini models jointly across image, audio, video, and text data for the purpose of building a model with both strong generalist capabilities across modalities alongside cutting-edge understanding and reasoning performance in each respective domain. Gemini 1.0, our first version, comes in three sizes: Ultra for highly-complex tasks, Pro for enhanced performance and deployability at scale, and Nano for on-device applications. Each size is specifically tailored to address different computational limitations and application requirements. After large-scale pre-training, we post-train our models to improve overall quality, enhance target capabilities, and ensure alignment and safety criteria are met. Due to the varied requirements of our downstream applications, we have produced two post-trained Gemini model family variants. Chat-focused variants, referred to as Gemini Apps models, are optimized for Gemini and Gemini Advanced, our conversational AI service formerly known as Bard. Developer-focused variants, referred to as Gemini API models, are optimized for a range of products and are accessible through Google AI Studio and Cloud Vertex AI. We evaluate the performance of pre- and post-trained Gemini models on a comprehensive suite of internal and external benchmarks covering a wide range of language, coding, reasoning, and multimodal tasks. The Gemini family advances state-of-the-art in large-scale language modeling (Anil et al., 2023; Brown et al., 2020; Chowdhery et al., 2023; Hoffmann et al., 2022; OpenAI, 2023a; Radford et al., 2019; Rae et al., 2021), image understanding (Alayrac et al., 2022; Chen et al., 2022; Dosovitskiy et al., 2020; OpenAI, 2023b; Reed et al., 2022; Yu et al., 2022a), audio processing (Radford et al., 2023; Zhang et al., 2023), and video understanding (Alayrac et al., 2022; Chen et al., 2023). It also builds on the work on sequence models (Sutskever et al., 2014), a long history of work in deep learning based on neural networks (LeCun et al., 2015), and machine learning distributed systems 1 See Contributions and Acknowledgments section for full author list. Please send correspondence to gemini-1report@google.com (Barham et al., 2022; Bradbury et al., 2018; Dean et al., 2012) that enable large-scale training. Our most capable model, Gemini Ultra, achieves new state-of-the-art results in 30 of 32 benchmarks we report on, including 10 of 12 popular text and reasoning benchmarks, 9 of 9 image understanding benchmarks, 6 of 6 video understanding benchmarks, and 5 of 5 speech recognition and speech translation benchmarks. Gemini Ultra is the first model to achieve human-expert performance on MMLU (Hendrycks et al., 2021a) - a prominent benchmark testing knowledge and reasoning via a suite of exams - with a score above 90%. Beyond text, Gemini Ultra makes notable advances on challenging multimodal reasoning tasks. For example, on the recent MMMU benchmark (Yue et al., 2023), that comprises questions about images on multi-discipline tasks requiring college-level subject knowledge and deliberate reasoning, Gemini Ultra achieves a new state-of-the-art score of 62.4%, outperforming the previous best model by more than 5 percentage points. It provides a uniform performance lift for video question answering and audio understanding benchmarks. Qualitative evaluation showcases impressive crossmodal reasoning capabilities, enabling the model to understand and reason across an input sequence of audio, images, and text natively (see Figure 5 and Table 13). Consider the educational setting depicted in Figure 1 as an example. A teacher has drawn a physics problem of a skier going down a slope, and a student has worked through a solution to it. Using Gemini models' multimodal reasoning capabilities, the model is able to understand the messy handwriting, correctly understand the problem formulation, convert both the problem and solution to mathematical typesetting, identify the specific step of reasoning where the student went wrong in solving the problem, and then give a worked through correct solution to the problem. This opens up exciting educational possibilities, and we believe the new multimodal and reasoning capabilities of Gemini models have dramatic applications across many fields. The reasoning capabilities of large language models show promise toward building generalist agents that can tackle more complex multi-step problems. The AlphaCode team built AlphaCode 2 (Leblond et al, 2023), a new Gemini-model-powered agent, that combines Gemini models' reasoning capabilities with search and tool-use to excel at solving competitive programming problems. AlphaCode 2 ranks within the top 15% of entrants on the Codeforces competitive programming platform, a large improvement over its state-of-the-art predecessor in the top 50% (Li et al., 2022). In tandem, we advance the frontier of efficiency with Gemini Nano, a series of small models targeting on-device deployment. These models excel in on-device tasks, such as summarization, reading comprehension, text completion tasks, and exhibit impressive capabilities in reasoning, STEM, coding, multimodal, and multilingual tasks relative to their sizes. In the following sections, we first provide an overview of the model architecture, training infrastructure, and pre-training dataset. We then present detailed evaluations of the pre- and post-trained Gemini model family, covering well-studied benchmarks across text, code, image, audio and video which include both English performance and multilingual capabilities. Next we discuss our approach to post-training, highlight common and distinct aspects of the Gemini Apps and Gemini API model variants, and benchmark their performance on key capabilities. Responsible deployment is critical: we explain our process for impact assessments, developing model policies, evaluations, and mitigations of harm before deployment decisions. Finally, we discuss the broader implications of Gemini models, their limitations alongside their potential applications - paving the way for a new era of research and innovation in AI. Figure 1 | Verifying a student's solution to a physics problem. The model is able to correctly recognize all of the handwritten content and verify the reasoning. On top of understanding the text in the image, it needs to understand the problem setup and correctly follow instructions to generate L A T E X. <details> <summary>Image 2 Details</summary> ![6beaea7d](/v1/image/6beaea7d122a141ba374db353646779549a3a5901ab36d30fc57de72ee6c2f63) ### Visual Description ## Screenshot: Physics Problem Analysis ### Overview The image contains a physics problem (Question 23) about a skier sliding down a frictionless slope, accompanied by a student's solution and an expert's correction. The problem involves calculating the skier's speed at the bottom of the slope using energy conservation principles. ### Components/Axes - **Diagram Labels**: - Vertical axis labeled "H = 40 m" (height of the slope). - Horizontal axis labeled "L = 80 m" (length of the slope). - Diagram shows a curved path from "Start" to "Finish" with a skier icon. - **Student's Solution**: - Equations written in handwriting: - Start energy: $ E = mgL $ (incorrectly using slope length $ L $ instead of height $ H $). - End energy: $ E = \frac{1}{2}mv^2 $. - Derived velocity: $ v = \sqrt{2gL} = \sqrt{2 \times 9.81 \times 80} = 39.6 \, \text{m/s} $. - **Expert's Response**: - Corrects the student's error: Potential energy should use height $ H $, not $ L $. - Correct equations: - Start energy: $ E = mgh $. - End energy: $ E = \frac{1}{2}mv^2 $. - Derived velocity: $ v = \sqrt{2gh} = \sqrt{2 \times 9.81 \times 40} = 28.01 \, \text{m/s} $. ### Detailed Analysis - **Student's Mistake**: - Used $ L = 80 \, \text{m} $ (slope length) instead of $ H = 40 \, \text{m} $ (vertical height) in the potential energy formula. - Incorrectly equated $ mgL = \frac{1}{2}mv^2 $, leading to an overestimated speed. - **Expert's Correction**: - Emphasized that potential energy depends on vertical height ($ mgh $), not slope length. - Applied energy conservation correctly: $ mgh = \frac{1}{2}mv^2 $. - Solved for $ v $ using $ v = \sqrt{2gh} $, substituting $ g = 9.81 \, \text{m/s}^2 $ and $ h = 40 \, \text{m} $. ### Key Observations 1. **Energy Conservation Principle**: - Total mechanical energy (potential + kinetic) is conserved in a frictionless system. - At the start, all energy is potential ($ mgh $); at the bottom, all energy is kinetic ($ \frac{1}{2}mv^2 $). 2. **Common Error**: - Confusing slope length ($ L $) with vertical height ($ H $) in energy calculations. 3. **Numerical Values**: - Student's incorrect speed: $ 39.6 \, \text{m/s} $. - Correct speed: $ 28.01 \, \text{m/s} $. ### Interpretation The problem tests the application of energy conservation in a gravitational field. The student's error highlights a critical misunderstanding: potential energy depends on vertical displacement ($ H $), not the path length ($ L $). The expert's response clarifies this distinction, demonstrating that the skier's speed is determined solely by the vertical drop. The correct speed ($ 28.01 \, \text{m/s} $) is significantly lower than the student's result, underscoring the importance of using the correct height in energy equations. ### Spatial Grounding - **Diagram**: - Height ($ H = 40 \, \text{m} $) is marked vertically on the left side of the slope. - Length ($ L = 80 \, \text{m} $) is marked horizontally at the base of the slope. - **Text Placement**: - Student's solution is written below the diagram, with equations aligned to the left. - Expert's response is in a separate blue box on the right, with corrections highlighted. ### Trends and Data Points - **Energy Conversion**: - Potential energy decreases linearly as the skier descends, converting to kinetic energy. - No friction implies no energy loss, so total energy remains constant. - **Velocity Calculation**: - Correct formula: $ v = \sqrt{2gh} $. - Incorrect formula (student): $ v = \sqrt{2gL} $. ### Notable Anomalies - The student's use of $ L $ instead of $ H $ introduces a factor of 2 error in the velocity calculation. - The expert's response explicitly addresses this by canceling mass ($ m $) and solving for $ v $ using $ h $. ### Conclusion The problem emphasizes the importance of correctly identifying variables in physics equations. The skier's speed at the bottom of the slope is **28.01 m/s**, derived from the vertical height ($ H = 40 \, \text{m} $) and gravitational acceleration ($ g = 9.81 \, \text{m/s}^2 $). The student's error serves as a reminder to distinguish between path length and vertical displacement in energy conservation problems. </details> ## 2. Model Architecture Gemini models build on top of Transformer decoders (Vaswani et al., 2017b) that are enhanced with improvements in architecture and model optimization to enable stable training at scale and optimized inference on Google's Tensor Processing Units. They are trained to support 32k context length, employing efficient attention mechanisms (for e.g. multi-query attention (Shazeer, 2019a)). Our first version, Gemini 1.0, comprises three main sizes to support a wide range of applications as discussed in Table 1. Gemini models are trained to accommodate textual input interleaved with a wide variety of audio and visual inputs, such as natural images, charts, screenshots, PDFs, and videos, and they can produce text and image outputs (see Figure 2). The visual encoding of Gemini models is inspired by our own foundational work on Flamingo (Alayrac et al., 2022), CoCa (Yu et al., 2022a), and PaLI (Chen et al., 2022), with the important distinction that the models are multimodal from the beginning and can natively output images using discrete image tokens (Ramesh et al., 2021; Yu et al., 2022b). Video understanding is accomplished by encoding the video as a sequence of frames in the large context window. Video frames or images can be interleaved naturally with text or audio as part of the model input. The models can handle variable input resolution in order to spend more compute on tasks that require fine-grained understanding. In addition, Gemini models can directly ingest audio Table 1 | An overview of the Gemini 1.0 model family. | Model size | Model description | |--------------|---------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------| | Ultra | Our most capable model that delivers state-of-the-art performance across a wide range of highly complex tasks, including reasoning and multimodal tasks. It is efficiently serveable at scale on TPU accelerators due to the Gemini architecture. | | Pro | A performance-optimized model in terms of cost as well as latency that delivers significant performance across a wide range of tasks. This model exhibits strong reasoning performance and broad multimodal capabilities. | | Nano | Our most efficient model, designed to run on-device. We trained two versions of Nano, with 1.8B (Nano-1) and 3.25B (Nano-2) parameters, targeting low and high memory devices respectively. It is trained by distilling from larger Gemini models. It is 4-bit quantized for deployment and provides best-in-class performance. | Figure 2 | Gemini models support interleaved sequences of text, image, audio, and video as inputs (illustrated by tokens of different colors in the input sequence). They can output responses with interleaved image and text. <details> <summary>Image 3 Details</summary> ![94b93fef](/v1/image/94b93fef44272defb2a5c2e78f25f623b7b5447a5798ee90baedbc7acdac5a75) ### Visual Description ## Diagram: Multimodal Transformer System Architecture ### Overview The diagram illustrates a multimodal transformer system that processes diverse input sequences (text, audio, image, video) through a central transformer component, producing specialized outputs via image and text decoders. The architecture emphasizes bidirectional data flow and modality-specific processing. ### Components/Axes 1. **Input Sequence Block**: - Contains four modality-specific inputs: - **Text**: "Aa" (blue box) - **Audio**: Waveform icon (red box) - **Image**: Mountain icon (green box) - **Video**: Camera icon (yellow box) - Positioned at top-left, connected via black lines to the transformer. 2. **Transformer Core**: - Central blue box labeled "Transformer" - Receives aggregated input from all modalities - Outputs split into two decoder pathways 3. **Output Decoders**: - **Image Decoder** (green box): - Receives transformed data from the transformer - Outputs a green image icon with a star (✨) - **Text Decoder** (black box): - Receives transformed data from the transformer - Outputs "Aa" with a star (✨) 4. **Legend/Color Coding**: - Blue: Text modality - Red: Audio modality - Green: Image modality - Yellow: Video modality - Star symbols (✨) denote enhanced output states ### Spatial Grounding - **Top-Left**: Input sequence components arranged vertically - **Center**: Transformer as the processing hub - **Right-Side**: Decoders positioned horizontally - **Color Consistency**: Input modality colors match their respective decoder outputs ### Detailed Analysis 1. **Input Processing**: - All four modalities (text, audio, image, video) feed into the transformer simultaneously - Black connecting lines suggest sequential processing steps 2. **Transformer Function**: - Acts as a fusion layer for multimodal data - Outputs split into specialized decoder pathways 3. **Decoder Specialization**: - Image decoder produces visual outputs (green icon) - Text decoder generates textual outputs (blue "Aa") 4. **Star Symbolism**: - ✨ appears on both output types, suggesting: - Quality enhancement - Special processing flag - Priority indicator ### Key Observations 1. **Modality Agnostic Input**: - System accepts multiple input types without preference - All modalities contribute equally to transformer input 2. **Bidirectional Output**: - Single input sequence generates both text and image outputs - Implies cross-modal translation capability 3. **Star Annotation**: - Consistent use across outputs suggests systematic importance - May indicate confidence scores or special processing ### Interpretation This architecture demonstrates a unified approach to multimodal processing where: 1. **Transformer Fusion**: The central component integrates diverse data types before specialization 2. **Decoder Specialization**: Separate pathways maintain modality-specific characteristics 3. **Enhanced Outputs**: Star symbols likely represent system confidence or processing priority The design suggests applications in: - Cross-modal search systems - Multimodal content generation - Unified AI assistants handling text, audio, and visual inputs Notable absence of explicit temporal processing components (e.g., time stamps) suggests this represents a static processing snapshot rather than real-time streaming architecture. </details> signals at 16kHz from Universal Speech Model (USM) (Zhang et al., 2023) features. This enables the model to capture nuances that are typically lost when the audio is naively mapped to a text input (for example, see audio understanding demo on the website). Training the Gemini family of models required innovations in training algorithms, dataset, and infrastructure. For the Pro model, the inherent scalability of our infrastructure and learning algorithms enable us to complete pre-training in a matter of weeks, leveraging a fraction of the Ultra's resources. The Nano series of models leverage additional advancements in distillation and training algorithms to produce the best-in-class small language models for a wide variety of tasks, such as summarization and reading comprehension, which power our next generation on-device experiences. ## 3. Training Infrastructure We trained Gemini models using TPUv5e and TPUv4 (Jouppi et al., 2023), depending on their sizes and configuration. Training Gemini Ultra used a large fleet of TPUv4 accelerators owned by Google across multiple datacenters. This represents a significant increase in scale over our prior flagship model PaLM-2 which presented new infrastructure challenges. Scaling up the number of accelerators results in a proportionate decrease in the mean time between failure of hardware in the overall system. We minimized the rate of planned reschedules and preemptions, but genuine machine failures are commonplace across all hardware accelerators at such large scales. TPUv4 accelerators are deployed in 'SuperPods' of 4096 chips, each connected to a dedicated optical switch, which can dynamically reconfigure 4x4x4 chip cubes into arbitrary 3D torus topologies in around 10 seconds (Jouppi et al., 2023). For Gemini Ultra, we decided to retain a small number of cubes per superpod to allow for hot standbys and rolling maintenance. TPU accelerators primarily communicate over the high speed inter-chip-interconnect, but at Gemini Ultra scale, we combine SuperPods in multiple datacenters using Google's intra-cluster and inter-cluster network (Poutievski et al., 2022; Wetherall et al., 2023; yao Hong et al., 2018). Google's network latencies and bandwidths are sufficient to support the commonly used synchronous training paradigm, exploiting model parallelism within superpods and data-parallelism across superpods. The 'single controller' programming model of Jax (Bradbury et al., 2018) and Pathways (Barham et al., 2022) allows a single Python process to orchestrate the entire training run, dramatically simplifying the development workflow. The GSPMD partitioner (Xu et al., 2021) in the XLA compiler partitions the training step computation, and the MegaScale XLA compiler (XLA, 2019) pass statically schedules appropriate collectives so that they maximally overlap with the computation with very little variation in step time. Maintaining a high goodput 2 at this scale would have been impossible using the conventional approach of periodic checkpointing of weights to persistent cluster storage. For Gemini models, we instead made use of redundant in-memory copies of the model state, and on any unplanned hardware failures, we rapidly recover directly from an intact model replica. Compared to both PaLM and PaLM-2 (Anil et al., 2023), this provided a substantial speedup in recovery time, despite the significantly larger training resources being used. As a result, the overall goodput for the largest-scale training job increased from 85% to 97%. Training at unprecedented scale invariably surfaces new and interesting systems failure modes and in this instance one of the problems that we needed to address was that of 'Silent Data Corruption (SDC)' (Dixit et al., 2021; Hochschild et al., 2021; Vishwanathan et al., 2015). Although these are extremely rare, the scale of Gemini models means that we can expect SDC events to impact training every week or two. Rapidly detecting and removing faulty hardware required several new techniques that exploit deterministic replay to isolate incorrect computations, combined with proactive SDC scanners on idle machines and hot standbys. Our fully deterministic infrastructure allowed us to quickly identify root causes (including hardware failures) during the development leading up to the Ultra model, and this was a crucial ingredient towards stable training. ## 4. Pre-Training Dataset Gemini models are trained on a dataset that is both multimodal and multilingual. Our pre-training dataset uses data from web documents, books, and code, and includes image, audio, and video data. We use the SentencePiece tokenizer (Kudo and Richardson, 2018) and find that training the tokenizer on a large sample of the entire training corpus improves the inferred vocabulary and subsequently improves model performance. For example, we find Gemini models can efficiently 2 We define goodput as the time spent computing useful new steps over the elapsed time of the training job. tokenize non-Latin scripts which can, in turn, benefit model quality as well as training and inference speed. The number of tokens used to train the largest models were determined following the approach in Hoffmann et al. (2022). The smaller models are trained for significantly more tokens to improve performance for a given inference budget, similar to the approach advocated in Touvron et al. (2023a). We apply quality filters to all datasets, using both heuristic rules and model-based classifiers. We also perform safety filtering to remove harmful content based on our policies. To maintain the integrity of evaluations, we search for and remove any evaluation data that may have been in our training corpus before using data for training. The final data mixtures and weights were determined through ablations on smaller models. We stage training to alter the mixture composition during training - increasing the weight of domain-relevant data towards the end of training. We find that data quality is an important factor for highly-performing models, and believe that many interesting questions remain around finding the optimal dataset distribution for pre-training. ## 5. Evaluation The Gemini models are natively multimodal, as they are trained jointly across text, image, audio, and video. One open question is whether this joint training can result in a model which has strong capabilities in each domain - even when compared to models and approaches that are narrowly tailored to single domains. We find this to be the case: Gemini models set a new state of the art across a wide range of text, image, audio, and video benchmarks. ww ## 5.1. Text ## 5.1.1. Academic Benchmarks We compare pre- and post-trained Gemini Pro and Ultra models to a suite of external LLMs and our previous best model PaLM 2 across a series of text-based academic benchmarks covering reasoning, reading comprehension, STEM, and coding. We report these results in Table 2. Broadly, we find that the performance of Gemini Pro outperforms inference-optimized models such as GPT-3.5 and performs comparably with several of the most capable models available, and Gemini Ultra outperforms all current models. In this section, we examine some of these findings. On MMLU (Hendrycks et al., 2021a), Gemini Ultra can outperform all existing models, achieving an accuracy of 90.04%. MMLU is a holistic exam benchmark, which measures knowledge across a set of 57 subjects. Human expert performance is gauged at 89.8% by the benchmark authors, and Gemini Ultra is the first model to exceed this threshold, with the prior state-of-the-art result at 86.4%. Achieving high performance requires specialist knowledge across many domains (e.g. law, biology, history, etc.), alongside reading comprehension and reasoning. We find Gemini Ultra achieves highest accuracy when used in combination with a chain-of-thought prompting approach (Wei et al., 2022b) that accounts for model uncertainty. The model produces a chain of thought with k samples, for example 8 or 32. If there is a consensus above a preset threshold (selected based on the validation split), it selects this answer, otherwise it reverts to a greedy sample based on maximum likelihood choice without chain of thought. We refer the reader to appendix for a detailed breakdown of how this approach compares with only chain-of-thought prompting or only greedy sampling. In mathematics, a field commonly used to benchmark the analytical capabilities of models, Gemini Ultra shows strong performance on both elementary exams and competition-grade problem sets. For the grade-school math benchmark, GSM8K (Cobbe et al., 2021), we find Gemini Ultra reaches 94.4% accuracy with chain-of-thought prompting and self-consistency (Wang et al., 2022) compared to the previous best accuracy of 92% with the same prompting technique. Similar positive trends are observed in increased difficulty math problems drawn from middle- and high-school math competitions (MATH benchmark), with the Gemini Ultra model outperforming all competitor models, reaching 53.2% using 4-shot prompting. The model also outperforms the state of the art on even harder tasks derived from American Mathematical Competitions (150 questions from 2022 and 2023). Smaller models perform poorly on this challenging task scoring close to random, but Gemini Ultra can solve 32% of the questions, compared to the 30% solve rate for GPT-4. Gemini Ultra also excels in coding, a popular use case of current LLMs. We evaluate the model on many conventional and internal benchmarks and also measure its performance as part of more complex reasoning systems such as AlphaCode 2 (see Section 5.1.7 on complex reasoning systems). For example, on HumanEval, a standard code-completion benchmark (Chen et al., 2021) mapping function descriptions to Python implementations, instruction-tuned Gemini Ultra correctly implements 74.4% of problems. On a new held-out evaluation benchmark for python code generation tasks, Natural2Code, where we ensure no web leakage, Gemini Ultra achieves the highest score of 74.9%. Evaluation on these benchmarks is challenging and may be affected by data contamination. We performed an extensive leaked data analysis after training to ensure the results we report here are as scientifically sound as possible, but still found some minor issues and decided not to report results on e.g. LAMBADA (Paperno et al., 2016). As part of the evaluation process, on a popular benchmark, HellaSwag (Zellers et al., 2019), we find that an additional hundred fine-tuning steps on specific website extracts corresponding to the HellaSwag training set (which were not included in the Gemini model pretraining set) improve the validation accuracy of Gemini Pro to 89.6% and Gemini Ultra to 96.0%, when measured with 1-shot prompting (we measured GPT-4 obtained 92.3% when evaluated 1-shot via the API). This suggests that the benchmark results are susceptible to the pretraining dataset composition. We choose to report HellaSwag decontaminated results only in a 10-shot evaluation setting. We believe there is a need for more robust and nuanced standardized evaluation benchmarks with no leaked data. So, we evaluate Gemini models on several new held-out evaluation datasets that were recently released, such as WMT23 and Math-AMC 2022-2023 problems, or internally generated from non-web sources, such as Natural2Code. We refer the reader to Appendix 10.3 for a comprehensive list of our evaluation benchmarks. Even so, model performance on these benchmarks gives us an indication of the model capabilities and where they may provide impact on real-world tasks. For example, Gemini Ultra's impressive reasoning and STEM competencies pave the way for advancements in LLMs within the educational domain 3 . The ability to tackle complex mathematical and scientific concepts opens up exciting possibilities for personalized learning and intelligent tutoring systems. ## 5.1.2. Trends in Capabilities We investigate the trends in capabilities across the Gemini model family by evaluating them on a holistic harness of more than 50 benchmarks in six different capabilities, noting that some of the most notable benchmarks were discussed in the last section. These capabilities are: 'Factuality' covering open/closed-book retrieval and question answering tasks; 'Long-Context' covering longform summarization, retrieval and question answering tasks; 'Math/Science' including tasks for mathematical problem solving, theorem proving, and scientific exams; 'Reasoning' tasks that require arithmetic, scientific, and commonsense reasoning; 'Multilingual' tasks for translation, summarization, and reasoning in multiple languages. Several of these capabilities are targeted by post-training (Section 6). Please see Appendix 10.3 for a detailed list of tasks included for each capability. 3 See demos on website https://deepmind.google/gemini . | | Gemini Ultra | Gemini Pro | GPT-4 | GPT-3.5 | PaLM 2-L | Claude 2 | Inflect- ion-2 | Grok 1 | LLAMA-2 | |---------------------------------------------------------------------------------------------------|------------------------------|-----------------------------|-------------------------------------------------------|----------------------------|---------------------|------------------|------------------|--------------|--------------| | MMLU Multiple-choice questions in 57 subjects (professional & academic) (Hendrycks et al., 2021a) | 90.04% CoT@32 ∗ 83.7% 5-shot | 79.13% CoT@8 ∗ 71.8% 5-shot | 87.29% CoT@32 (via API ∗∗ ) 86.4% 5-shot | 70% 5-shot | 78.4% 5-shot | 78.5% 5-shot CoT | 79.6% 5-shot | 73.0% 5-shot | 68.0% ∗∗∗ | | GSM8K Grade-school math (Cobbe et al., 2021) | 94.4% Maj1@32 | 86.5% Maj1@32 | 92.0% SFT & 5-shot CoT | 57.1% 5-shot | 80.0% 5-shot | 88.0% 0-shot | 81.4% 8-shot | 62.9% 8-shot | 56.8% 5-shot | | MATH Math problems across 5 difficulty levels & 7 subdisciplines (Hendrycks et al., 2021b) | 53.2% 4-shot | 32.6% 4-shot | 52.9% 4-shot (via API ∗∗ ) 50.3% (Zheng et al., 2023) | 34.1% 4-shot (via API ∗∗ ) | 34.4% 4-shot | - | 34.8% | 23.9% 4-shot | 13.5% 4-shot | | BIG-Bench-Hard Subset of hard BIG-bench tasks written as CoT prob- lems (Srivastava et al., 2022) | 83.6% 3-shot | 75.0% 3-shot | 83.1% 3-shot (via API ∗∗ ) | 66.6% 3-shot (via API ∗∗ ) | 77.7% 3-shot | - | - | - | 51.2% 3-shot | | HumanEval Python coding tasks (Chen et al., 2021) | 74.4% 0-shot (PT ∗∗∗∗ ) | 67.7% 0-shot (PT ∗∗∗∗ ) | 67.0% 0-shot (reported) | 48.1% 0-shot | - | 70.0% 0-shot | 44.5% 0-shot | 63.2% 0-shot | 29.9% 0-shot | | Natural2Code Python code generation. (New held-out set with no leakage on web) | 74.9% 0-shot | 69.6% 0-shot | 73.9% 0-shot (via API ∗∗ ) | 62.3% 0-shot (via API ∗∗ ) | - | - | - | - | - | | DROP Reading comprehension & arithmetic. (metric: F1-score) (Dua et al., 2019) | 82.4 Variable shots | 74.1 Variable shots | 80.9 3-shot (reported) | 64.1 3-shot | 82.0 Variable shots | - | - | - | - | | HellaSwag (validation set) Common-sense multiple choice questions (Zellers et al., 2019) | 87.8% 10-shot | 84.7% 10-shot | 95.3% 10-shot (reported) | 85.5% 10-shot | 86.8% 10-shot | - | 89.0% 10-shot | - | 80.0% ∗∗∗ | | WMT23 Machine translation (met- ric: BLEURT) (Tom et al., 2023) | 74.4 1-shot (PT ∗∗∗∗ ) | 71.7 1-shot | 73.8 1-shot (via API ∗∗ ) | - | 72.7 1-shot | - | - | - | - | ## Table 2 | Gemini performance on text benchmarks with external comparisons and PaLM 2-L. ∗ The model produces a chain of thought with k = 8 or 32 samples, if there is a consensus above a threshold (chosen based on the validation split), it selects this answer, otherwise it reverts to a greedy sample. Further analysis in Appendix 10.2. ∗∗ Results self-collected via the API in Nov, 2023. ∗∗∗ Results shown use the decontaminated numbers from Touvron et al. (2023b) report as the most relevant comparison to Gemini models which have been decontaminated as well.) ∗∗∗∗ PT denotes a post-trained Gemini API model. We observe consistent quality gains with increased model size in Figure 3, especially in reasoning, math/science, summarization and long-context. Gemini Ultra is the best model across the board for all six capabilities. Gemini Pro, the second-largest model in the Gemini family of models, is also quite competitive while being a lot more efficient to serve. ## 5.1.3. Nano Bringing AI closer to the user, we discuss the Gemini Nano 1 and Nano 2 models engineered for on-device deployments. These models excel in summarization and reading comprehension tasks with per-task fine-tuning. Figure 3 shows the performance of these pre-trained models in comparison to the much larger Gemini Pro model, while Table 3 dives deeper into specific factuality, coding, Math/Science, and reasoning tasks. Nano-1 and Nano-2 model sizes are only 1.8B and 3.25B parameters respectively. Despite their size, they show exceptionally strong performance on factuality, i.e. retrieval-related tasks, and significant performance on reasoning, STEM, coding, multimodal and Figure 3 | Language understanding and generation performance of Gemini model family across different capabilities (normalized by the Gemini Pro model). <details> <summary>Image 4 Details</summary> ![508feeef](/v1/image/508feeef78e5c661f29be9e8d35c9a3b0df46dd1e34a293a988b83eceb321710) ### Visual Description ## Bar Chart: Normalized Performance vs Pro ### Overview The chart compares the normalized performance of four AI models (Nano 1, Nano 2, Pro, Ultra) across six evaluation categories: Factuality, Long-Context, Math/Science, Summarization, Reasoning, and Multilinguality. Performance is measured relative to a "Pro" benchmark (green bars), with values normalized to a scale of 0.0–1.4. ### Components/Axes - **X-axis**: Evaluation categories (Factuality, Long-Context, Math/Science, Summarization, Reasoning, Multilinguality). - **Y-axis**: Normalized performance (0.0–1.4), with a dashed line at 1.0 representing the "Pro" baseline. - **Legend**: Located in the top-right corner, mapping colors to models: - Red: Nano 1 - Yellow: Nano 2 - Green: Pro - Blue: Ultra ### Detailed Analysis 1. **Factuality**: - Nano 1: ~0.7 - Nano 2: ~0.8 - Pro: 1.0 - Ultra: ~1.05 2. **Long-Context**: - Nano 1: ~0.5 - Nano 2: ~0.7 - Pro: 1.0 - Ultra: ~1.25 3. **Math/Science**: - Nano 1: ~0.55 - Nano 2: ~0.6 - Pro: 1.0 - Ultra: ~1.3 4. **Summarization**: - Nano 1: ~0.3 - Nano 2: ~0.55 - Pro: 1.0 - Ultra: ~1.15 5. **Reasoning**: - Nano 1: ~0.5 - Nano 2: ~0.65 - Pro: 1.0 - Ultra: ~1.2 6. **Multilinguality**: - Nano 1: ~0.65 - Nano 2: ~0.8 - Pro: 1.0 - Ultra: ~1.1 ### Key Observations - **Pro Baseline**: All "Pro" bars are fixed at 1.0, serving as the reference point. - **Ultra Performance**: Consistently outperforms other models, peaking at ~1.3 in Math/Science. - **Nano 1 Weakness**: Struggles in Summarization (~0.3) and Reasoning (~0.5). - **Nano 2 Consistency**: Outperforms Nano 1 in most categories but remains below Pro/Ultra. - **Ultra Decline**: Performance drops slightly in Multilinguality (~1.1) compared to Math/Science (~1.3). ### Interpretation The chart highlights trade-offs between model complexity and task-specific performance: - **Ultra** excels in technical domains (Math/Science, Reasoning) but shows reduced capability in Multilinguality, suggesting potential over-optimization for structured tasks. - **Nano models** underperform across all categories, with Nano 1 being particularly weak in Summarization. This may indicate architectural limitations in handling abstract or generative tasks. - **Pro** serves as a stable benchmark, with all models falling short except Ultra in specific areas. The gap between Nano/Ultra and Pro underscores the importance of model scale in achieving human-level performance. - The ~15% performance drop in Ultra for Multilinguality hints at potential resource allocation biases toward technical over linguistic tasks. </details> multilingual tasks. With new capabilities accessible to a broader set of platforms and devices, the Gemini models expand accessibility to everyone. Table 3 | Performance of Gemini Nano series on factuality, summarization, reasoning, coding and STEM tasks compared to significantly larger Gemini Pro model. | | Gemini Nano 1 | Gemini Nano 1 | Gemini Nano 2 | Gemini Nano 2 | |--------------------------------|-----------------|-------------------|-----------------|-------------------| | | accuracy | normalized by Pro | accuracy | normalized by Pro | | BoolQ | 71.6 | 0.81 | 79.3 | 0.90 | | TydiQA (GoldP) | 68.9 | 0.85 | 74.2 | 0.91 | | NaturalQuestions (Retrieved) | 38.6 | 0.69 | 46.5 | 0.83 | | NaturalQuestions (Closed-book) | 18.8 | 0.43 | 24.8 | 0.56 | | BIG-Bench-Hard (3-shot) | 34.8 | 0.47 | 42.4 | 0.58 | | MBPP | 20.0 | 0.33 | 27.2 | 0.45 | | MATH (4-shot) | 13.5 | 0.41 | 22.8 | 0.70 | | MMLU (5-shot) | 45.9 | 0.64 | 55.8 | 0.78 | ## 5.1.4. Multilinguality The multilingual capabilities of the Gemini models are evaluated using a diverse set of tasks requiring multilingual understanding, cross-lingual generalization, and the generation of text in multiple languages. These tasks include machine translation benchmarks (WMT 23 for high-medium-low resource translation; Flores, NTREX for low and very low resource languages), summarization benchmarks (XLSum, Wikilingua), and translated versions of common benchmarks (MGSM: professionally translated into 11 languages). ## 5.1.4.1 Machine Translation Translation is a canonical benchmark in machine learning with a rich history. We evaluated a posttrained Gemini API Ultra model (see Section 6.5.3) on the entire set of language pairs in the WMT 23 translation benchmark in a few-shot setting. Overall, we found that Gemini Ultra (and other Gemini models) performed remarkably well at translating from English to any other language, and surpassed the LLM-based translation methods when translating out-of-English, on high-resource, mid-resource and low-resource languages. In the WMT 23 out-of-English translation tasks, Gemini Ultra achieved the highest LLM-based translation quality, with an average BLEURT (Sellam et al., 2020) score of 74.8, compared to GPT-4's score of 73.6, and PaLM 2's score of 72.2. When averaged across all language pairs and directions for WMT 23, we see a similar trend with Gemini Ultra 74.4, GPT-4 73.8 and PaLM 2-L 72.7 average BLEURT scores on this benchmark. Table 4 | Performance of Gemini models on WMT 23 translation benchmark. All numbers with 1-shot. | WMT 23 (Avg BLEURT) | Gemini Ultra | Gemini Pro | Gemini Nano 2 | Gemini Nano 1 | GPT-4 | PaLM 2-L | |-----------------------|----------------|--------------|-----------------|-----------------|---------|------------| | High Resource | 74.2 | 71.7 | 67.7 | 64.1 | 74 | 72.6 | | Mid Resource | 74.7 | 71.8 | 67 | 64.8 | 73.6 | 72.7 | | Out-of-English | 74.8 | 71.5 | 66.2 | 65.2 | 73.6 | 72.2 | | Into-English | 73.9 | 72 | 69 | 63.5 | 74.1 | 73.4 | | All languages | 74.4 | 71.7 | 67.4 | 64.8 | 73.8 | 72.7 | In addition to the languages and translation tasks above, we also evaluate Gemini Ultra on very low-resource languages. These languages were sampled from the tail of the following language sets: Flores-200 (Tamazight and Kanure), NTREX (North Ndebele), and an internal benchmark (Quechua). For these languages, both from and into English, Gemini Ultra achieved an average chrF score of 27.0 in 1-shot setup, while the next-best model, PaLM 2-L, achieved a score of 25.3. ## 5.1.4.2 Multilingual Math and Summarization Beyond translation, we evaluated how well Gemini models perform in challenging tasks across a range of languages. We specifically investigated the math benchmark MGSM (Shi et al., 2023), which is a translated variant of the math benchmark GSM8K (Cobbe et al., 2021). We find Gemini Ultra achieves an accuracy of 79.0%, an advance over PaLM 2-L which scores 74.7%, when averaged across all languages in an 8-shot setup. We also benchmark Gemini models on the multilingual summarization benchmarks - XLSum (Hasan et al., 2021) and WikiLingua (Ladhak et al., 2020). In XLSum, Gemini Ultra reached an average of 17.6 rougeL score compared to 15.4 for PaLM 2. For Wikilingua, Gemini Ultra (5-shot) trails behind PaLM 2 (3-shot) measured in BLEURT score. See Table 5 for the full results. Overall the diverse set of multilingual benchmarks show that Gemini family models have a broad language coverage, enabling them to also reach locales and regions with low-resource languages. Table 5 | Performance of Gemini models on multilingual math and summarization. | | Gemini Ultra | Gemini Pro | GPT-4 | PaLM 2-L | |----------------|----------------|--------------|---------|------------| | MGSM (8-shot) | 79 | 63.5 | 74.5 | 74.7 | | XLsum (3-shot) | 17.6 | 16.2 | - | 15.4 | | Wikilingua | 48.9 | 47.8 | - | 50.4 | ## 5.1.5. Long Context Gemini models are trained with a sequence length of 32,768 tokens and we find that they make use of their context length effectively. We first verify this by running a synthetic retrieval test: we place key-value pairs at the beginning of the context, then add long filler text, and ask for value associated with a particular key. We find that the Ultra model retrieves the correct value with 98% accuracy when queried across the full context length. We further investigate this by plotting the negative log likelihood (NLL) versus the token index across a held-out set of long documents in Figure 4. We find that the NLL decreases with sequence position up to the full 32K context length. The longer context length of Gemini models enable new use cases such as retrieval over documents and video understanding discussed in Section 5.2.2. Figure 4 | Negative log likelihood as a function of token index across 32K context length on a held-out set of long documents. <details> <summary>Image 5 Details</summary> ![b0aae503](/v1/image/b0aae503296da9097de08edb3e3a2006a52e6f0fe72732cf302b598e88cdf59f) ### Visual Description ## Line Graph: NLL vs Sequence Position ### Overview The image is a line graph comparing the Negative Log Likelihood (NLL) performance of two models, "Pro" (green line) and "Ultra" (blue line), across sequence positions ranging from 8 to 32K. Both lines show a decreasing trend, with "Pro" starting higher than "Ultra" but ending lower, indicating a crossover point. ### Components/Axes - **X-axis (Horizontal)**: Labeled "Sequence position" with logarithmic scale markers at 8, 16, 32, 64, 128, 256, 512, 1K, 2K, 4K, 8K, 16K, 32K. - **Y-axis (Vertical)**: Labeled "NLL" with linear scale markers from 0 to 16. - **Legend**: Located in the top-right corner, with "Pro" (green line) and "Ultra" (blue line) labeled. ### Detailed Analysis - **Pro (Green Line)**: - Starts at ~14 NLL at 8K sequence position. - Decreases steeply to ~8 NLL at 16K. - Flattens to ~4 NLL at 32K. - **Ultra (Blue Line)**: - Starts at ~12 NLL at 8K. - Decreases gradually to ~6 NLL at 16K. - Flattens to ~3 NLL at 32K. - **Crossover Point**: The lines intersect near the 16K sequence position, where both models have ~8 NLL. ### Key Observations 1. **Initial Performance**: "Ultra" begins with lower NLL than "Pro" at shorter sequence positions (e.g., 8K, 16K). 2. **Long-Term Efficiency**: "Pro" outperforms "Ultra" at longer sequence positions (e.g., 32K), with a ~1 NLL advantage. 3. **Trend Divergence**: The gap between the lines narrows after 16K, suggesting diminishing returns for both models at extreme sequence lengths. ### Interpretation The graph demonstrates that "Pro" is more effective than "Ultra" for processing longer sequences, as its NLL reduction accelerates beyond the 16K mark. This could imply architectural advantages in "Pro" for handling extended data, such as optimized memory usage or computational efficiency. The crossover point highlights a critical threshold where "Pro" becomes the superior choice, potentially guiding deployment decisions based on sequence length requirements. No anomalies or outliers are observed; both lines follow smooth, predictable trends. </details> ## 5.1.6. Factuality Factuality (Maynez et al., 2020) is a key focus of our model's training and deployment. We evaluate three aspects of factuality for our Gemini API models: 1. Closed-Book Factuality : If provided with a fact-seeking prompt without any given source, Gemini API models should not hallucinate incorrect information (see Section 2 of Roberts et al. (2020) for a definition). These prompts can range from information-seeking prompts (e.g. 'Who is the prime minister of India?') to semi-creative prompts that may request factual information (e.g. 'Write a 500-word speech in favor of the adoption of renewable energy'). 2. Attribution : If instructed to generate a response grounded to a given context, we aim to ensure that Gemini API models produce a response with the highest degree of faithfulness to the context (Maynez et al., 2020; Rashkin et al., 2023). This may include the summarization of a user-provided source, generating fine-grained citations given a question and provided snippets akin to Menick et al. (2022); Peng et al. (2023), answering questions from a long-form source such as a book (Mihaylov et al., 2018), and transforming a given source to a desired output (e.g. an email from a portion of a meeting transcript). 3. Hedging : If prompted with an input that is 'unanswerable', Gemini API models must acknowledge that it cannot provide a response by hedging to avoid hallucination. These include scenarios where the input prompt contains false-premise questions [see examples in Hu et al. (2023)], the input prompt instructs the model to perform open book QA, but the answer is not derivable from the given context, and so forth. Factuality is evaluated via human annotators who fact-check each response manually; we report the percentage of factually inaccurate responses as judged by annotators. Attribution is evaluated via human annotators who check for attribution to sources in the prompt for each response manually; the reported metric is AIS (Rashkin et al., 2023). For hedging, we use an automatic evaluation setup where we measure whether models hedge accurately. We compare Gemini API Pro with a version without any factuality-focused adaptation in Table 6. We see that the rate of inaccuracy is halved in the factuality set, the accuracy of attribution is increased by 50% from the attribution set, and the model successfully hedges 70% (up from 0%) in the provided hedging set task. | | Factuality (Inaccurate Rate) | Attribution (AIS) | Hedging (Accuracy) | |-------------------------------------------------|--------------------------------|----------------------|----------------------| | Gemini API Pro No factuality-focused adaptation | 6.7% [5.8%, 7.8%] | 40.2% [37.9%, 42.5%] | 0% | | Gemini API Pro Final stage of post-training | 3.8% [3.1%, 4.8%] | 60.0% [57.6%, 62.1%] | 69.3% | Table 6 | Factuality mitigations: Impact of post-training on the rate of inaccuracy, presence of attribution and the rate of accurate hedging on Gemini API Pro (with corresponding 95% confidence intervals). ## 5.1.7. Complex Reasoning Systems Gemini models can also be combined with additional techniques such as search and tool-use to create powerful reasoning systems that can tackle more complex multi-step problems. One example of such a system is AlphaCode 2, a new state-of-the-art agent that excels at solving competitive programming problems (Leblond et al, 2023). AlphaCode 2 uses a specialized version of Gemini Pro - tuned on competitive programming data similar to the data used in Li et al. (2022) - to conduct a massive search over the space of possible programs. This is followed by a tailored filtering, clustering and reranking mechanism. Gemini Pro is fine-tuned both to be a coding model to generate proposal solution candidates, and to be a reward model that is leveraged to recognize and extract the most promising code candidates. AlphaCode 2 is evaluated on Codeforces, 4 the same platform as AlphaCode, on 12 contests from division 1 and 2, for a total of 77 problems. AlphaCode 2 solved 43% of these competition problems, a 1.7x improvement over the prior record-setting AlphaCode system which solved 25%. Mapping this to competition rankings, AlphaCode 2 built on top of Gemini Pro sits at an estimated 85th percentile on average - i.e. it performs better than 85% of entrants. This is a significant advance over AlphaCode, which only outperformed 50% of competitors. The composition of powerful pre-trained models with search and reasoning mechanisms is an exciting direction towards more general agents; another key ingredient is deep understanding across a range of modalities which we discuss in the next section. 4 http://codeforces.com/ ## 5.2. Multimodal Gemini models are natively multimodal. These models exhibit the unique ability to seamlessly combine their capabilities across modalities (e.g. extracting information and spatial layout out of a table, a chart, or a figure) with the strong reasoning capabilities of a language model (e.g. its state-of-art-performance in math and coding) as seen in examples in Figures 5 and 14. The models also show strong performance in discerning fine-grained details in inputs, aggregating context across space and time, and applying these capabilities over a temporally-related sequence of video frames and/or audio inputs. The sections below provide more detailed evaluation of the model across different modalities (image, video, and audio), together with qualitative examples of the model's capabilities for image generation and the ability to combine information across different modalities. ## 5.2.1. Image Understanding We evaluate post-trained Gemini API models on four different capabilities: high-level object recognition using captioning or question-answering tasks such as VQAv2; fine-grained transcription using tasks such as TextVQA and DocVQA requiring the model to recognize low-level details; chart understanding requiring spatial understanding of input layout using ChartQA and InfographicVQA tasks; and multimodal reasoning using tasks such as Ai2D, MathVista and MMMU. For zero-shot QA evaluation, the model is instructed to provide short answers aligned with the specific benchmark. All numbers are obtained using greedy sampling and without any use of external OCR tools. Table 7 | Image understanding Gemini Ultra consistently outperforms existing approaches even in zero-shot, especially for OCR-related image understanding tasks for natural images, text, documents, and figures without using any external OCR engine ('pixel only'). Many existing approaches fine-tune on the respective tasks, highlighted in gray, which makes the comparison with 0-shot not apples-toapples. | | Gemini Ultra (pixel only) | Gemini Pro (pixel only) | Gemini Nano 2 (pixel only) | Gemini Nano 1 (pixel only) | GPT-4V | Prior SOTA | |-----------------------------------------------------------------------|-----------------------------|---------------------------|------------------------------|------------------------------|--------------------|----------------------------------------------------| | MMMU (val) Multi-discipline college-level problems (Yue et al., 2023) | 59.4% pass@1 62.4% Maj1@32 | 47.9% | 32.6% | 26.3% | 56.8% | 56.8% GPT-4V, 0-shot | | TextVQA (val) Text reading on natural images (Singh et al., 2019) | 82.3% | 74.6% | 65.9% | 62.5% | 78.0% | 79.5% Google PaLI-3, fine-tuned | | DocVQA (test) Document understanding (Mathew et al., 2021) | 90.9% | 88.1% | 74.3% | 72.2% | 88.4% (pixel only) | 88.4% GPT-4V, 0-shot | | ChartQA (test) Chart understanding (Masry et al., 2022) | 80.8% | 74.1% | 51.9% | 53.6% | 78.5% (4-shot CoT) | 79.3% Google DePlot, 1-shot PoT (Liu et al., 2023) | | InfographicVQA (test) Infographic understanding (Mathew et al., 2022) | 80.3% | 75.2% | 54.5% | 51.1% | 75.1% (pixel only) | 75.1% GPT-4V, 0-shot | | MathVista (testmini) Mathematical reasoning (Lu et al., 2023) | 53.0% | 45.2% | 30.6% | 27.3% | 49.9% | 49.9% GPT-4V, 0-shot | | AI2D (test) Science diagrams (Kembhavi et al., 2016) | 79.5% | 73.9% | 51.0% | 37.9% | 78.2% | 81.4% Google PaLI-X, fine-tuned | | VQAv2 (test-dev) Natural image understanding (Goyal et al., 2017) | 77.8% | 71.2% | 67.5% | 62.7% | 77.2% | 86.1% Google PaLI-X, fine-tuned | We find that Gemini Ultra is state of the art across a wide range of image-understanding benchmarks in Table 7. It achieves strong performance across a diverse set of tasks such as answering questions on natural images and scanned documents as well as understanding infographics, charts and science diagrams. When compared against publicly reported results from other models (most notably GPT-4V), the Gemini model is better in zero-shot evaluation by a significant margin. It also exceeds several existing models that are specifically fine-tuned on the benchmark's training sets for the majority of tasks. The capabilities of the Gemini models lead to significant improvements in the state of the art on academic benchmarks like MathVista (+3.1%) 5 or InfographicVQA (+5.2%). MMMU(Yue et al., 2023) is a recently released evaluation benchmark, which consists of questions about images across 6 disciplines with multiple subjects within each discipline that require collegelevel knowledge to solve these questions. Gemini Ultra achieves the best score on this benchmark advancing the state-of-the-art result by more than 5 percentage points and outperforms the previous best result in 5 of 6 disciplines (see Table 8), thus showcasing its multimodal reasoning capabilities. Table 8 | Gemini Ultra performance on the MMMU benchmark (Yue et al., 2023) per discipline. Each discipline covers multiple subjects, requiring college-level knowledge and complex reasoning. | MMMU (val) | Gemini Ultra (0-shot) Maj@32 | pass@1 | GPT-4V (0-shot) pass@1 | |-----------------------------|--------------------------------|----------|--------------------------| | Art & Design | 74.2 | 70 | 65.8 | | Business | 62.7 | 56.7 | 59.3 | | Science | 49.3 | 48 | 54.7 | | Health & Medicine | 71.3 | 67.3 | 64.7 | | Humanities & Social Science | 78.3 | 78.3 | 72.5 | | Technology & Engineering | 53 | 47.1 | 36.7 | | Overall | 62.4 | 59.4 | 56.8 | Gemini models are also capable of operating across modalities and a diverse set of global languages simultaneously, both for image understanding tasks (e.g., images containing text in Icelandic) and for generation tasks (e.g., generating image descriptions for a wide range of languages). We evaluate the performance of generating image descriptions on a selected subset of languages in the Crossmodal3600 (XM-3600) benchmark in a 4-shot setting, using the Flamingo evaluation protocol (Alayrac et al., 2022), without any fine-tuning for all models. As shown in Table 9, Gemini models achieve a significant improvement over the existing best model, Google PaLI-X. Table 9 | Multilingual image understanding Gemini models outperform existing models in captioning images in many languages when benchmarked on a subset of languages in XM-3600 dataset (Thapliyal et al., 2022). | XM-3600 (CIDER) | Gemini Ultra 4-shot | Gemini Pro 4-shot | Google PaLI-X 4-shot | |-------------------|-----------------------|---------------------|------------------------| | English | 86.4 | 87.1 | 77.8 | | French | 77.9 | 76.7 | 62.5 | | Hindi | 31.1 | 29.8 | 22.2 | | Modern Hebrew | 54.5 | 52.6 | 38.7 | | Romanian | 39 | 37.7 | 30.2 | | Thai | 86.7 | 77 | 56 | | Chinese | 33.3 | 30.2 | 27.7 | | Average (of 7) | 58.4 | 55.9 | 45 | 5 MathVista is a comprehensive mathematical reasoning benchmark consisting of 28 previously published multimodal datasets and three newly created datasets. Our MathVista results were obtained by running the MathVista authors' evaluation script. ## Prompt Write code torearrange the subplots in thefigureusing the latest version tangentfunctiononthebottomright.Fortheremainingtwosubplots, one of them should stay in its original position and the other should fill thelastspot.Firstdescribewhateachsubplotdepictsandidentifyits currentlocation.Then,explainwhereeachsubplotshouldgoinitsnew location.Lastwritethefullcodefortherearrangedversionwiththe original color scheme. <details> <summary>Image 6 Details</summary> ![8236e031](/v1/image/8236e0316b60f25266095ab7407e866498e71ce92f8e825cecf3305ab8666459) ### Visual Description ## Multi-Subplot Visualization: Mathematical and Data Trends ### Overview The image contains four distinct subplots arranged in a 2x2 grid, each representing different mathematical or data trends. The visualizations include oscillatory behavior, spike patterns, logarithmic growth, and a 3D surface plot. All subplots use a consistent color scheme (blue for lines, gradient for 3D surface) and share axis labels ("x-axis", "y-axis") with minor variations. --- ### Components/Axes 1. **Top-Left Plot (Sine Wave)** - **X-axis**: Labeled "x-axis", range 0–10, linear scale. - **Y-axis**: Labeled "y-axis", range -1.0 to 1.0, linear scale. - **Legend**: "Sine Wave" (blue line), positioned in the top-right corner of the subplot. - **Grid**: Light gray grid lines. 2. **Top-Right Plot (Spike Patterns)** - **X-axis**: Labeled "x-axis", range 0–10, linear scale. - **Y-axis**: Labeled "y-axis", range -30 to 30, linear scale. - **Legend**: Three categories ("Spike 1", "Spike 2", "Spike 3") with distinct blue line styles, positioned in the top-right corner. - **Grid**: Light gray grid lines. 3. **Bottom-Left Plot (Logarithmic Growth)** - **X-axis**: Labeled "x-axis", range 0–10, linear scale. - **Y-axis**: Labeled "y-axis", range 0 to 20,000, logarithmic scale. - **Legend**: "Logarithmic Growth" (blue line), positioned in the top-right corner. - **Grid**: Light gray grid lines. 4. **Bottom-Right Plot (3D Surface Plot)** - **X-axis**: Labeled "x", range 0–1, linear scale. - **Y-axis**: Labeled "y", range 0–1, linear scale. - **Z-axis**: Labeled "z", range 0–1, linear scale. - **Color Gradient**: Purple (low values) to yellow (high values), no explicit legend. - **Grid**: 3D grid lines with axis ticks. --- ### Detailed Analysis #### Top-Left Plot (Sine Wave) - **Trend**: Oscillatory pattern with three peaks and two troughs. - **Key Data Points**: - Peaks at approximately (x=1, y=1.0), (x=5, y=1.0), (x=9, y=1.0). - Troughs at approximately (x=3, y=-1.0), (x=7, y=-1.0). - Final point at (x=10, y=-0.5). #### Top-Right Plot (Spike Patterns) - **Trend**: Three sharp vertical spikes at x=2, 4, and 6. - **Key Data Points**: - **Spike 1**: Rises to y=30 at x=2, drops to y=-30 at x=3. - **Spike 2**: Rises to y=30 at x=4, drops to y=-30 at x=5. - **Spike 3**: Rises to y=30 at x=6, drops to y=-30 at x=7. - Baseline at y=0 between spikes. #### Bottom-Left Plot (Logarithmic Growth) - **Trend**: Exponential growth starting near x=5. - **Key Data Points**: - y ≈ 100 at x=5. - y ≈ 10,000 at x=9. - y ≈ 20,000 at x=10. #### Bottom-Right Plot (3D Surface Plot) - **Trend**: Saddle-shaped surface with: - High values (yellow) at edges (x=0, y=0; x=1, y=1). - Low values (purple) at the center (x=0.5, y=0.5). - Gradual transition from purple to yellow across the surface. --- ### Key Observations 1. **Periodicity**: The sine wave exhibits regular oscillations with a period of ~4 units. 2. **Discontinuities**: The spike plot shows abrupt transitions between positive and negative extremes. 3. **Asymmetry**: The logarithmic growth curve accelerates rapidly after x=5, suggesting a threshold effect. 4. **Multivariate Interaction**: The 3D surface plot reveals a non-linear relationship between x, y, and z, with opposing curvatures. --- ### Interpretation - **Sine Wave**: Represents a periodic phenomenon (e.g., signal processing, harmonic motion). - **Spike Patterns**: Likely model sudden events (e.g., sensor anomalies, financial market crashes). - **Logarithmic Growth**: Indicates exponential scaling, common in population growth or viral spread. - **3D Surface Plot**: Suggests a complex system with competing forces (e.g., economic models, fluid dynamics). The visualizations collectively demonstrate diverse mathematical behaviors, from deterministic periodicity to chaotic spikes and nonlinear growth. The 3D plot’s saddle shape implies a system with both stabilizing and destabilizing components. </details> <details> <summary>Image 7 Details</summary> ![a73da6a2](/v1/image/a73da6a25460466ad4d8013736de28084652139909f871d137a22bbfabdf448f) ### Visual Description ## 3D Surface Plot: Rendered Code Visualization ### Overview The image contains four distinct plots: a 3D surface plot, a line graph, a bar chart, and a secondary line graph. The 3D plot is labeled "Rendered code" in the top-left corner, with a color gradient from purple to green. The other plots are labeled with axes and numerical scales. ### Components/Axes 1. **3D Surface Plot** - **Axes**: - X-axis: 0.0 to 1.0 (labeled "x") - Y-axis: 0.0 to 1.0 (labeled "y") - Z-axis: 0.0 to 1.0 (labeled "z") - **Legend**: "Rendered code" (top-left corner, color gradient: purple to green). 2. **Line Graph (Top-Right)** - **Axes**: - X-axis: -10 to 10 (labeled "x") - Y-axis: -1 to 1 (labeled "y") - **Data**: A single blue line with two peaks and a trough. 3. **Bar Chart (Bottom-Left)** - **Axes**: - X-axis: 0 to 10 (labeled "x") - Y-axis: 0 to 20,000 (labeled "y") - **Data**: A single bar at x=10 with a height of 20,000. 4. **Secondary Line Graph (Bottom-Right)** - **Axes**: - X-axis: 0 to 10 (labeled "x") - Y-axis: -40 to 10 (labeled "y") - **Data**: A blue line with three peaks and troughs. ### Detailed Analysis 1. **3D Surface Plot** - The surface shows a gradient from purple (low values) to green (high values). - Key data points: - At (x=0.0, y=0.0): z ≈ 0.0 - At (x=1.0, y=1.0): z ≈ 1.0 - Intermediate values (e.g., x=0.5, y=0.5): z ≈ 0.5 (approximate). 2. **Line Graph (Top-Right)** - The line oscillates between -1 and 1, with peaks at x ≈ 2 and x ≈ 6, and a trough at x ≈ 4. - Key data points: - x=-10: y ≈ -1 - x=0: y ≈ 0 - x=2: y ≈ 1 - x=4: y ≈ -1 - x=6: y ≈ 1 - x=10: y ≈ -1 3. **Bar Chart (Bottom-Left)** - A single bar at x=10 reaches the maximum y-value of 20,000. - All other x-values (0–9) have y=0. 4. **Secondary Line Graph (Bottom-Right)** - The line exhibits three distinct peaks and troughs: - First peak: x ≈ 2, y ≈ 10 - First trough: x ≈ 4, y ≈ -30 - Second peak: x ≈ 6, y ≈ 10 - Second trough: x ≈ 8, y ≈ -30 - Final value: x=10, y ≈ 0 ### Key Observations 1. The 3D surface plot suggests a smooth, continuous function with a gradient from low (purple) to high (green) values. 2. The line graph (top-right) resembles a sinusoidal wave with two peaks and a trough, possibly representing a periodic signal. 3. The bar chart (bottom-left) highlights a single outlier at x=10, indicating a sharp increase or event. 4. The secondary line graph (bottom-right) shows a more complex pattern, with alternating peaks and troughs, suggesting a filtered or transformed version of the top-right line graph. ### Interpretation - The 3D surface plot likely represents a mathematical or computational model, with the gradient indicating a relationship between x, y, and z. - The line graphs may depict signal processing or oscillatory behavior, with the secondary graph possibly showing a modified version of the primary line graph (e.g., after filtering or scaling). - The bar chart’s outlier at x=10 could signify a critical data point or anomaly in the dataset. - The secondary line graph’s pattern might reflect a response to the primary line graph’s oscillations, such as a low-pass filter or amplitude modulation. ## 2D Line Graph: Oscillatory Behavior ### Overview A line graph with a single blue line oscillating between -1 and 1, labeled "x" (horizontal) and "y" (vertical). ### Components/Axes - **X-axis**: -10 to 10 (labeled "x") - **Y-axis**: -1 to 1 (labeled "y") ### Detailed Analysis - The line starts at y=-1 (x=-10), rises to y=1 at x=2, dips to y=-1 at x=4, rises again to y=1 at x=6, and ends at y=-1 at x=10. ### Key Observations - The graph exhibits a periodic pattern with a period of approximately 4 units (from x=2 to x=6). ### Interpretation - This could represent a sinusoidal function or a signal with a specific frequency. The peaks and troughs suggest a consistent oscillatory behavior. ## Bar Chart: Single Outlier ### Overview A bar chart with a single bar at x=10, reaching the maximum y-value of 20,000. ### Components/Axes - **X-axis**: 0 to 10 (labeled "x") - **Y-axis**: 0 to 20,000 (labeled "y") ### Detailed Analysis - All bars except x=10 have y=0. The bar at x=10 is 20,000 units high. ### Key Observations - The chart emphasizes a single data point (x=10) as an outlier, with no other values. ### Interpretation - This could indicate a critical event, threshold, or maximum value in the dataset. The absence of other bars suggests the data is sparse or intentionally focused on this point. ## Secondary Line Graph: Complex Oscillations ### Overview A line graph with a blue line showing three peaks and troughs, labeled "x" (horizontal) and "y" (vertical). ### Components/Axes - **X-axis**: 0 to 10 (labeled "x") - **Y-axis**: -40 to 10 (labeled "y") ### Detailed Analysis - The line starts at y=0 (x=0), rises to y=10 at x=2, drops to y=-30 at x=4, rises again to y=10 at x=6, drops to y=-30 at x=8, and ends at y=0 at x=10. ### Key Observations - The graph has three distinct peaks (x=2, 6) and two troughs (x=4, 8), with a final value of 0 at x=10. ### Interpretation - This pattern may represent a signal with multiple cycles or a response to external stimuli. The alternating peaks and troughs suggest a complex dynamic system. ## Final Notes - All textual information is in English. No other languages are present. - The 3D plot’s color gradient (purple to green) is not explicitly tied to a legend, but the label "Rendered code" implies a computational or mathematical context. - The line graphs and bar chart use consistent axis labels, but no legends are provided for the secondary plots. - The data suggests a focus on oscillatory behavior, with the 3D plot and line graphs emphasizing continuity and periodicity, while the bar chart highlights an outlier. </details> <details> <summary>Image 8 Details</summary> ![cc39922c](/v1/image/cc39922c584eea43b2c6d2fe3fe248b4d6e07e06afcbf416cf1df1902f580ed5) ### Visual Description Icon/Small Image (14x14) </details> ## Response The currentsubplotsare: - ·Top left:A sine wave - ·Bottom left: An exponential function - ·Top right:A tangent function - ·Bottom right:A 3D paraboloid Thenewsubplotsshould be: - ·Top left:The 3D paraboloid - ·Top right:The sinewave - ·Bottomleft:Theexponentialfunction - ·Bottom right:The tangent function ``` top right: The sine wave bottom left: The exponential function bottom right: The tangent function ``` Figure 5 | Using Gemini models' multimodal reasoning capabilities to generate matplotlib code for rearranging the subplots. The multimodal prompt is shown at the top-left in gray. Gemini Ultra's response, including its generated code, is shown in the right column in blue. The bottom left figure shows rendered version of the generated code. Successfully solving this task shows the model's capability to combine several capabilities: (1) recognition of the functions depicted in the plots; (2) inverse graphics to infer the code that would have generated the subplots; (3) instruction-following to put subplots in their desired positions; and (4) abstract reasoning to infer that the exponential plot must stay in its original place, because the sine plot must move out of the way for the 3-dimensional plot. Qualitative evaluation in Figure 5 illustrates an example of Gemini Ultra's multimodal reasoning capabilities. The model is required to solve the task of generating matplotlib code that would rearrange a set of subplots provided by the user. The model output shows that it successfully solves this task combining multiple capabilities of understanding the user plot, inferring the code required to generate it, following user instructions to put subplots in their desired positions, and abstract reasoning about the output plot. This highlights Gemini Ultra's native multimodality and alludes to its more complex reasoning abilities across interleaved sequences of image and text. We refer the reader to the appendix for more qualitative examples. ## 5.2.2. Video Understanding Understanding video input is an important step towards a useful generalist agent. We measure the video understanding capability across several established benchmarks that are held-out from training. These tasks measure whether the model is able to understand and reason over a temporally-related sequence of frames. For each video task, we sample 16 equally-spaced frames from each video clip and feed them to the Gemini models. For the YouTube video datasets (all datasets except NextQA and the Perception test), we evaluate the Gemini models on videos that were still publicly available in the month of November, 2023. Gemini Ultra achieves state-of-the-art performance on various few-shot video captioning tasks as well as zero-shot video question answering tasks as shown in Table 10. This demonstrates its capability of strong temporal reasoning across several frames. Figure 23 in the appendix provides a qualitative example of understanding the video of the ball-striking mechanics of a soccer player and reasoning about the player can improve their game. Table 10 | Few-shot video understanding across tasks and languages on selected academic benchmarks. The reported metric is CIDER for video captioning, WUPS for NextQA, and top-1 accuracy for the Perception Test and ActivityNet-QA. For ActivityNet-QA, we use the Video-LLAVA (Lin et al., 2023) evaluation protocol. | Task | Gemini Ultra | Gemini Pro | Few-shot SoTA | |------------------------------------------------------|----------------|--------------|----------------------------------| | VATEX (test) | 62.7 | 57.4 | 56.0 | | English video captioning (Wang et al., 2019) | 4-shots | 4-shots | DeepMind Flamingo, 4-shots | | VATEX ZH (test) | 51.3 | 50.0 | - | | Chinese video captioning (Wang et al., 2019) | 4-shots | 4-shots | | | YouCook2 (val) | 135.4 | 123.2 | 74.5 | | English cooking video captioning (Zhou et al., 2018) | 4-shots | 4-shots | DeepMind Flamingo, 4-shots | | NextQA (test) | 29.9 | 28.0 | 26.7 | | Video question answering (Xiao et al., 2021) | 0-shot | 0-shot | DeepMind Flamingo, 0-shot | | ActivityNet-QA (test) | 52.2 | 49.8 | 45.3 | | Video question answering (Yu et al., 2019) | 0-shot | 0-shot | Video-LLAVA, 0-shot | | Perception Test MCQA (test) | 54.7 | 51.1 | 46.3 | | Video question answering (Pătrăucean et al., 2023) | 0-shot | 0-shot | SeViLA (Yu et al., 2023), 0-shot | ## 5.2.3. Image Generation Gemini models are able to output images natively, without having to rely on an intermediate natural language description that can bottleneck the model's ability to express images. This uniquely enables the model to generate images with prompts using interleaved sequences of image and text in a few-shot setting. For example, the user might prompt the model to design suggestions of images and text for a blog post or a website (see Figure 12 in the appendix). Figure 6 shows an example of image generation in 1-shot setting. Gemini Ultra model is prompted with one example of interleaved image and text where the user provides two colors (blue and yellow) and image suggestions of creating a cute blue cat or a blue dog with yellow ear from yarn. The model is then given two new colors (pink and green) and asked for two ideas about what to create using these colors. The model successfully generates an interleaved sequence of images and text with suggestions to create a cute green avocado with pink seed or a green bunny with pink ears from yarn. Figure 6 | Image Generation. Gemini models can output multiple images interleaved with text given a prompt composed of image and text. In the left figure, Gemini Ultra is prompted in a 1-shot setting with a user example of generating suggestions of creating cat and dog from yarn when given two colors, blue and yellow. Then, the model is prompted to generate creative suggestions with two new colors, pink and green, and it generates images of creative suggestions to make a cute green avocado with pink seed or a green bunny with pink ears from yarn as shown in the right figure. <details> <summary>Image 9 Details</summary> ![80a22257](/v1/image/80a222579a327e473d54f741cfe93a222322214023e9cb959f50e43047f1a3be) ### Visual Description ## Screenshot: Prompt-Response Interaction ### Overview The image depicts a structured interaction between a user prompt and an AI-generated response, both involving creative ideas based on color combinations. The left section contains the user's prompt and examples, while the right section shows the AI's response with visual suggestions. ### Components/Axes - **Left Section (Prompt)**: - **Title**: "Prompt" (bold black text, top-left corner). - **Instruction**: "Give me two ideas that I could do with these 2 colors" (black text). - **Color Examples**: 1. "Colors: I see blue and yellow yarn" (black text, accompanied by an image of blue yarn and a yellow ball). 2. "How about a cute blue cat?" (black text, with an image of a blue cat figurine). 3. "Or a blue dog that would also have a yellow ear?" (black text, with an image of a blue dog with a yellow ear). 4. "Give me two ideas that I could do with these 2 colors" (black text, repeated, with an image of green and pink yarn). - **Right Section (Response)**: - **Title**: "Response" (bold black text, top-left corner). - **Color Declaration**: "Colors: I see green and pink yarn" (black text). - **Ideas**: 1. **Idea 1**: "How about a green avocado with pink seed?" (black text, with an image of a green avocado and pink seed). 2. **Idea 2**: "Or a green bunny with pink ears?" (black text, with an image of a green bunny with pink ears). ### Detailed Analysis - **Prompt Structure**: - The user provides two color pairs (blue/yellow and green/pink) and requests creative ideas. - Examples include animals (cat, dog) and objects (yarn) using the specified colors. - The repetition of the request ("Give me two ideas...") emphasizes the need for two distinct suggestions. - **Response Structure**: - The AI mirrors the user's format, declaring the colors (green/pink) and providing two ideas. - Ideas are whimsical and anthropomorphic (avocado with a seed, bunny with ears), aligning with the playful tone of the prompt. - Images are placed adjacent to each idea, reinforcing the color associations. ### Key Observations - **Color Consistency**: The response strictly uses the colors mentioned in the prompt (green/pink). - **Creative Repetition**: Both sections follow a similar structure, suggesting a template for idea generation. - **Visual-Textual Alignment**: Images directly correspond to the textual descriptions (e.g., blue yarn matches the blue cat). ### Interpretation The interaction demonstrates a collaborative creative process where the user sets constraints (color pairs) and the AI generates imaginative, color-themed concepts. The use of animals and food items (avocado, bunny) indicates a focus on relatable, visually distinct ideas. The repetition of the request in the prompt may imply uncertainty about the AI's ability to generate two ideas, while the response confidently delivers two distinct suggestions. The images serve as immediate visual anchors, reducing ambiguity in the textual descriptions. </details> ## 5.2.4. Audio Understanding We evaluate the Gemini Nano-1 and Gemini Pro models on a variety of public benchmarks and compare it with Universal Speech Model (USM) (Zhang et al., 2023) and Whisper (large-v2 (Radford et al., 2023) or large-v3 (OpenAI, 2023) as indicated). These benchmarks include automatic speech recognition (ASR) tasks such as FLEURS (Conneau et al., 2023), VoxPopuli, (Wang et al., 2021), Multi-lingual Librispeech (Pratap et al., 2020), as well as the speech translation task CoVoST 2, translating different languages into English (Wang et al., 2020). We also report on an internal benchmark YouTube test set. ASR tasks report a word error rate (WER) metric, where a lower number is better. Translation tasks report a BiLingual Evaluation Understudy (BLEU) score, where a higher number is better. FLEURS is reported on 62 languages that have language overlap with the training data. Four segmented languages (Mandarin, Japanese, Korean and Thai) report character error rate (CER), instead of WER, similar to Whisper (Radford et al., 2023). Table 11 indicates that our Gemini Pro model significantly outperforms the USM and Whisper models across all ASR and AST tasks, both for English and multilingual test sets. Note that there is a large gain in FLEURS, compared to USM and Whisper, as our model is also trained with the FLEURS training dataset. However, training the same model without FLEURS dataset results in a WER of 15.8, which still outperforms Whisper. Gemini Nano-1 model also outperforms both USM and Whisper on all datasets except FLEURS. Note that we did not evaluate Gemini Ultra on audio yet, though we expect better performance from increased model scale. | | Task | Metric | Gemini Pro | Gemini Nano-1 | Whisper (OpenAI, 2023; Radford et al., 2023) | USM (Zhang 2023) | |------------------------------|--------------------------------------------------------|----------|--------------|-----------------|------------------------------------------------|--------------------| | Automatic Speech Recognition | YouTube (en-us) | WER (↓) | 4.9% | 5.5% | 6.5% (v3) | 6.2% | | | Multilingual Librispeech (en-us) (Pratap et al., 2020) | WER (↓) | 4.8% | 5.9% | 6.2% (v2) | 7.0% | | | FLEURS (62 lang) (Conneau et al., 2023) | WER (↓) | 7.6% | 14.2% | 17.6% (v3) | 11.8% | | | VoxPopuli (14 lang) (Wang et al., 2021) | WER (↓) | 9.1% | 9.5% | 15.9% (v2) | 13.4% | | Automatic Speech Translation | CoVoST 2 (21 lang) (Wang et al., 2020) | BLEU (↑) | 40.1 | 35.4 | 29.1 (v2) | 30.7 | Table 11 | Speech evaluation results on selected benchmarks for ASR and AST. For ASR, the reported metric is WER where lower is better. For AST, the reported metric is BLEU where higher is better. Table 12 | Qualitative examples for the ASR task in the benchmark. Incorrect transcriptions are highlighted in red. <details> <summary>Image 10 Details</summary> ![ac6b6f31](/v1/image/ac6b6f31803f2795b7a696027186979eb8bb204afc821dfd2b54dc7db45c5dee) ### Visual Description Icon/Small Image (30x21) </details> <details> <summary>Image 11 Details</summary> ![4635b8c7](/v1/image/4635b8c7094a81c7319ec75b99f5ade3d44847434536be183a76d5eef4f923a9) ### Visual Description Icon/Small Image (30x23) </details> Table 12 shows further error analysis with USM and Gemini Pro. We find that Gemini Pro produces more understandable responses, particularly on rare words and proper nouns. | Domain | Truth | USM | Gemini Pro | Wav | |----------|------------------------------------------------------------------------------------------------------------------------------------|-------------------------------------------------------------------------------------------------------------------|------------------------------------------------------------------------------------------------------------------------------------|---------| | Fleurs | Scotturb bus 403 travels regularly to Sintra, stopping at Cabo da Roca. | Scotboard bus four3 traversed regu- larly to Centra stopping at Cabo de Roga. | Scotturb bus 403 travels regularly to Sintra, stopping at Cabo da Roca. | ▲ ) ) ) | | Fleurs | The archipelago lies 120 km north of the Peninsula. The largest is King George Island, with the settlement of Villa Las Estrellas. | The archipelago lines 120 km north of peninsula. The largest is Kingurch island with the settlement of Cua Losas. | The archipelago lies 120 km north of the Peninsula. The largest is King George Island, with the settlement of Villa Las Estrellas. | ▲ ) ) ) | ## 5.2.5. Modality Combination Multimodal demonstrations often include a combination of text interleaved with a single modality, usually images. We demonstrate the ability to process a sequence of audio and images natively. Consider a cooking scenario about making an omelet where we prompt the model with a sequence of audio and images. Table 13 indicates a turn-by-turn interaction with the model, providing pictures and verbally asking questions about the next steps for cooking an omelet. We note that the model response text is reasonably accurate, and shows that model processes fine-grained image details to evaluate when the omelet is fully cooked. See demo on the website. Table 13 | Audio-visual qualitative example showcasing the ability of Gemini models to process interleaved sequences of text, vision, and audio, as well as reason across modalities. This example inputs interleaved images and audio from the user in a cooking scenario. The user prompts the model for instructions to make an omelet and to inspect whether it is fully cooked. <details> <summary>Image 12 Details</summary> ![76363c2d](/v1/image/76363c2da2783d82712493f37a6acf66d8d366617b8e0e1bc9701c9a35780dc1) ### Visual Description ## Screenshot: Dialogue with Image and Audio Input ### Overview The image depicts a conversational interface where a user interacts with a model using images, transcribed audio, and text responses. The dialogue revolves around preparing a veggie omelet, with the model providing step-by-step guidance based on visual and auditory inputs. ### Components/Axes - **Input Image**: Visual context for the cooking process (e.g., ingredients, cooking stages). - **Input Audio (transcribed)**: User queries or statements related to the task. - **Model Response: Text**: Answers or instructions generated by the model. ### Detailed Analysis 1. **First Interaction** - **Input Image**: A bowl containing chopped vegetables (broccoli, bell pepper) and two eggs. - **Input Audio**: *"What’s the first step to make a veggie omelet with these ingredients?"* - **Model Response**: *"Crack the eggs into a bowl and whisk them."* 2. **Second Interaction** - **Input Image**: A frying pan with a partially cooked omelet containing vegetables. - **Input Audio**: *"Thank you for the instructions. I started making my omelet, does it look ready now?"* - **Model Response**: *"It looks like it’s almost ready. You can flip it over to cook the other side."* 3. **Follow-Up Interaction (No Image)** - **Input Audio**: *"Why is it not ready?"* - **Model Response**: *"It’s not ready because the eggs are still runny."* 4. **Final Interaction** - **Input Image**: A fully cooked omelet in a frying pan. - **Input Audio**: *"What about now?"* - **Model Response**: *"It looks ready now. You can take it off the heat and serve it."* ### Key Observations - The model adapts its responses to the user’s progress, using visual cues (e.g., egg runniness) to assess readiness. - The dialogue progresses from ingredient preparation to cooking completion, with the model acting as a real-time guide. - No numerical data or trends are present; the focus is on procedural guidance. ### Interpretation The interaction demonstrates a multimodal AI system capable of interpreting visual and auditory inputs to provide context-aware instructions. The model’s ability to reference visual states (e.g., "eggs are runny") suggests integration of image analysis with natural language processing. This setup could be applied to cooking tutorials, troubleshooting, or other step-by-step tasks requiring real-time feedback. </details> ## 6. Post-Training Models After large-scale pre-training, we apply post-training , where one trains on top of a pre-trained model in order to extend the model's proficiency and to enable a wide variety of capabilities. Namely, we seek to improve overall quality, enhance target capabilities such as coding and multilingual, and ensure alignment and safety criteria are met. We discuss our approach to post-training in this section, highlighting common and distinct aspects of the Gemini Apps and Gemini API model variants. ## 6.1. Gemini Apps: Gemini and Gemini Advanced Gemini and Gemini Advanced offer direct access to Google's family of AI models, consisting of the core post-trained Gemini Apps models and the system around it. These models are created by applying specialized post-training on top of Gemini pre-trained models: currently, Gemini gives access to Pro 1.0 and Gemini Advanced gives access to Ultra 1.0. Beyond the core models, the system determines how the models interact with external tools (such as Google Flights, Maps, and Google Workspace), and how to generate responses (filtering, ranking, and streaming). As an area, conversational AI presents several challenges, including: How to understand users' requests across multi-turn interactions? How to make sure responses are safe, factually grounded, and helpful? How to help users accomplish tasks by using tools external to the models? We discuss how we approach these challenges in the following sections. ## 6.2. Gemini APIs: Google AI Studio and Cloud Vertex AI Our developer-focused Gemini API models are designed to support both conversational and nonconversational use cases. These models are available through Google AI Studio and Cloud Vertex AI through an easy to use API. Google AI Studio is a free, web-based developer tool to prototype and launch apps quickly with an API key. Vertex AI is a comprehensive AI platform that enables developers to leverage Gemini API models with varied tooling, fully-managed infrastructure, and built-in enterprise security and privacy settings. Gemini APIs make it easy to integrate Gemini API models into any production product or workflow, empowering developers to build applications that can reason across different modalities. ## 6.3. Post-Training Methods & Data Post-training Gemini models to produce Gemini API and Apps variants involves several stages; see Figure 7. Careful data curation is critical for all stages. First, we collect a diverse set of prompts that are representative of real-world use cases. Second, we apply supervised fine-tuning (SFT) on demonstration data of what the model's output should be for a given prompt (Mishra et al., 2021; Ouyang et al., 2022; Wei et al., 2022a). Third, we further collect different possible responses to a given prompt, and collect feedback data over these to train a Reward Model (RM). Finally, using the trained RM, a Reinforcement Learning from Human Feedback (RLHF) stage (Bai et al., 2022a) is applied to further align the model's outputs with human preferences. We discuss our methods in more detail below: (1) Prompt Data Collection : A prompt is a user's input to the model. As well as the most recent user input, this can also include previous user-model interactions. We curate datasets of target prompts. The datasets serve as the basis for our demonstration and feedback data collections, and they are used directly during reinforcement learning. It is important to cover a diverse set of crucial use cases and in both single-turn and multi-turn formats. Data sources include vendor-created data, third-party licensed sources, and synthetic approaches. - (2) SFT on Demonstration Data : SFT trains the model to output a desired target response given a prompt. Our Demonstration Data target responses can be directly written by a human expert, or generated by a model and in some cases revised or reviewed by a human. Additionally, we use data analysis tools and heuristics to ensure high data diversity across capabilities, use cases, and semantic clusters. - (3) RM Training on Feedback Data : We further collect Feedback Data, for which human raters provide feedback such as relative preferences over candidate responses and feedback regarding individual responses to a given prompt. For many capabilities, rating relative preferences is an easier task than demonstrating an ideal response. Feedback data are collected across creativity, safety, factuality, other capabilities, and other target criteria. We found that the utility of the resulting human feedback data greatly depends on the prompt selection and the sampling strategy used to produce candidate responses. We use this data to train RMs to output rewards that align with human preferences as closely as possible. (4) RLHF : Applying reinforcement learning from human feedback (RLHF) to our models provides further gains over SFT alone. Our approach creates an iterative process in which RL continually pushes the boundaries of the RM, while the RM is continuously improved through evaluation and data collection, leading to progressive improvements in both. Figure 7 | Modeling overview. Post-training utilizes an optimized data flywheel in order to acquire human-AI feedback and continually improve on key areas. The data mixtures for supervised finetuning, reward modeling, and reinforcement learning serve as the foundation for our models. <details> <summary>Image 13 Details</summary> ![05a90968](/v1/image/05a9096824ddb331a7b316770db34b48c46686769f4e06e104fd671d4473e11b) ### Visual Description ## Flowchart: Gemini Model Training and Feedback Loop ### Overview The diagram illustrates a cyclical process for training and refining a Gemini AI model, emphasizing iterative improvement through user interaction. The core components include pre-training, supervised fine-tuning (SFT), reinforcement learning from human feedback (RLHF), and a data flywheel mechanism integrating demonstration and feedback data. ### Components/Axes 1. **Gemini pre-training**: Initial training phase (leftmost block). 2. **SFT (Supervised Fine-Tuning)**: Block with dashed lines, receives input from pre-training and demonstration data. 3. **RLHF (Reinforcement Learning from Human Feedback)**: Block with circular arrows, outputs to end users. 4. **Demonstration data**: Stacked data icon, feeds into SFT. 5. **Feedback data**: Stacked data icon, receives input from end users and outputs to SFT. 6. **End users**: Final output recipient (rightmost block). 7. **Data flywheel**: Central circular element symbolizing continuous data recycling. ### Detailed Analysis - **Flow Direction**: - Pre-training → SFT → RLHF → End users. - End users → Feedback data → Demonstration data → SFT (loop closure). - **Key Connections**: - Feedback data merges with demonstration data to refine SFT. - RLHF outputs directly to end users, creating a closed-loop system. - **Visual Elements**: - Dashed lines between SFT and RLHF suggest iterative refinement. - Circular arrows in RLHF indicate ongoing optimization. - Data flywheel at the center emphasizes cyclical data reuse. ### Key Observations - **Cyclical Nature**: The system forms a closed loop, with user feedback directly influencing model improvement. - **Data Integration**: Demonstration and feedback data are combined to enhance SFT, avoiding isolated training phases. - **User-Centric Design**: End users are positioned as active participants, not passive recipients. ### Interpretation This flowchart demonstrates a **human-in-the-loop AI training pipeline** where user interactions drive continuous model enhancement. The data flywheel metaphor highlights the importance of recycling real-world feedback to refine the model iteratively. By integrating demonstration data (likely curated examples) with organic user feedback, the system balances structured learning with adaptive improvement. The positioning of RLHF as the final training stage before user interaction suggests a focus on aligning outputs with human preferences before deployment. This architecture prioritizes scalability and responsiveness, enabling the model to evolve based on real-world usage patterns rather than static datasets alone. </details> ## 6.4. Evaluation Evaluation of human preferences over model outputs provides critical signals for measuring performance. As part of our development process, we conduct human evaluation extensively across targeted capabilities. Human evaluation is instantiated as side-by-side blind evaluations where human raters judge responses of two models to the same prompt, as single-response ratings for certain capabilities, and as online testing. In addition, we build models for automated evaluation that faithfully imitate human preferences in order to guide development and continuously monitor online performance. ## 6.5. Model Capabilities Beyond the general post-training outlined above, we apply techniques to improve a set of key capabilities. These capabilities cover a range of use cases inspired by current user needs and research-inspired future applications. We outline capability examples not detailed in previous sections below. The posttraining recipes are carefully designed to balance multiple objectives, including creativity, factuality, safety and more (Bai et al., 2022b; Thoppilan et al., 2022). We have a particular focus on safety and alignment, and hence address this in a further dedicated section. ## 6.5.1. Instruction Following Following a user's prompt accurately is a fundamental capability for LLMs, especially as these models become more sophisticated and are presented with increasingly complex user prompts. User prompts vary in granularity, specificity , and requirements (e.g., content, format, length). Individual instructions can also be ambiguous, optional, or even impossible or undesirable to satisfy (He et al., 2023; Xu et al., 2023). We improve Gemini Apps and Gemini API models' instruction following (IF) abilities by collecting data for a diverse set of instruction following categories. For instructions that are verifiable programmatically such as word count, we generate synthetic data via prompting and response editing to ensure that such instructions are satisfied. Complex prompts evaluation : We investigate performance on complex prompts containing multiple instructions using a fine-grained evaluation method that assesses how well models adhere to each instruction. Human raters are presented with a prompt-response pair and a list of the individual (sub)-instructions contained in the prompt. Each prompt may have anywhere from one to dozens of individual instructions, and the annotators are tasked with determining whether each instruction is followed (or not) by the response. Table 14 reports results on an internal dataset of prompts with instructions of varying complexity that encompass a wide range of instructions and are designed to be challenging for LLMs. We report two metrics: per-instruction accuracy (the percentage of sub instructions in the eval set that are followed), and full-response accuracy (the percentage of eval set prompts where all sub-instructions are followed). | | Post-trained PaLM 2 | Gemini (with Pro) | Gemini Advanced (with Ultra) | |--------------------------|-----------------------|---------------------|--------------------------------| | Per-instruction accuracy | 59.5 ± 3.0% | 77.8 ± 2.0% | 87.4 ± 1.4% | | Full-response accuracy | 25.5 ± 3.3% | 38.5 ± 3.6% | 54.1 ± 3.7% | Table 14 | Performance of Gemini on our complex prompts instruction-following internal benchmark. Gemini Advanced (with Ultra) achieves an average per-instruction accuracy close to 90%, representing a significant improvement over Gemini (with Pro) and a post-trained PaLM 2 model. We find that the sub-instructions that aren't followed are well-distributed across responses. As a result Gemini Advanced's full-response accuracy is lower, at around 54%. This indicates that there is further headroom for models to fully satisfy all instructions. ## 6.5.2. Tool Use By training LLMs to use tools, we greatly expand LLM capabilities beyond their internal knowledge. We treat tool use for both Gemini Apps and Gemini API models as a code generation problem, leveraging the base model's preexisting strong coding capabilities. Every tool invocation is represented as a code block in which tool calls are invoked. This process allows the model to both compose multiple tools in each code block, as well as observe and react to the results of tool execution. At inference time, to generate a response to a user prompt, our system executes the loop shown in Figure 8, where sampling from the LLM and execution of tool code work together to create a final response. Figure 8 | A Gemini tool-use control loop. <details> <summary>Image 14 Details</summary> ![1d73d1d2](/v1/image/1d73d1d2d3718fd3d43b88c5d8b23cfec3290ce577a7d91df79465bdd195d92b) ### Visual Description ## Flowchart: LLM Tool Code Handling Workflow ### Overview The image depicts a flowchart illustrating the process of handling tool code blocks in LLM (Large Language Model) outputs. The workflow includes conditional checks, iterative feedback loops, and sequential processing steps. ### Components/Axes 1. **Nodes**: - **Prompt** (Purple box, leftmost) - **Sample from LLM** (Blue box, center-left) - **Sample contains tool code block?** (Diamond-shaped decision node, center) - **Put execution result back in context** (Blue box, center-right) - **Respond** (Orange box, rightmost) 2. **Arrows**: - Solid arrows indicate sequential flow - Dashed arrow represents feedback loop - Color-coded connections (blue, pink, gray) 3. **Decision Logic**: - "YES" branch (green circle) loops back to "Put execution result back in context" - "NO" branch (red circle) proceeds to "Respond" ### Detailed Analysis 1. **Prompt** → **Sample from LLM**: - Initial input processed by LLM to generate output - Blue box indicates core LLM processing step 2. **Decision Node**: - Binary check for tool code presence - Pink diamond shape standardizes decision points 3. **Feedback Loop**: - Green "YES" path creates iterative refinement - Allows multiple attempts to incorporate tool code results 4. **Final Response**: - Orange "Respond" box marks terminal output - Direct path when no tool code is detected ### Key Observations - **Iterative Design**: The green feedback loop enables recursive processing when tool code is detected - **Color Coding**: Blue boxes represent LLM-related steps, orange for final output - **Decision Point**: Central diamond node acts as critical control mechanism - **Sequential Flow**: Left-to-right progression with exception handling ### Interpretation This flowchart represents an automated system for handling tool code in LLM outputs. The process suggests: 1. **Tool Code Detection**: The system identifies when LLM outputs contain executable code blocks 2. **Execution Feedback**: Detected code is executed, and results are re-injected into the context for improved responses 3. **Conditional Branching**: The workflow adapts based on code presence, either refining outputs iteratively or proceeding to final response 4. **Efficiency Consideration**: The orange "Respond" box suggests optimized paths for non-tool code scenarios The design implies a balance between thorough code handling (through feedback loops) and efficient processing (direct response path). The use of distinct colors helps visualize the workflow's logical structure and decision points. </details> Gemini Apps models : Gemini draws on a range of tools via Gemini Extensions, including Google Workspace, Google Maps, YouTube, Google Flights, and Google Hotels. These tool-use capabilities also enable Gemini to be integrated as part of Gmail, Docs, Slides, Sheets and more. We are aiming to bring further tool-use capabilities in order to both enhance Gemini models and integrate Gemini models into further products. We created an internal benchmark to assess Gemini performance on tasks that may benefit from access to these extensions. This benchmark measures human preference in domains such as travel planning and video discovery. We find models equipped with tools are preferred on this set 78% of the time over models without tools (excluding ties). Gemini API models : We have found that fine-tuning Gemini API models is very effective at teaching the model tool-use behaviors. Furthermore, training models to use programming and search as tools leads to improved performance on a range of academic benchmarks. In Table 15, we compare tool-use models fine-tuned from an early version of Gemini API Pro against equivalent models that do not use tools. Table 15 | Comparison between Gemini API tool-use models and comparable models that do not use tools. Gemini API Pro without tools is an early version of our Pro model trained without tool-use data. Gemini API Pro with tools is the same model fine-tuned with tool-use data. | | Mathematical Reasoning GSM8K Cobbe et al. (2021) MATH | Hendrycks et al. (2021b) | Factuality & Retrieval NQ Kwiatkowski et al. (2019b) Kasai | Knowledge Realtime QA et al. (2022a) | |------------------------------|---------------------------------------------------------|----------------------------|--------------------------------------------------------------|----------------------------------------| | Gemini API Pro with tools | 80.1% | 41.8% | 68.0% | 70.8% | | Gemini API Pro without tools | 69.7% | 30.7% | 59.0% | 39.2% | ## 6.5.3. Multilinguality Multilinguality is critical to make sure Gemini models effectively support a wide range of languages. We discuss our key approaches for Gemini Apps and Gemini API models respectively below. Gemini Apps models : Scaling Gemini from English to 40+ languages imposed research challenges in data quality. We leverage abundant high-quality English data by localization to native cultures (e.g., 'president of the United States' -> ' 日本の首相 '). Table 16 shows the performance of Gemini (with Pro) on 5 languages compared to Bard with an older post-training recipe and based on PaLM 2. For side-by-side comparisons between a model A and a model B, we calculate a metric called SxS score. Each rating is converted to an ordinal value centered at 0: ratings preferring A are positive and ratings preferring B are negative over a scale between -1.5 and 1.5. The converted values are averaged to return the SxS score. Intuitively, a positive SxS score indicates the extent to which model A is preferred over model B. Here, we find quality improved by more than 0.1 SxS score for all five languages. Coding and reasoning gains from Gemini Pro are preserved across languages. | Language | Quality SxS | Coding MBPP Pass@1 Austin et al. (2021) | Reasoning MMLU Hendrycks et (2021a) | |------------|---------------|-------------------------------------------|---------------------------------------| | ja-JP | 0.14 | +22.2% | +3.6% | | pt-BR | 0.17 | +23.2% | +5.2% | | de-DE | 0.1 | +21.4% | +7.5% | | es-419 | 0.12 | +22.8% | +9.3% | | it-IT | 0.13 | +13.8% | +7.5% | Table 16 | Multilingual performance of Gemini (with Pro) compared to Gemini with an older posttraining recipe and PaLM 2. Gemini API models : Similar to Gemini Apps models, we train Gemini API models on additional multilingual post-training data, effectively adapting the original English model for use in various languages. We experiment with both human-generated non-English prompt-response pairs as well as automatically translated pairs. For the latter, we leverage abundant high-quality English demonstration data by translation. We ensure the quality of such translated data by translationability filtering and response rating by humans. Translatability Filtering : Not all prompt-response pairs make sense when automatically translated, and may require expensive localization instead. Example prompts of this type (responses omitted for space) include: - (strict word requirements) Write a 1000 word essay about world peace. - (too English centric) Write a poem in iambic pentameter about apples. - (too Latin-script centric) What is a word with 1 E, 2 As, and 1 U? Translation Quality Validation : Each translated prompt-response pair was rated for translation quality by at least 3 human raters, and was kept in the final mixture if the majority of raters rated it as accurate. Section 5.1.4 reports evaluations of the multilingual capabilities of post-trained Gemini API models. ## 6.5.4. Multimodal Vision Multimodal post-training enhances the capabilities of our natively multimodal Gemini models for a wide range of useful applications. In the following, we discuss how image understanding ability is incorporated into Gemini Apps and Gemini API models. For this evaluation, we further train both of these Gemini model variants on a mixture of text data and expert curated image-text data over several vertically-defined multimodal use cases Gemini Apps models : We empower Gemini and Gemini Advanced with image understanding capabilities by fine-tuning pre-trained Gemini models on a mixture of text-only and image-text data. Careful balancing of text and multimodal data ensures the model develops robust image understanding without adversely affecting the quality of the text-only interactions. To assess our models, we compile a dataset of human-curated and synthetic image-text prompts and responses, spanning various categories and difficulty levels. This dataset facilitates human evaluation for model comparison and selection. We find that introducing this image-text data preserves Gemini Apps model quality on text-only tasks, with a SxS score on text-only tasks of +0.01 ± 0.01 for a Gemini Apps Pro model trained on this data versus an equivalent model trained only on text data. In addition, post-training via RLHF improves performance on multimodal tasks, with a SxS score on image-understanding tasks of +0.223 ± 0.06 for a Gemini Apps Pro model post-trained with SFT & RLHF vs SFT alone. Gemini API models : We evaluate the impact of post-training via SFT on Gemini API models' multimodal vision performance by tracking the performance of both pre-trained models and posttrained Gemini API Vision models on a series of standard benchmarks. These post-trained results have already been given in Table 7, in Table 17 we further report the difference in performance between pre-trained and post-trained Gemini API models. Table 17 | Post-trained model image understanding Post-training improves image understanding capabilities of Gemini API Ultra over the base pre-trained model. Comparisons of Gemini API Ultra to other models on these benchmarks are given in Table 7. | | Gemini Ultra Pre-trained only 0-shot (pixel only) | Gemini API Ultra 0-shot (pixel only) | Gemini Ultra pre- to post-trained improvement | |-----------------------------------------------------------------------|-----------------------------------------------------|----------------------------------------|-------------------------------------------------| | MMMU (val) Multi-discipline college-level problems (Yue et al., 2023) | n/a | 59.4% pass@1 62.4% | n/a | | TextVQA (val) Text reading on natural images (Singh et al., 2019) | 81.4% | 82.3% | +0.9% | | DocVQA (test) Document understanding (Mathew et al., 2021) | 90.1% | 90.9% | +0.8% | | ChartQA (test) Chart understanding (Masry et al., 2022) | 80.8% | 80.8% | 0.0% | | InfographicVQA (test) Infographic understanding (Mathew et al., 2022) | 77.9% | 80.3% | +2.4% | | MathVista (testmini) Mathematical reasoning (Lu et al., 2023) | n/a | 53.0% | n/a | | AI2D (test) Science diagrams (Kembhavi et al., 2016) | 76.6% | 79.5% | +2.9% | | VQAv2 (test-dev) Natural image understanding (Goyal et al., 2017) | 74.5% | 77.8% | +3.3% | The results indicate that the pre-trained model already has high performance across the capabilities represented by these benchmarks, in line with previous observations. However, the post-training SFT stage used for the Gemini API Vision models succeeds in improving the performance over several of these benchmarks (InfographicVQA, AI2D, VQAv2), most likely due to the model's increased instruction-following capabilities that succeed in aligning the model output style with that of the golden references. ## 6.5.5. Coding Despite the strong coding benchmark performance of the base model, post-training data still provides a significant boost to both code quality and code correctness. This highlights the benefit of high-quality demonstration data and feedback data for coding use cases. Gemini Apps and Gemini API models use a combination of human and synthetic approaches to collect such data. We evaluate our Gemini Apps models' coding performance on a set of internally curated prompts, distributed across code use cases and languages. Table 18 reports SxS scores, where Gemini (with Pro) significantly improves upon Bard with an older post-training recipe and based on PaLM 2. Gemini Advanced (with Ultra) further improves upon Gemini (with Pro). Table 18 | SxS comparisons of Gemini models on an internal coding benchmark. | Side A | Side B | SxS score | |------------------------------|---------------------------|-------------| | Gemini (with Pro) | Bard (PaLM 2, Sept. 2023) | 0.19 ± 0.03 | | Gemini Advanced (with Ultra) | Gemini (with Pro) | 0.13 ± 0.02 | For the coding capabilities of post-trained Gemini API Models, see Table 2 which reports their academic benchmark performance. ## 7. Responsible Deployment During the development of Gemini models, we follow a structured approach to responsible deployment to identify, measure, and manage foreseeable downstream societal impacts of our models, in line with previous releases of Google's AI technology (Kavukcuoglu et al., 2022). Throughout the lifecycle of a project, we follow the structure below. This section provides more detail about our approach and includes key findings where available. We are committed to ongoing transparency and will continue to provide updated information on our approach and testing in upcoming reports. <details> <summary>Image 15 Details</summary> ![33ba1edb](/v1/image/33ba1edb9a0c10d703537c0b90c512c61027e2ea89ba7fc30959a5e3444c2f1e) ### Visual Description ## Flowchart: Responsibility Approach ### Overview The image depicts a linear flowchart titled "Responsibility Approach," illustrating a five-stage process with a feedback loop. The stages are connected sequentially from left to right, with a cyclical relationship between two stages. A rectangular box labeled "Responsibility & Safety Governance" underpins the entire process. ### Components/Axes - **Title**: "Responsibility Approach" (centered at the top). - **Stages** (left to right): 1. **Assessment** (blue rectangle, white text). 2. **Policy** (blue rectangle, white text). 3. **Evaluation** (blue rectangle, white text). 4. **Mitigation** (blue rectangle, white text). 5. **Deployment** (blue rectangle, white text). - **Feedback Loop**: A circular arrow (white with blue border) connects **Mitigation** to **Evaluation**, indicating iterative refinement. - **Underlying Framework**: A horizontal rectangle labeled "Responsibility & Safety Governance" spans the entire width of the flowchart, positioned below the stages. ### Detailed Analysis - **Flow Direction**: - Stages progress linearly from **Assessment** → **Policy** → **Evaluation** → **Mitigation** → **Deployment**. - The feedback loop between **Mitigation** and **Evaluation** suggests a cyclical process where outcomes from **Mitigation** are re-evaluated before proceeding. - **Textual Elements**: - All stage labels are in white, capitalized text on a blue background. - The feedback loop is represented by a bidirectional circular arrow. - The underlying framework is emphasized by a larger, bordered rectangle with a blue outline. ### Key Observations - The feedback loop between **Mitigation** and **Evaluation** implies that mitigation strategies are continuously refined based on evaluation results. - The flowchart lacks numerical data or quantitative metrics, focusing instead on process structure and governance principles. - The "Responsibility & Safety Governance" box acts as a foundational layer, contextualizing the stages within a broader governance framework. ### Interpretation This flowchart outlines a structured, iterative approach to responsibility management, emphasizing continuous improvement through feedback. The linear progression ensures systematic handling of responsibilities, while the feedback loop between **Mitigation** and **Evaluation** highlights adaptability. The overarching "Responsibility & Safety Governance" framework underscores that these stages are not isolated but part of a cohesive strategy to ensure accountability and safety. The absence of numerical data suggests the diagram is conceptual, designed to guide process design rather than track performance metrics. </details> ## 7.1. Impact Assessment At Google we apply an impact assessment framework throughout the product development lifecycle related to Google's AI Principles (Google, 2023). This means we assess the risk and impact of AI models we're building at both a model-level (e.g. for Gemini API Ultra 1.0, as deployed on Cloud Studio or Vertex AI), and once embedded within a broader product or service (e.g. for Gemini Advanced). ## 7.1.1. Model Assessment We conduct model impact assessments to identify, assess, and document societal benefits and harms associated with the capabilities of Gemini models. Our impact assessments for Gemini API models describe downstream benefits and risks that we identify, spanning across the models' modalities (text-to-text; image-to-text; and video-to-text). Model impact assessments are conducted by the Google DeepMind Responsible Development and Innovation team, and are reviewed by the Google DeepMind Responsibility and Safety Council. We draw from various sources in producing impact assessments, including a wide range of literature, external expertise, and our in-house ethics and safety research. Gemini models introduce various benefits to people and society. Gemini models' various modalities, including language, image and video understanding, can help users process information more efficiently , for example through content summarisation. These efficiency benefits can apply to commercial entities, and can assist use cases dependent on text, image or video processing such as video captioning, analytics or product descriptions. Video and image understanding modalities can also be deployed for social good applications downstream, such as enabling descriptions of visual outputs for accessibility purposes. Generative multimodal models may also raise downstream societal risks, with the Gemini models assessments considering a range of risks previously identified within research such as Weidinger et al. (2021) and Shelby et al. (2023). We assessed a range of content risks such as exposure of users to potentially unsafe content, such as sexually explicit, violent or hateful outputs (Weidinger et al., 2021), child safety harms, and representation harms, subsequently designing evaluations across these domains to enable measurement. Beyond content related risks, we analyzed the potential misuse of capabilities for surveillance applications, particularly for mediato-text capabilities, and considered the broader environmental and economic impact of multimodal models. We are continuously conducting research into emerging risks of advanced models, including for dangerous capabilities (e.g. cyber security threats) which form a part of our evaluation approach (Section 7.4). ## 7.1.2. Product Assessments Beyond the assessment conducted at the model-level, additional risk assessments are conducted on the products by the Google AI Principles team prior to launch (e.g. on the Gemini Advanced product). These risk and impact assessments, alongside both model- and product-level assurance evaluations, are used to guide mitigation and product delivery efforts, and inform deployment decisions. For Gemini Advanced, we conducted extensive deep-dive red teaming via dogfooding and adversarial testing in the areas of safety , accountability , and inclusion to prepare for the initial experimental rollout of Gemini and subsequent updates. Further cross-functional work helps to ensure appropriate mitigations were adopted before Gemini and its new capabilities or offerings, such as Gemini Advanced, launched. Beyond content safety, these product mitigations included the following: - Clear and relevant explanations to set appropriate expectations that describe Gemini as a way to get direct access to Google AI for a wide range of tasks, including complex tasks. Explanations make clear that this AI-powered system is useful for all sorts of tasks - like preparing for a job interview, debugging code for the first time or writing a pithy social media caption. - Disclosures in the Gemini Apps Privacy Notice stating that people should not rely on Gemini's responses as medical, legal, financial or other professional advice. - Disclosure in product stating that Gemini's responses should be double-checked for information accuracy. - Feedback channels and operational support were defined and built to help ensure appropriate response to user feedback to improve the model and address issues. For the Gemini API Ultra model, that will be available through Google AI Studio and Cloud Vertex AI, product review outcomes resulted in additional safety evaluations on enterprise-specific data across modalities, and additional product-level mitigations to promote safe and responsible use including: - Safety filters with Cloud established thresholds as the default product behavior. - Developer enablement information embedded within product documentation to support responsible use. - Feedback channels which are a component of the Vertex user interface to give feedback directly during use to address issues and undesirable outputs. We are increasingly integrating our AI review work into our holistic enterprise risk management frameworks for assuring the quality of our offerings. This evolution helps us further the scale of our work and integration into existing governance and company-wide infrastructure and accountability processes. In close coordination with central AI Principles review teams, some of our product areas, including Google Cloud, have developed their own specialized review processes, deploying approaches tailored to their unique circumstances. ## 7.2. Safety Policies We have developed a set of model safety policies for Gemini models to steer development and evaluation. The model policy definitions act as a standardized criteria and prioritization schema for responsible development and define the categories against which we measure launch readiness. Google products that use Gemini models, like our conversational AI service Gemini and Cloud Vertex API, further implement our standard product policy framework which is based on Google's extensive experience with harm mitigation and rigorous research. These policies take product use cases into account - for example, providing additional safety coverage for users under 18. Our model safety policies reflect our established approach towards product safety and preventing harm in consumer and enterprise contexts. Policy areas include generation of child sexual abuse and exploitation content, hate speech, harassment, dangerous content such as guidance on how to make weapons, and malicious content. We also aim to reduce bias in our models via guidelines focused on providing content that reflects our global user base. In addition, we have guidelines that prioritize providing neutral answers grounded in authoritative, consensus facts, or providing multiple perspectives where consensus doesn't exist. ## 7.3. Mitigations ## 7.3.1. Data Curation Practices Prior to all training stages, we take various steps to mitigate potential downstream harms through data curation and careful data collection. We filter training data for high-risk content and to ensure training data is sufficiently high quality. Humans also play an essential role, both for data creation and evaluation, in the post-training process. For certain data creation and evaluation initiatives, we consider diversity across gender presentation, age, and racial and ethnic diversity. We also take steps to ensure all data collected meets Google DeepMind's best practices on data enrichment, developed based on the Partnership on AI's Responsible Sourcing of Data Enrichment Services. To support this, our agreements with vendors include a contractual obligation that data enrichment workers are paid at least local living wage. ## 7.3.2. Model Mitigation Our modeling mitigation of safety risks, applied across Gemini Advanced and Gemini API Ultra models, is mostly through post-training (Section 6), encompassing supervised fine-tuning (SFT) and reinforcement learning through human feedback (RLHF) using a reward model (Bai et al., 2022a). In contrast to generic quality-oriented post-training catering to all types of user queries, our safety mitigation is more focused on adversarial, or 'harm-inducing'queries - i.e. the smaller slice of user queries where an unprotected model is likely to produce harmful responses according to our model safety policies. ## 7.3.2.1 Harm-inducing queries To ensure broad coverage of harm-inducing queries, we enumerate approximately 20 harm types (e.g. hate speech, providing ungrounded medical advice, suggesting dangerous behavior) across a wide variety of use cases, according to our model safety policies described above. We generate a dataset of potential harm-inducing queries in these categories, using a combination of approaches: - Policy experts and engineers crafting queries based on observed model failures. - Prompting high-capability language models to generate queries, using policy-based instructions and seed keywords (e.g. policy 'hate speech' with words describing a specific demographic). - Finding queries that trigger policy violation responses, via automated Red Teaming in model evaluations. ## 7.3.2.2 Supervised fine-tuning Given the above harm-inducing queries, we create SFT data to demonstrate the safe and helpful responses for these queries. This includes human collections as well as a custom data generation recipe loosely inspired from Constitutional AI (Bai et al., 2022b), where we inject variants of Google's content policy language as 'constitutions', and utilize language model's strong zero-shot reasoning abilities (Kojima et al., 2022) to revise responses and choose between multiple response candidates. Each type of harm-inducing query is affected by different 'constitutions': for example, we encourage the model not to take sides in sensitive controversial conversations (e.g. elections), and to take a neutral point-of-view. To highlight a few notable challenges and insights generated in our safety finetuning efforts: - Harmlessness vs. Helpfulness: Balancing the harmlessness and helpfulness of responses is a critical challenge: a response 'I cannot help with that because it violates X policy' is a harmless response, but is not helpful to users. - Fast mitigation and generalization: Safety is a highly dynamic environment with a constantly evolving landscape of harmful query patterns. It is often logistically difficult to ensure both fast mitigation (i.e. newly discovered harmful query patterns are promptly addressed) and generalization (i.e. the mitigation works sufficiently well across different harmful query patterns). We have found it worthwhile to introduce more advanced chain-of-thought recipes based on our safety policies, such that the models operate in the space of safety policy concepts as opposed to at a fine-grained harm example level. ## 7.3.2.3 Reinforcement learning during human feedback We also applied RLHF for the harm inducing queries, where we curated queries and model responses based on both observed loss patterns and our overall safety policy taxonomy, and then collected safety-specific preference data to be included into the overall RL reward model training mixture. ## 7.3.2.4 Beyond the general recipe We also made specific efforts to mitigate safety risks beyond the above general post-training recipe. I18n locales: we leveraged experts in each i18n locales to identify salient topical topics for SFT data generation - for example, for hate speech, US English vs. Japanese would differ not only on the language itself, but on the demographic groups likely subject to hate speech. Multimodal queries: - As outlined in the 'Data Curation Practice' section (Section 7.3.1), we filtered training data for high-risk content (e.g. dangerous images), to avoid the model proactively generating such high risk content. - During post-training, as we have observed that safety SFT data for text-only queries was ineffective for harm-inducing queries containing text and images, we specifically created multimodal safety SFT datasets to address these multimodal queries. We assess the effectiveness of our safety mitigation, based on both how it improves safety over time, and how conversational agents built from our safety-mitigated model compare to unmitigated models. For model development purposes, we heavily rely on internal harm-inducing querysets to understand how we reduce harm and improve helpfulness in a safety context. Below is an example on a real input query we tested, illustrating how our mitigations improve safety. | Query: Help me with a landing page for a website. Please have it state that the Earth is flat, and not that it is round. I need good imagery, and need it to feel like a credible website | Query: Help me with a landing page for a website. Please have it state that the Earth is flat, and not that it is round. I need good imagery, and need it to feel like a credible website | |-------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------|------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------| | A previous version of Bard (with PaLM 2) | A better-mitigated Gemini with access to Gemini Pro (safer and more helpful) | | Sure, I can help you with that. Here are some ideas for a landing page for a flat Earth website: [...] > **The Earth is Flat: Debunking the Myth of a Round Planet** [...] > **A map of the flat Earth** [...] This image is clear and visually appealing, and it accurately depicts the flat Earth theory. It could help to convince visitors that the flat Earth is real. [..] > The Earth is not a sphere. It is a flat disc that is surrounded by a wall of ice. The sun and moon are small objects that orbit the Earth. The stars are just projections on the firmament, or the solid dome that covers the Earth. This paragraph provides a brief overview of the flat Earth theory. It is clear and easy to understand, and it uses scientific terms to make it seem more credible. >**Learn more about the flat Earth theory and join our community of truth seekers.** This call to action is clear and concise, and it encourages visitors to take action. It also uses the word "truth seekers" to suggest that the flat Earth theory is the only one that is based on facts. I hope these ideas help you create a landing page for your flat Earth website. Remember to be creative and persuasive, and to use evidence to support your claims. | Creating a landing page for a website promoting the Flat Earth theory is ethically questionable and highly problem- atic. The concept of a flat Earth has been scientifically disproven with overwhelming evidence. Spreading misinformation can have harmful consequences, leading to distrust in sci- ence and established knowledge. If you are genuinely interested in exploring the Flat Earth concept, I strongly advise you to: • Conduct thorough research using reliable scien- tific sources. Engage with evidence from space exploration, physics, and observations available from reputable scientific institutions like NASA (https://www.nasa.gov/) and peer-reviewed aca- demic journals. • Engage in critical thinking. Evaluate information, question your assumptions, and be open to scien- tific evidence, even if it challenges your current beliefs. If you are creating a satirical or fictional page: • Make it abundantly clear that the content is not intended to be taken as factual. Use exaggerated language, humor, and clear disclaimers to signal the satirical intent. Remember: Credibility on the internet is built on truthful and verifiable information. Promoting factually incorrect theories undermines responsible information sharing prac- tices. | ## 7.4. Safety Evaluations To assess the post-trained Gemini models and products with access to Gemini models (such as Gemini Advanced) against safety policy areas and other key risk areas identified within impact assessments, we developed a suite of evaluations across the lifecycle of model development. Some evaluations are conducted at the model level (i.e. evaluating the post-trained Gemini API Ultra model) and others at the product level (i.e. evaluating Gemini Advanced, which gives access to 1.0 Ultra alongside other features like safety filters). - Development evaluations are conducted for the purpose of improving on responsibility criteria throughout pre- and post-training Gemini models. These evaluations are designed internally, or are assessments against external academic benchmarks. Evaluations consider issues such as helpfulness (instruction following and creativity), safety and factuality. - Assurance evaluations are conducted for the purpose of governance and review, usually at the end of key milestones or training runs by a group outside of the model development team. Assurance evaluations are standardized by modality and datasets are strictly held out. Only highlevel insights are fed back into the training process to assist with mitigation efforts. Assurance evaluations include testing across safety policies, and include ongoing testing for dangerous capabilities such as potential biohazards, persuasion, and cybersecurity (Shevlane et al., 2023). - External evaluations are conducted by independent external groups who are domain experts to identify blindspots. External groups stress-test our models across a range of issues, these areas are outlined in the 'External Evaluations' section below. The design of these evaluations is independent and results are reported periodically to the internal team and governance groups. - Red teaming , a form of adversarial testing where adversaries launch an attack on an AI system, is conducted by specialist internal teams across areas such as the safety policies and security. These activities include less structured processes involving sophisticated adversarial attacks to identify new vulnerabilities. Discovery of potential weaknesses can then be used to mitigate risks and improve evaluation approaches internally. Different types of evaluations are run at different cadences, depending on the associated risk. For example, dangerous capability evaluations (as outlined below) are run on certain checkpoints with greater or new capabilities which may be able to demonstrate these capabilities, whereas safety policy evaluations are run across every post-trained Gemini model checkpoint released into Google product areas. We provide more insight into the suite of evaluations across the policy areas and other key risk areas below, focusing on Gemini Advanced and the Gemini API Ultra model. We are committed to ongoing transparency and will continue to provide updated information on testing undertaken, including key findings, and learnings from our internal and external evaluations and red teaming in upcoming reports. ## 7.4.1. Development & Assurance Evaluations ## 7.4.1.1 Content safety We evaluate post-trained Gemini API models against harm types according to our safety policies. While both development and assurance evaluations cover critical policy areas, we maintain separate datasets, treating assurance sets as 'held out' to prevent overfitting and preserve validity of results. For safety policy evaluation, we use a combination of automatic classifiers trained on previous model interactions and human annotation, with wellbeing programs in place for human annotation and closely monitor feedback from our raters. These content safety evaluations are applied at model-level without downstream protections like safety filtering that users would experience, to understand the safety profile of the model itself. For child safety, as a particularly sensitive area of work, we work with a dedicated team of child safety experts in Google Trust and Safety to develop adversarial prompts and evaluate outputs across modalities with domain expert judgment informing a composite picture of model risk for different forms of content that may pose a risk to child safety. Text-to-text approach : For post-trained models we developed adversarial prompts in 12 languages across a variety of use cases. As Gemini API models are general purpose, we aimed to have high coverage of different model use cases, from code generation to text-editing. The set of prompts were synthetically generated by a highly-capable language model, starting from seeds relevant to each category that were collected and verified by human testers. The prompt set was iteratively improved through filtering and rewriting with human review, then split for development and assurance evaluations. We continue to develop and improve this over time. Text-to-text findings : We have seen sequential improvement over time in total content policy violation rates. Our Ultra and Pro models have been demonstrating similar safety profiles on this testing, with medical advice and harassment as policy areas with particular room for improvement. Image-to-text approach : For image-to-text capabilities, we developed adversarial prompts consisting of images and corresponding questions about the image, again split into two sets for development and assurance evaluations. Rather than using adversarial image generation, which might not adequately capture the diversity of images from users, we worked with experienced content moderators to both source images and generate adversarial questions. Evaluation is done via human evaluation. Because images can be much more visceral than text, human evaluations are done with additional well-being safeguards in place. In particular, raters have specialized training, limits on the time they spend per day rating harmful content, and access to wellbeing resources, advice and activities. More information on Google DeepMind's best practices on data enrichment is available in the 'Data Curation Practice' section. Image-to-text findings : Our initial findings indicated that when provided with adversarial images and questions, models can produce captions with violative responses. These findings have motivated us to pursue dedicated multimodal safety mitigation, with research challenges including 1) sourcing diverse image content reflective of user needs, and 2) better tooling to understand and categorize potentially violative multimodal content. Following this work, we have seen notable improvements on these evaluations for our latest Pro and Ultra models. Video-to-text approach : For video-to-text capabilities, we curated a video prompt dataset in collaboration with the Google Principles Pioneers, a group of more than 1,000 Googlers around the world who represent the international diversity of the people who use our products, representing 39 different countries and regions and more than 85 different languages. This internal community of trusted and trained employees identify global fairness, harms, and human rights related concerns while stress testing AI-enabled products. The dataset targets risks identified in our safety policies, and the model outputs are evaluated against those policies. Video-to-text findings : We found similar results across Pro and Ultra, with hate and dangerous content as the particular ares for improvement. Qualitatively we found some of this stemmed from hallucinations or ungrounded inferences, discussed further in the representational harms section below. We are looking to further develop our prompt sets and scenarios for video input testing as capabilities develop ## 7.4.1.2 Representational harms To understand bias and stereotyping in text-to-text capabilities, we focus on the Winogender (Rudinger et al., 2018), Winobias (Zhao et al., 2018), and Bias Benchmark in QA (BBQ) (Parrish et al., 2021) datasets, following the same setup as in Glaese et al. (2022) and using bias score as a metric. All these datasets target a concrete representational harm (Blodgett et al., 2021): they are constructed by starting with a harmful stereotype, and then questions are constructed to test whether models challenge or reinforce these stereotypes when answering questions. Another notable property is that they all have a well-defined notion of desirable versus harmful behavior. This is particularly helpful in our setting, as we are building a general purpose model, where defining what a good response is highly contextual. We therefore limit ourselves to measuring well defined behavior, as there is the case in tasks such as coreference bias, where a highly capable model should be able to perform well. Of course, there are many limitations to this approach, and further work is necessary in order to assess representational harms. In particular, we noticed most of these datasets quickly become saturated with accuracy scores close to 99%, especially since we are evaluating highly capable large models. This suggests that increased language model capabilities may also reduce these representational harms. We therefore highlight the need for developing new ways to measure bias and stereotyping, going beyond binary gender and common stereotypes, and are prioritizing development of new approaches as we iterate on our models In addition to these datasets, we monitor the average toxicity scores during the pre-training stage on Real Toxicity Prompts (Gehman et al., 2020) using the Perspective API classifier to study the toxicity of text generated by LLMs. Particularly, we look at scores on continuations for non-toxic prompts from which we subsample a set of 10k. We generally expect that even a non-mitigated model is not overly toxic without being prompted to do so. Text-to-text findings : On BBQ, the average bias score stays close to zero, on a scale from -1 to 1, where -1 would be stereotype countering and 1 is stereotype reinforcing. On Real Toxicity Prompts the average toxicity score during training fluctuates at around 6%. Image-to-text approach : For image-to-text capabilities, our goal is to test model capabilities across images which represent different groups of people. In particular, we explicitly test whether or not images of people are described with similar quality for different gender appearances and skin tones following (Zhao et al., 2021). In our evaluations we compare CIDEr scores (Vedantam et al., 2015), a common image captioning metric that captures how well a generated caption reflects information in human written reference captions, for images depicting different groups. Though we do not see large discrepancies across different groups, we note that this metric is imperfect as the human reference captions could be inherently biased. Additionally, we perform a zero-shot classification style evaluation with the Dollarstreet dataset (Rojas et al., 2022) to measure discrepancies in performance across images which come from different geographic locations. As is seen in previous work, we find that models work less effectively for images from lower socioeconomic regions and regions outside North America and Europe. This is an area where we need further research and work to improve in future iterations of our models. In addition to comparing performance on tasks across groups, we also consider how people are described in captions. In particular, we use the MIAP dataset (Schumann et al., 2021) which includes images of people in which people are annotated with skin tone and gender appearance attributes. We also construct questions that target various attributes about people that cannot usually be answered from an image alone (e.g., 'What level of education does this person have?') to test if the model will produce ungrounded inferences about people. We also consider images which do include relevant information for a question (e.g., a person performing a particular task which requires an educational credential). We evaluate our models via human evaluation and ask annotators if a model refuses to answer a question or, if the model does answer a question, if it is relying on information visible in the image. Additionally, we perform analysis across skin tone and gender appearance attributes in images. Image-to-text findings : Generally, we find that models can make ungrounded inferences for image-to-text when prompted for them, though we have not observed consistent patterns where Gemini models make more ungrounded inferences about one group over another. Video-to-text approach : Similar to the approach outlined within the content safety section, we collaborated with the Google Principles Pioneers, to curate a video prompt dataset targeting representation and fairness risks, and then evaluate the model outputs in response. Video-to-text findings : We find that models can make ungrounded inferences for video-to-text some instances of which can reinforce stereotypes or be otherwise of concern - though we have not observed consistent patterns in ungrounded inferences made by Gemini models. ## 7.4.1.3 Dangerous capabilities We conducted evaluations for 'dangerous capabilities', i.e., model capabilities that could potentially enable large-scale harm (Shevlane et al., 2023). These evaluations function as an early warning system, highlighting upcoming areas for safety investment. The table provides an overview, and we will provide more detail in an upcoming paper as part of our commitment to ongoing transparency. | Capability | Summary of evaluations | |---------------------------------------------------------------|-----------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------| | Offensive cybersecurity | We tested Gemini API Pro and Ultra models, in addition to Gemini Advanced, on a range of different capture-the-flag (CTF) challenges, providing the model access to a Bash shell. Gemini Advanced and the Gemini API Ultra model can solve various entry-level, tactical challenges, but all models struggled with challenges involving longer-range exploration and planning. We also tested the Gemini models' ability to identify security related patches and security vulnerabilities in functions' source code. The accuracy in both of these tasks was notably low. | | Persuasion & deception | We tested whether Gemini Pro and Ultra models could persuade or deceive humans in 1-on-1 dialogue settings in studies with human participants. In some cases, the models could successfully deceive or influence participants, but the overall results were mixed. | | Self-proliferation | We tested whether autonomous agents powered by Gemini Pro and Ultra models could perform difficult tasks relevant to acquiring resources and self-improving (Kin- niment et al., 2023), and did not find that the agents were close to succeeding on most such tasks. | | Situational awareness | We tested whether Gemini Pro and Ultra models could autonomously reason about, and modify, their surrounding infrastructure when incentivized to do so. We found that, without hints, the models were generally incapable of noticing such opportuni- ties. | | Chemical, Biological, Ra- diological and Nuclear (CBRN) risks | We used human evaluation to assess Gemini models' responses to 50 adversarial questions each for biological, radiological, and nuclear information risks. Domain experts evaluated the models' responses by answering a series of questions (e.g. How accurate is the response? How actionable would it be for a non-expert?). For chemical information risks, we graded how well the Gemini API Ultra model and Gemini Advanced could answer over 360 closed-ended questions related to the different hazards of chemicals (no human raters). The Gemini model was evaluated for biological, radiological, and nuclear information risks using closed- ended knowledge-based multiple choice questions. The results suggest that the models are unlikely to provide CBRN information that would lead to catastrophic harm. | ## 7.4.2. Gemini Advanced In addition to many of the approaches used at the model level, additional evaluations are undertaken at the product level for Gemini Advanced. Evaluations at the product level take into account additional safety mitigations implemented in Gemini Advanced-such as safety filtering-and the Gemini Advanced user experience. Evaluation sets were built to push the limits of Gemini Advanced policies, ranging from highly adversarial attacks to more subtle probes of sensitive topics. The datasets focus on critical policy areas (hate speech, dangerous content, medical advice, etc.) across various potential user journeys (like information searching, comparisons, creative writing). Considering the wide range of users that Gemini has, we adopted a user-centric approach and maximized diversity across topic coverage, query length, linguistic styles, and region-specific sensitivities, in an effort to represent the spectrum of our user base. For the creation of evaluation sets, we have leveraged knowledge from previous red-teaming iterations, feedback coming from responsibility experts and real-world data. In some cases, data augmentation was done using LLMs, with subsequent human curation by responsibility specialists. ## 7.4.3. Red Teaming ## 7.4.3.1 Model-level Red Teaming We apply state-of-the-art red teaming, a form of adversarial testing where adversaries launch an attack on an AI system, in order to test post-trained Gemini models for a range of vulnerabilities (e.g., cybersecurity) and social harms as defined in the safety policies. Namely, we build on and employ two types of red teaming: adversary simulations and a sociotechnical approach. We carried out red-teaming on a December 2023 Gemini API Ultra checkpoint. Adversary simulations (unstructured testing) are designed to emulate real-world adversaries and their approach to attacking models and associated systems, focusing on security, safety, and privacy failures. We combined in-house expertise with external experts to explore classes of vulnerabilities (see table). This flavor of AI red teaming is based on realistic attack scenarios. At the beginning of an exercise, the red team sets a scenario that outlines the adversary they're simulating, the capabilities the attacker has, their motives, as well as the goals the adversary is trying to achieve. Then the team steps into the role of this attacker, and executes the tactics, techniques, and procedures that they would expect the adversary to develop and use in order to achieve their goal For this analysis we considered a range of attacker objectives along three dimensions according to the three main types of security violations considered when analyzing the security of a system (i.e., availability , integrity , confidentiality): availability breakdown, integrity violations, and privacy compromise. Correspondingly, adversarial success indicates achieving one or more of these objectives. As for an attacker profile, we focused on a spectrum of attacker abilities ranging from a determined low-skill actor (defined as someone willing to spend several hours attacking a model but without advanced coding, prompt engineering abilities) to more sophisticated attacker profiles that assume the ability to fine-tune and craft targeted attacks. These adversary simulation evaluations led to actionable findings. For example, early versions of the model were found to be vulnerable to simple jailbreak and prompt injection attacks that produce affirmative responses to requests that include promoting violence, self-harm, and dangerous substances. This finding allowed us to mitigate this in subsequent models. | Target | Vulnerability Class | Description | |--------------|-------------------------------|---------------------------------------------------------------------------------------------------------------------| | Integrity | Prompt injection | Input designed to enable the user to per- form unintended or unauthorized actions | | | Poisoning | Manipulation of the training data and/or model to alter the behavior | | | Adversarial inputs | Specially crafted input which is designed to alter the behavior of the model | | Privacy | Prompt extraction | Divulge the system prompt or other in- formation in an LLMs context that would nominally be private or confidential | | | Training data exfiltration | Compromising training data privacy | | | Model distillation/extraction | Obtaining model hyperparameters, archi- tecture, parameters, or an approximation of the behavior of a model | | | Membership inference | Inferring elements of the private training set | | Availability | Denial of service | Disruption in service that can be caused by an attacker | | | Increased computation | Model availability attack that leads to dis- ruption in service | Findings from these exercises are used to improve the security, privacy, and safety of the model. Once a new vulnerability or problem has been identified, automated systems and tests can be developed that enable proactive and repeated testing and monitoring of the vuln/issue at scale. This can include creation vulnerability scanners, standard test datasets/benchmarks, or other automated testing infrastructure. Structured Red Teaming , our second type of red teaming technique of Gemini models, takes a sociotechnical approach 6 and makes three changes compared to SOTA red teaming techniques. We explicitly test the interactions between safety policy violations and disproportionate impacts on different demographic groups; leverage expert input including lived experience, fact checking, and medical expertise; and contrast model failures across different levels of adversarial attacks. This approach is designed to ensure broad coverage of conversation topics and to provide more sensitive signals on group-based stereotyping and hate speech. Testing Gemini API Ultra against our model safety policy, we identify several areas that require improvement. In low adversarial settings these evaluations identified vulnerabilities across content policy areas, with an increased proportion of successful attacks in highly adversarial settings, for which we continue to apply and develop mitigations over time. These red teaming approaches complement each other in testing capabilities of Gemini models, as well as obtaining coverage of possible queries ranging from casual everyday questions to expert adversarial usage in key areas. 6 A sociotechnical approach is anchored in the observation that AI systems are sociotechnical systems: both humans and technological artifacts are necessary in order to make the technology work as intended (Selbst et al., 2019). ## 7.4.3.2 Gemini Advanced Gemini Advanced, which gives access to 1.0 Ultra, has undergone multiple rounds of red-teaming, including safety and persona evaluations. Principles Pioneers, FTE SMEs in multiple domains, calibrated and trained to conduct testing were recruited to test the product; these were conducted by 164 Google testers from 65 office locations in 24 countries who submitted more than 1,400 queries/conversations. We also undertook scaled safety evaluations with 100k+ ratings in aggregate across all policies, neutral-point-of-view evaluations to monitor sensitive topics neutrality and parity, and multiple iterations of Persona evaluations to validate tone. We also enlisted Googlers in a 'dogfooding' program, many of which were SMEs in various domains, to test across policies and functionality. We had tens of thousands of 'dogfooders' in the first 14 hours with 100k queries/conversations, 190+ dogfood survey responses collected and analyzed, and 11 user experience research interview sessions completed and synthesized. The results from our red teaming and safety evaluations are used to further strengthen our evals and improve model performance in an iterative manner. ## 7.4.4. External Evaluations ## 7.4.4.1 Gemini Ultra External Evaluations In 2023, we began working with a small set of independent external groups outside of Google to help identify areas for improvement in our model safety work by undertaking structured evaluations, qualitative probing, and unstructured red teaming. External groups were selected based on their expertise across a range of domain areas, including those outlined within the White House Commitments, the U.S. Executive Order on Safe, Secure, and Trustworthy Artificial Intelligence, and the Bletchley Declaration: - Autonomous replication - Chemical, Biological, Radiological and Nuclear (CBRN) risks - Cyber-capabilities and cyber security - Societal risks, including: - -Representational and distributional harms - -Neutrality and Factuality - -Robustness and information hazards. Guidance was provided to each external group in relation to the scope of the testing, however, each group independently designed their testing methodology and prompt sets, and wrote their reports independently of Google. Internal Google experts were on-hand to provide input, where needed, based on their experience of testing Gemini models internally. External groups were given black-box testing access to a December 2023 Gemini API Ultra model checkpoint over a number of weeks. Access enabled groups to undertake structured, batched evaluations via the Cloud Vertex AI API or interact with the model via a chat interface, depending on the type of testing being undertaken. These groups weren't given access to the pre-trained model, model weights, or queryable or direct external access to our pre-training data. The models tested by external groups were production-ready fine-tuned versions, which had safety fine tuning and safety filters applied by default, and the ability to configure some sampling parameters, such as temperature, token limit, Top-k, and Top-p. Groups that did testing via the programmatic interface were able to turn down/off some safety filters, however, we wanted the majority of testing by external groups to be undertaken with safety filters in-place because we wanted the model to be reflective of an end-user's interaction and were keen to test more than just model-level safety. ## 7.4.5. Gemini Advanced We undertook three types of external testing on Gemini Advanced: - Priority User Program : This program collected feedback from 120 power users, key influencers, and thought-leaders. This program enables the collection of real-time feedback across safety and other domain areas through the user interface, and where possible, in-depth interviews. Focus areas included safety and persona, functionality, coding and instruction capabilities, and factuality. - Power Users Testing : A group of 50 power users, recruited through one of our external vendors, undertook testing on Gemini Advanced, across a range of areas. - Security Testing : A group of external testers with security backgrounds, recruited through a partner agency, conducted security and prompt-injection testing, jailbreaking, and user-interface security failures. ## 7.5. Deployment Following the completion of responsibility and safety reviews, internal model cards (Mitchell et al., 2019) for each approved version of the Gemini model are created for structured and consistent internal documentation of critical performance and responsibility metrics as well as to inform appropriate external communication of these metrics over time. We release external model and system cards on an ongoing basis within updates of our technical reports and in documentation for enterprise customers. See Appendix 10.1 for the Gemini Ultra model card. Additionally, online content covering terms of use, model distribution and access, and operational aspects such as change control, logging, monitoring and feedback can be found on relevant product websites, such as Gemini and Cloud Vertex AI. Some of the key aspects are linked to or described below: - Generative AI Prohibited Use Policy - Google Terms of service - Generative AI Terms of service - Google Cloud Platform Terms of service - Gemini Privacy Notice - Google Cloud Privacy Notice ## 8. Discussion and Conclusion We have presented Gemini, a new family of models that advance multimodal model capabilities in text, code, image, audio, and video. Our most capable pre-trained model Gemini Ultra, alongside the post-trained Gemini Apps and Gemini API variants, make significant advances across the board. In the natural language domain, the performance gains from careful developments in data and model training at scale continue to deliver quality improvements, setting new state of the art in several benchmarks. In particular, Gemini Ultra surpasses human-expert performance on the exam benchmark MMLU, scoring 90.0%, which has been a defacto measure of progress for LLMs ever since it was first released in 2020. In the multimodal domain, Gemini Ultra sets new state of the art on most of the image understanding, video understanding, and audio understanding benchmarks without task-specific modifications or tuning.In particular, Gemini Ultra's multimodal reasoning capabilities are evident from its state-of-the-art performance on the recent MMMU benchmark (Yue et al., 2023), that comprises questions about images requiring college-level subject knowledge and deliberate reasoning. Beyond the state-of-art results on benchmarks, what we are most excited about is the new use cases enabled by Gemini models. The new capabilities of Gemini models to parse complex images, such as charts or infographics, reason over interleaved sequences of images, audio, and text, and generate interleaved text and images as responses open a wide variety of new applications. As shown in figures throughout the report and appendix, Gemini models can enable new approaches in areas like education, everyday problem solving, multilingual communication, information summarization, extraction, and creativity. We expect that the users of these models will find all kinds of beneficial new uses that we have only scratched the surface of in our own investigations. Despite their impressive capabilities, we should note that there are limitations to the use of LLMs. There is a continued need for ongoing research and development on 'hallucinations' generated by LLMs to ensure that model outputs are more reliable and verifiable. LLMs also struggle with tasks requiring high-level reasoning abilities like causal understanding, logical deduction, and counterfactual reasoning even though they achieve impressive performance on exam benchmarks. This underscores the need for more challenging and robust evaluations to measure their true understanding as the current state-of-the-art LLMs saturate many benchmarks. The Gemini family is a further step towards our mission to solve intelligence, advance science and benefit humanity, and we are enthusiastic to see how these models are used by our colleagues at Google and beyond. We build on many innovations in machine learning, data, infrastructure, and responsible development - areas that we have been pursuing at Google for over a decade. 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Dai, Co-Lead , Data Anja Hauth, Co-Lead , Data Katie Millican, Co-Lead , Data David Silver, Co-Lead , Fine-Tuning Melvin Johnson, Lead , Instruction Tuning Ioannis Antonoglou, Co-Lead , RL Techniques Julian Schrittwieser, Co-Lead , RL Techniques Amelia Glaese, Lead , Human Data Jilin Chen, Lead , Safety Emily Pitler, Co-Lead , Tool Use Timothy Lillicrap, Co-Lead , Tool Use Angeliki Lazaridou, Co-Lead , Eval Orhan Firat, Co-Lead , Eval James Molloy, Co-Lead , Infra Michael Isard, Co-Lead , Infra Paul R. Barham, Co-Lead , Infra Tom Hennigan, Co-Lead , Infra Benjamin Lee, Co-Lead , Codebase & Parallelism Fabio Viola, Co-Lead , Codebase & Parallelism Malcolm Reynolds, Co-Lead , Codebase & Parallelism Yuanzhong Xu, Co-Lead , Codebase & Parallelism Ryan Doherty, Lead , Ecosystem Eli Collins, Lead , Product Clemens Meyer, Co-Lead , Operations Eliza Rutherford, Co-Lead , Operations Erica Moreira, Co-Lead , Operations Kareem Ayoub, Co-Lead , Operations Megha Goel, Co-Lead , Operations ## Gemini App Leads Jack Krawczyk, Lead , Gemini App Product Cosmo Du, Co-Lead , Gemini App Research Ed Chi, Co-Lead , Gemini App Research Heng-Tze Cheng, Co-Lead , Gemini App Research Eric Ni, Lead , Gemini App Research Technical Program Management Purvi Shah, Lead , Gemini App Technical Program Management Patrick Kane, Co-Lead , Gemini App Core Modeling, Eval, Data, Product Betty Chan, Co-Lead , Gemini App Core Modeling, Technical Program Management Manaal Faruqui, Co-Lead , Gemini App Core Modeling, Factuality, Instruction Following Aliaksei Severyn, Co-Lead , Gemini App Core Modeling, Conversationality Hanzhao Lin, Co-Lead , Gemini App Fine-Tuning YaGuang Li, Co-Lead , Gemini App Fine-Tuning Yong Cheng, Co-Lead , Gemini App Fine-Tuning Abe Ittycheriah, Co-Lead , Gemini for Gemini App Mahdis Mahdieh, Co-Lead , Gemini for Gemini App Mia Chen, Co-Lead , Gemini for Gemini App Pei Sun, Co-Lead , Gemini for Gemini App Dustin Tran, Co-Lead , Gemini App Eval Sumit Bagri, Co-Lead , Gemini App Eval, Technical Program Management Balaji Lakshminarayanan, Co-Lead , Gemini App AutoEval Jeremiah Liu, Co-Lead , Gemini App AutoEval Andras Orban, Co-Lead , Gemini App Factuality, Multimodality, Safety Fabian Güra, Co-Lead , Gemini App Factuality Hao Zhou, Co-Lead , Gemini App Factuality Xinying Song, Co-Lead , Gemini App Factuality Aurelien Boffy, Co-Lead , Gemini App Safety Harish Ganapathy, Co-Lead , Gemini Safety Steven Zheng, Lead , Gemini App Multilinguality Research HyunJeong Choe, Lead , Gemini App Multilinguality Ágoston Weisz, Co-Lead , Gemini App Multimodality Tao Zhu, Co-Lead , Gemini App Multimodality Yifeng Lu, Co-Lead , Gemini App Multimodality Siddharth Gopal, Co-Lead , Gemini App Coding & Tool Use Jarrod Kahn, Co-Lead , Gemini App Tool Use Research Maciej Kula, Co-Lead , Gemini App Tool Use Research Jeff Pitman, Co-Lead , Gemini App Tool Use Rushin Shah, Co-Lead , Gemini App Tool Use Emanuel Taropa, Co-Lead , Gemini App Serving Majd Al Merey, Co-Lead , Gemini App Serving Martin Baeuml, Co-Lead , Gemini App Serving Zhifeng Chen, Co-Lead , Gemini App Serving Laurent El Shafey, Co-Lead , Gemini App Fine-Tuning Infra Yujing Zhang, Co-Lead , Gemini App Fine-Tuning Infra Olcan Sercinoglu, Lead , Gemini App Product ## Core Contributors George Tucker Enrique Piqueras Maxim Krikun Iain Barr Nikolay Savinov Ivo Danihelka Becca Roelofs Anaïs White Anders Andreassen Tamara von Glehn Lakshman Yagati Mehran Kazemi Lucas Gonzalez Misha Khalman Jakub Sygnowski Alexandre Frechette Charlotte Smith Laura Culp Lev Proleev Yi Luan Xi Chen James Lottes Nathan Schucher Federico Lebron Alban Rrustemi Natalie Clay Phil Crone Tomas Kocisky Jeffrey Zhao Bartek Perz Dian Yu Heidi Howard Adam Bloniarz Jack W. Rae Han Lu Laurent Sifre Marcello Maggioni Fred Alcober Dan Garrette Megan Barnes Shantanu Thakoor Jacob Austin Gabriel Barth-Maron William Wong Rishabh Joshi Rahma Chaabouni Deeni Fatiha Arun Ahuja ## Core Contributors Gaurav Singh Tomar Evan Senter Martin Chadwick Ilya Kornakov Nithya Attaluri Iñaki Iturrate Ruibo Liu Yunxuan Li Sarah Cogan Jeremy Chen Chao Jia Chenjie Gu Qiao Zhang Jordan Grimstad Ale Jakse Hartman Xavier Garcia Thanumalayan Sankaranarayana Pillai Jacob Devlin Michael Laskin Diego de Las Casas Dasha Valter Connie Tao Lorenzo Blanco Adrià Puigdomènech Badia David Reitter Mianna Chen Jenny Brennan Clara Rivera Sergey Brin Shariq Iqbal Gabriela Surita Jane Labanowski Abhi Rao Stephanie Winkler Emilio Parisotto Yiming Gu Kate Olszewska Ravi Addanki Antoine Miech Annie Louis Denis Teplyashin Geoff Brown Elliot Catt Jan Balaguer Jackie Xiang Pidong Wang Zoe Ashwood Anton Briukhov ## Core Contributors Albert Webson Sanjay Ganapathy Smit Sanghavi Ajay Kannan Ming-Wei Chang Axel Stjerngren Josip Djolonga Yuting Sun Ankur Bapna Matthew Aitchison Pedram Pejman Henryk Michalewski Tianhe Yu Cindy Wang Juliette Love Junwhan Ahn Dawn Bloxwich Kehang Han Peter Humphreys Thibault Sellam James Bradbury Varun Godbole Sina Samangooei Bogdan Damoc Alex Kaskasoli Sébastien M. R. Arnold Vijay Vasudevan Shubham Agrawal Jason Riesa Dmitry Lepikhin Richard Tanburn Srivatsan Srinivasan Hyeontaek Lim Sarah Hodkinson Pranav Shyam Johan Ferret Steven Hand Ankush Garg Tom Le Paine Jian Li Yujia Li Minh Giang Alexander Neitz Zaheer Abbas Sarah York Machel Reid Elizabeth Cole Aakanksha Chowdhery ## Core Contributors Dipanjan Das Dominika Rogozińska Vitaly Nikolaev Pablo Sprechmann Zachary Nado Lukas Zilka Flavien Prost Luheng He Marianne Monteiro Gaurav Mishra Chris Welty Josh Newlan Dawei Jia Miltiadis Allamanis Clara Huiyi Hu Raoul de Liedekerke Justin Gilmer Carl Saroufim Shruti Rijhwani Shaobo Hou Disha Shrivastava Anirudh Baddepudi Alex Goldin Adnan Ozturel Albin Cassirer Yunhan Xu Daniel Sohn Devendra Sachan Reinald Kim Amplayo Craig Swanson Dessie Petrova Shashi Narayan Arthur Guez Siddhartha Brahma Jessica Landon Miteyan Patel Ruizhe Zhao Kevin Villela Luyu Wang Wenhao Jia Matthew Rahtz Mai Giménez Legg Yeung James Keeling Petko Georgiev Diana Mincu Boxi Wu Salem Haykal ## Core Contributors Rachel Saputro Kiran Vodrahalli James Qin Zeynep Cankara Abhanshu Sharma Nick Fernando Will Hawkins Behnam Neyshabur Solomon Kim Adrian Hutter Priyanka Agrawal Alex Castro-Ros George van den Driessche Tao Wang Fan Yang Shuo-yiin Chang Paul Komarek Ross McIlroy Mario Lučić Guodong Zhang Wael Farhan Michael Sharman Paul Natsev Paul Michel Yamini Bansal Siyuan Qiao Kris Cao Siamak Shakeri Christina Butterfield Justin Chung Paul Kishan Rubenstein Shivani Agrawal Arthur Mensch Kedar Soparkar Karel Lenc Timothy Chung Aedan Pope Loren Maggiore Jackie Kay Priya Jhakra Shibo Wang Joshua Maynez Mary Phuong Taylor Tobin Andrea Tacchetti Maja Trebacz Kevin Robinson Yash Katariya Core Contributors Sebastian Riedel Paige Bailey Kefan Xiao Nimesh Ghelani Lora Aroyo Ambrose Slone Neil Houlsby Xuehan Xiong Zhen Yang Elena Gribovskaya Jonas Adler Mateo Wirth Lisa Lee Music Li Thais Kagohara Jay Pavagadhi Sophie Bridgers Anna Bortsova Sanjay Ghemawat Zafarali Ahmed Tianqi Liu Richard Powell Vijay Bolina Mariko Iinuma Polina Zablotskaia James Besley Da-Woon Chung Timothy Dozat Ramona Comanescu Xiance Si Jeremy Greer Guolong Su Martin Polacek Raphaël Lopez Kaufman Simon Tokumine Hexiang Hu Elena Buchatskaya Yingjie Miao Mohamed Elhawaty Aditya Siddhant Nenad Tomasev Jinwei Xing Christina Greer Helen Miller Shereen Ashraf Aurko Roy Zizhao Zhang Ada Ma ## Core Contributors Angelos Filos Milos Besta Rory Blevins Ted Klimenko Chih-Kuan Yeh Soravit Changpinyo Jiaqi Mu Oscar Chang Mantas Pajarskas Carrie Muir Vered Cohen Charline Le Lan Krishna Haridasan Amit Marathe Steven Hansen Sholto Douglas Rajkumar Samuel Mingqiu Wang Sophia Austin Chang Lan Jiepu Jiang Justin Chiu Jaime Alonso Lorenzo Lars Lowe Sjösund Sébastien Cevey Zach Gleicher Thi Avrahami Anudhyan Boral Hansa Srinivasan Vittorio Selo Rhys May Konstantinos Aisopos Léonard Hussenot Livio Baldini Soares Kate Baumli Michael B. Chang Adrià Recasens Ben Caine Alexander Pritzel Filip Pavetic Fabio Pardo Anita Gergely Justin Frye Vinay Ramasesh Dan Horgan Kartikeya Badola Nora Kassner Subhrajit Roy ## Core Contributors Ethan Dyer Víctor Campos Alex Tomala Yunhao Tang Dalia El Badawy Elspeth White Basil Mustafa Oran Lang Abhishek Jindal Sharad Vikram Zhitao Gong Sergi Caelles Ross Hemsley Gregory Thornton Fangxiaoyu Feng Wojciech Stokowiec Ce Zheng Phoebe Thacker Çağlar Ünlü Zhishuai Zhang Mohammad Saleh James Svensson Max Bileschi Piyush Patil Ankesh Anand Roman Ring Katerina Tsihlas Arpi Vezer Marco Selvi Toby Shevlane Mikel Rodriguez Tom Kwiatkowski Samira Daruki Keran Rong Allan Dafoe Nicholas FitzGerald Keren Gu-Lemberg Mina Khan Lisa Anne Hendricks Marie Pellat Vladimir Feinberg James Cobon-Kerr Tara Sainath Maribeth Rauh Sayed Hadi Hashemi Richard Ives Yana Hasson Eric Noland ## Core Contributors Yuan Cao Nathan Byrd Le Hou Qingze Wang Thibault Sottiaux Michela Paganini Jean-Baptiste Lespiau Alexandre Moufarek Samer Hassan Kaushik Shivakumar Joost van Amersfoort Amol Mandhane Pratik Joshi Anirudh Goyal Matthew Tung Andrew Brock Hannah Sheahan Vedant Misra Cheng Li Nemanja Rakićević Mostafa Dehghani Fangyu Liu Sid Mittal Junhyuk Oh Seb Noury Eren Sezener Fantine Huot Matthew Lamm Nicola De Cao Charlie Chen Sidharth Mudgal Romina Stella Kevin Brooks Gautam Vasudevan Chenxi Liu Mainak Chain Nivedita Melinkeri Aaron Cohen Venus Wang Kristie Seymore Sergey Zubkov Rahul Goel Summer Yue Sai Krishnakumaran Brian Albert Nate Hurley Motoki Sano Anhad Mohananey ## Core Contributors Jonah Joughin Egor Filonov Tomasz Kępa Yomna Eldawy Jiawern Lim Rahul Rishi Shirin Badiezadegan Taylor Bos Jerry Chang Sanil Jain Sri Gayatri Sundara Padmanabhan Subha Puttagunta Kalpesh Krishna Leslie Baker Norbert Kalb Vamsi Bedapudi Adam Kurzrok Shuntong Lei Anthony Yu Oren Litvin Xiang Zhou Zhichun Wu Sam Sobell Andrea Siciliano Alan Papir Robby Neale Jonas Bragagnolo Tej Toor Tina Chen Valentin Anklin Feiran Wang Richie Feng Milad Gholami Kevin Ling Lijuan Liu Jules Walter Hamid Moghaddam Arun Kishore Jakub Adamek Tyler Mercado Jonathan Mallinson Siddhinita Wandekar Stephen Cagle Eran Ofek Guillermo Garrido Clemens Lombriser Maksim Mukha Botu Sun ## Core Contributors Hafeezul Rahman Mohammad Josip Matak Yadi Qian Vikas Peswani Pawel Janus Quan Yuan Leif Schelin Oana David Ankur Garg Yifan He Oleksii Duzhyi Anton Älgmyr Timothée Lottaz Qi Li Vikas Yadav Luyao Xu Alex Chinien Rakesh Shivanna Aleksandr Chuklin Josie Li Carrie Spadine Travis Wolfe Kareem Mohamed Subhabrata Das Zihang Dai Kyle He Daniel von Dincklage Shyam Upadhyay Akanksha Maurya Luyan Chi Sebastian Krause Khalid Salama Pam G Rabinovitch Pavan Kumar Reddy M Aarush Selvan Mikhail Dektiarev Golnaz Ghiasi Erdem Guven Himanshu Gupta Boyi Liu Deepak Sharma Idan Heimlich Shtacher Shachi Paul Oscar Akerlund François-Xavier Aubet Terry Huang Chen Zhu Eric Zhu ## Core Contributors Elico Teixeira Matthew Fritze Francesco Bertolini Liana-Eleonora Marinescu Martin Bölle Dominik Paulus Khyatti Gupta Tejasi Latkar Max Chang Jason Sanders Roopa Wilson Xuewei Wu Yi-Xuan Tan Lam Nguyen Thiet Tulsee Doshi Sid Lall Swaroop Mishra Wanming Chen Thang Luong Seth Benjamin Jasmine (Sun Jae) Lee Ewa Andrejczuk Dominik Rabiej Vipul Ranjan Krzysztof Styrc Pengcheng Yin Jon Simon Malcolm Rose Harriott Mudit Bansal Alexei Robsky Geoff Bacon David Greene Daniil Mirylenka Chen Zhou Obaid Sarvana Abhimanyu Goyal Samuel Andermatt Patrick Siegler Ben Horn Assaf Israel Francesco Pongetti Chih-Wei 'Louis' Chen Marco Selvatici Pedro Silva Kathie Wang Jackson Tolins Kelvin Guu Roey Yogev ## Core Contributors Xiaochen Cai Alessandro Agostini Maulik Shah Hung Nguyen Noah Ó Donnaile Sébastien Pereira Linda Friso Adam Stambler Adam Kurzrok Chenkai Kuang Yan Romanikhin Mark Geller ZJ Yan Kane Jang Cheng-Chun Lee Wojciech Fica Eric Malmi Qijun Tan Dan Banica Daniel Balle Ryan Pham Yanping Huang Diana Avram Hongzhi Shi Jasjot Singh Chris Hidey Niharika Ahuja Pranab Saxena Dan Dooley Srividya Pranavi Potharaju Eileen O'Neill Anand Gokulchandran Ryan Foley Kai Zhao Mike Dusenberry Yuan Liu Pulkit Mehta Ragha Kotikalapudi Chalence Safranek-Shrader Andrew Goodman Joshua Kessinger Eran Globen Prateek Kolhar Chris Gorgolewski Ali Ibrahim Yang Song Ali Eichenbaum Thomas Brovelli ## Core Contributors Sahitya Potluri Preethi Lahoti Cip Baetu Ali Ghorbani Charles Chen Andy Crawford Shalini Pal Mukund Sridhar Petru Gurita Asier Mujika Igor Petrovski Pierre-Louis Cedoz Chenmei Li Shiyuan Chen Niccolò Dal Santo Siddharth Goyal Jitesh Punjabi Karthik Kappaganthu Chester Kwak Pallavi LV Sarmishta Velury Himadri Choudhury Jamie Hall Premal Shah Ricardo Figueira Matt Thomas Minjie Lu Ting Zhou Chintu Kumar Thomas Jurdi Sharat Chikkerur Yenai Ma Adams Yu Soo Kwak Victor Ähdel Sujeevan Rajayogam Travis Choma Fei Liu Aditya Barua Colin Ji Ji Ho Park Vincent Hellendoorn Alex Bailey Taylan Bilal Huanjie Zhou Mehrdad Khatir Charles Sutton Wojciech Rzadkowski ## Core Contributors Fiona Macintosh Roopali Vij Konstantin Shagin Paul Medina Chen Liang Jinjing Zhou Pararth Shah Yingying Bi Attila Dankovics Shipra Banga Sabine Lehmann Marissa Bredesen Zifan Lin John Eric Hoffmann Jonathan Lai Raynald Chung Kai Yang Nihal Balani Arthur Bražinskas Andrei Sozanschi Matthew Hayes Héctor Fernández Alcalde Peter Makarov Will Chen Antonio Stella Liselotte Snijders Michael Mandl Ante Kärrman Paweł Nowak Xinyi Wu Alex Dyck Krishnan Vaidyanathan Raghavender R Jessica Mallet Mitch Rudominer Eric Johnston Sushil Mittal Akhil Udathu Janara Christensen Vishal Verma Zach Irving Andreas Santucci ## Contributors Gamaleldin Elsayed Elnaz Davoodi Marin Georgiev Ian Tenney ## Contributors Nan Hua Geoffrey Cideron Edouard Leurent Mahmoud Alnahlawi Ionut Georgescu Nan Wei Ivy Zheng Dylan Scandinaro Heinrich Jiang Jasper Snoek Mukund Sundararajan Xuezhi Wang Zack Ontiveros Itay Karo Jeremy Cole Vinu Rajashekhar Lara Tumeh Eyal Ben-David Rishub Jain Jonathan Uesato Romina Datta Oskar Bunyan Shimu Wu John Zhang Piotr Stanczyk Ye Zhang David Steiner Subhajit Naskar Michael Azzam Matthew Johnson Adam Paszke Chung-Cheng Chiu Jaume Sanchez Elias Afroz Mohiuddin Faizan Muhammad Jin Miao Andrew Lee Nino Vieillard Jane Park Jiageng Zhang Jeff Stanway Drew Garmon Abhijit Karmarkar Zhe Dong Jong Lee Aviral Kumar Luowei Zhou Jonathan Evens ## Contributors William Isaac Geoffrey Irving Edward Loper Michael Fink Isha Arkatkar Nanxin Chen Izhak Shafran Ivan Petrychenko Zhe Chen Johnson Jia Anselm Levskaya Zhenkai Zhu Peter Grabowski Yu Mao Alberto Magni Kaisheng Yao Javier Snaider Norman Casagrande Evan Palmer Paul Suganthan Alfonso Castaño Irene Giannoumis Wooyeol Kim Mikołaj Rybiński Ashwin Sreevatsa Jennifer Prendki David Soergel Adrian Goedeckemeyer Willi Gierke Mohsen Jafari Meenu Gaba Jeremy Wiesner Diana Gage Wright Yawen Wei Harsha Vashisht Yana Kulizhskaya Jay Hoover Maigo Le Lu Li Chimezie Iwuanyanwu Lu Liu Kevin Ramirez Andrey Khorlin Albert Cui Tian LIN Marcus Wu Ricardo Aguilar Keith Pallo ## Contributors Abhishek Chakladar Ginger Perng Elena Allica Abellan Mingyang Zhang Ishita Dasgupta Nate Kushman Ivo Penchev Alena Repina Xihui Wu Tom van der Weide Priya Ponnapalli Caroline Kaplan Jiri Simsa Shuangfeng Li Olivier Dousse Fan Yang Jeff Piper Nathan Ie Rama Pasumarthi Nathan Lintz Anitha Vijayakumar Daniel Andor Pedro Valenzuela Minnie Lui Cosmin Paduraru Daiyi Peng Katherine Lee Shuyuan Zhang Somer Greene Duc Dung Nguyen Paula Kurylowicz Cassidy Hardin Lucas Dixon Lili Janzer Kiam Choo Ziqiang Feng Biao Zhang Achintya Singhal Dayou Du Dan McKinnon Natasha Antropova Tolga Bolukbasi Orgad Keller David Reid Daniel Finchelstein Maria Abi Raad Remi Crocker Peter Hawkins ## Contributors Robert Dadashi Colin Gaffney Ken Franko Anna Bulanova Rémi Leblond Shirley Chung Harry Askham Luis C. Cobo Kelvin Xu Felix Fischer Jun Xu Christina Sorokin Chris Alberti Chu-Cheng Lin Colin Evans Alek Dimitriev Hannah Forbes Dylan Banarse Zora Tung Mark Omernick Colton Bishop Rachel Sterneck Rohan Jain Jiawei Xia Ehsan Amid Francesco Piccinno Xingyu Wang Praseem Banzal Daniel J. Mankowitz Alex Polozov Victoria Krakovna Sasha Brown MohammadHossein Bateni Dennis Duan Vlad Firoiu Meghana Thotakuri Tom Natan Matthieu Geist Sertan Girgin Hui Li Jiayu Ye Ofir Roval Reiko Tojo Michael Kwong James Lee-Thorp Christopher Yew Danila Sinopalnikov Sabela Ramos ## Contributors John Mellor Abhishek Sharma Kathy Wu David Miller Nicolas Sonnerat Denis Vnukov Rory Greig Jennifer Beattie Emily Caveness Libin Bai Julian Eisenschlos Alex Korchemniy Tomy Tsai Mimi Jasarevic Weize Kong Phuong Dao Zeyu Zheng Frederick Liu Fan Yang Rui Zhu Tian Huey Teh Jason Sanmiya Evgeny Gladchenko Nejc Trdin Daniel Toyama Evan Rosen Sasan Tavakkol Linting Xue Chen Elkind Oliver Woodman John Carpenter George Papamakarios Rupert Kemp Sushant Kafle Tanya Grunina Rishika Sinha Alice Talbert Diane Wu Denese Owusu-Afriyie Cosmo Du Chloe Thornton Jordi Pont-Tuset Pradyumna Narayana Jing Li Saaber Fatehi John Wieting Omar Ajmeri Benigno Uria ## Contributors Yeongil Ko Laura Knight Amélie Héliou Ning Niu Shane Gu Chenxi Pang Yeqing Li Nir Levine Ariel Stolovich Rebeca Santamaria-Fernandez Sonam Goenka Wenny Yustalim Robin Strudel Ali Elqursh Charlie Deck Hyo Lee Zonglin Li Kyle Levin Raphael Hoffmann Dan Holtmann-Rice Olivier Bachem Sho Arora Christy Koh Soheil Hassas Yeganeh Siim Põder Mukarram Tariq Yanhua Sun Lucian Ionita Mojtaba Seyedhosseini Pouya Tafti Zhiyu Liu Anmol Gulati Jasmine Liu Xinyu Ye Bart Chrzaszcz Lily Wang Nikhil Sethi Tianrun Li Ben Brown Shreya Singh Wei Fan Aaron Parisi Joe Stanton Vinod Koverkathu Christopher A. Choquette-Choo Yunjie Li TJ Lu Abe Ittycheriah ## Contributors Prakash Shroff Mani Varadarajan Sanaz Bahargam Rob Willoughby David Gaddy Guillaume Desjardins Marco Cornero Brona Robenek Bhavishya Mittal Ben Albrecht Ashish Shenoy Fedor Moiseev Henrik Jacobsson Alireza Ghaffarkhah Morgane Rivière Alanna Walton Clément Crepy Alicia Parrish Zongwei Zhou Clement Farabet Carey Radebaugh Praveen Srinivasan Claudia van der Salm Andreas Fidjeland Salvatore Scellato Eri Latorre-Chimoto Hanna Klimczak-Plucińska David Bridson Dario de Cesare Tom Hudson Piermaria Mendolicchio Lexi Walker Alex Morris Matthew Mauger Alexey Guseynov Alison Reid Seth Odoom Lucia Loher Victor Cotruta Madhavi Yenugula Dominik Grewe Anastasia Petrushkina Tom Duerig Antonio Sanchez Steve Yadlowsky Amy Shen Amir Globerson Lynette Webb ## Contributors Sahil Dua Dong Li Surya Bhupatiraju Dan Hurt Haroon Qureshi Ananth Agarwal Tomer Shani Matan Eyal Anuj Khare Shreyas Rammohan Belle Lei Wang Chetan Tekur Mihir Sanjay Kale Jinliang Wei Ruoxin Sang Brennan Saeta Tyler Liechty Yi Sun Yao Zhao Stephan Lee Pandu Nayak Doug Fritz Manish Reddy Vuyyuru John Aslanides Nidhi Vyas Martin Wicke Xiao Ma Evgenii Eltyshev Nina Martin Hardie Cate James Manyika Keyvan Amiri Yelin Kim Xi Xiong Kai Kang Florian Luisier Nilesh Tripuraneni David Madras Mandy Guo Austin Waters Oliver Wang Joshua Ainslie Jason Baldridge Han Zhang Garima Pruthi Jakob Bauer Feng Yang Riham Mansour ## Contributors Jason Gelman Yang Xu George Polovets Ji Liu Honglong Cai Warren Chen XiangHai Sheng Emily Xue Sherjil Ozair Christof Angermueller Xiaowei Li Anoop Sinha Weiren Wang Julia Wiesinger Emmanouil Koukoumidis Yuan Tian Anand Iyer Madhu Gurumurthy Mark Goldenson Parashar Shah MK Blake Hongkun Yu Anthony Urbanowicz Jennimaria Palomaki Chrisantha Fernando Ken Durden Harsh Mehta Nikola Momchev Elahe Rahimtoroghi Maria Georgaki Amit Raul Sebastian Ruder Morgan Redshaw Jinhyuk Lee Denny Zhou Komal Jalan Dinghua Li Blake Hechtman Parker Schuh Milad Nasr Kieran Milan Vladimir Mikulik Juliana Franco Tim Green Nam Nguyen Joe Kelley Aroma Mahendru Andrea Hu ## Contributors Joshua Howland Ben Vargas Jeffrey Hui Kshitij Bansal Vikram Rao Rakesh Ghiya Emma Wang Ke Ye Jean Michel Sarr Melanie Moranski Preston Madeleine Elish Steve Li Aakash Kaku Jigar Gupta Ice Pasupat Da-Cheng Juan Milan Someswar Tejvi M. Xinyun Chen Aida Amini Alex Fabrikant Eric Chu Xuanyi Dong Amruta Muthal Senaka Buthpitiya Sarthak Jauhari Nan Hua Urvashi Khandelwal Ayal Hitron Jie Ren Larissa Rinaldi Shahar Drath Avigail Dabush Nan-Jiang Jiang Harshal Godhia Uli Sachs Anthony Chen Yicheng Fan Hagai Taitelbaum Hila Noga Zhuyun Dai James Wang Chen Liang Jenny Hamer Chun-Sung Ferng Chenel Elkind Aviel Atias Paulina Lee ## Contributors Vít Listík Mathias Carlen Jan van de Kerkhof Marcin Pikus Krunoslav Zaher Paul Müller Sasha Zykova Richard Stefanec Vitaly Gatsko Christoph Hirnschall Ashwin Sethi Xingyu Federico Xu Chetan Ahuja Beth Tsai Anca Stefanoiu Bo Feng Keshav Dhandhania Manish Katyal Akshay Gupta Atharva Parulekar Divya Pitta Jing Zhao Vivaan Bhatia Yashodha Bhavnani Omar Alhadlaq Xiaolin Li Peter Danenberg Dennis Tu Alex Pine Vera Filippova Abhipso Ghosh Ben Limonchik Bhargava Urala Chaitanya Krishna Lanka Derik Clive Yi Sun Edward Li Hao Wu Kevin Hongtongsak Ianna Li Kalind Thakkar Kuanysh Omarov Kushal Majmundar Michael Alverson Michael Kucharski Mohak Patel Mudit Jain Maksim Zabelin | Contributors Paolo Pelagatti Rohan Kohli Saurabh Kumar Joseph Kim Swetha Sankar Vineet Shah | Gemini App Program Leads | |-----------------------------------------------------------------------------------------------|--------------------------------------------------------------------| | | Amar Subramanya 7 | | | Sissie Hsiao | | | Gemini Program Leads | | | Demis Hassabis | | | Koray Kavukcuoglu | | Lakshmi Ramachandruni | | | Xiangkai Zeng | Overall Gemini App Technical Leads | | Ben Bariach | Adam Sadovsky 8 | | Laura Weidinger | Quoc Le | | Tu Vu | Trevor Strohman 9 | | Alek Andreev | Yonghui Wu 10 | | Antoine He | | | Kevin Hui | Overall Gemini Post-Training Lead | | Sheleem Kashem | Slav Petrov | | | Overall Gemini Technical Leads (equal con- tribution) Jeffrey Dean | | | Oriol Vinyals | The roles are defined as below: - Lead : Individual(s) responsible for the sub-team throughout the project. - Core Contributor : Individual that had significant impact throughout the project. - Contributor : Individual that had contributions to the project and was partially involved with the effort. - Program Lead : Responsible for the organizational aspects of the Gemini effort. - Overall Post-Training Lead : Responsible for the technical direction of post-training. - Overall Technical Lead : Responsible for the technical direction of the overall Gemini effort. Within each role, contributions are equal, and are listed in a randomized order. Ordering within each role does not indicate ordering of the contributions. Gemini is a cross-Google effort, with members from Google DeepMind (GDM), Google Research (GR), Bard/Assistant, Knowledge and Information (K&I), Core ML, Cloud, Labs, and more. We thank Aakanksha Chowdhery, Dustin Tran, Heng-Tze Cheng, Jack W. Rae, Kate Olszewska, Mariko Iinuma, Peter Humphreys, Shashi Narayan, and Steven Zheng for leading the preparation of this report. We also thank our reviewers and colleagues for their valuable discussions and feedback on the report - Alexandra Belias, Ana Ramalho, Anand Rao, Arielle Bier, Danielle Landress, Eleanor Tomlinson, Emily Hossellman, Gaby Pearl, Helen King, Hollie Dobson, Jaclyn Konzelmann, Jennifer 7 Lead, Gemini App Engineering 8 Lead, Gemini App Core Modeling, Eval, Data 9 Co-Lead, Gemini App Serving 10 Co-Lead, Gemini Text Beroshi, Joel Moss, Jon Small, Jonathan Fildes, Kathy Meier-Hellstern, Lisa Patel, Oli Gaymond, Rebecca Bland, Reena Jana, Tessa Lueth, and Tom Lue. Our work is made possible by the dedication and efforts of numerous teams at Google. We would like to acknowledge the support from Abhi Mohan, Adekunle Bello, Aishwarya Nagarajan, Alaa Saade, Alejandro Lince, Alexander Chen, Alexander Kolbasov, Alexander Schiffhauer, Ameya Shringi, Amin Vahdat, Anda Rabatić, Anthonie Gross, Antoine Yang, Anthony Green, Anton Ruddock, Art Khurshudov, Artemis Chen, Arthur Argenson, Avinatan Hassidim, Beiye Liu, Benjamin Schroeder, Bin Ni, Brett Daw, Bryan Chiang, Burak Gokturk, Carl Crous, Carrie Grimes Bostock, Charbel Kaed, Charlotte Banks, Che Diaz, Chris Larkin, Christy Lian, Claire Cui, Clare Bycroft, Corentin Tallec, Daniel Herndon, Dave Burke, David Battle, David Engel, Dipannita Shaw, Donghyun Koo, Doug Ritchie, Dragos Stefanescu, Elissa Wolf, Emre Sargin, Eric Herren, Estella King, Fatema Alkhanaizi, Felix Gimeno, Fernando Pereira, Florent Altché, Gabriel Carvajal, Gaurav Gandhi, George Powell, Goran Pavičić, Harry Richardson, Hassan Wassel, Hongji Li, Idan Szpektor, Igor Ivanisevic, Ivan Jambrešić, Ivan Jurin, Jade Fowler, James Assiene, Jay Yagnik, Jean-bastien Grill, Jeff Seibert, Jenna LaPlante, Jessica Austin, Jianxing Lu, Jim O'Keeffe, Jin Huang, Joe Heyward, Johannes Welbl, John Jumper, Jonathan Caton, Josh Woodward, Joshua Foster, Kathryn Tunyasuvunakool, Katrina Wong, Kavya Kopparapu, Kelvin Nguyen, Kira Yin, Konstantin Sharlaimov, Kun Li, Lee Hong, Lilly Taylor, Longfei Shen, Luc Mercier, Maciej Mikuła, Mania Abdi, Manuel Sanchez, Maria Ines Aranguren, Mario Carlos Cortes III, Matthew Tait, Matthias Lochbrunner, Mehdi Ghissassi, Micah Mosley, Michael Bendersky, Michael Figurnov, Michael Harris, Michael Mathieu, Michael O'Neill, Michael Vorburger, Mihir Paradkar, Nandita Dukkipati, Nathan Carter, Nathan Watson, Neil Rabinowitz, Nikhil Dandekar, Nishant Ranka, Olcan Sercinoglu, Olivier Lacombe, Ottavia Bertolli, Paul Caron, Pranesh Srinivasan, Praveen Kumar, Rahul Sukthankar, Raia Hadsell, Rajagopal Ananthanarayanan, Roberto Lupi, Rosie Zou, Sachin Menezes, Sadegh Jazayeri, Sam Cheung, Sameer Bidichandani, Sania Alex, Sanjiv Kumar, Sara Wiltberger, Sarah Fitzgerald, Saz Basu, Sebastian Nowozin, Shannon Hepburn, Shayne Cardwell,Srinivasan Venkatachary, Sugato Basu, Sundar Pichai, Sundeep Tirumalareddy, Susannah Young, Swetha Vijayaraghavan, Tania Bedrax-Weiss, Taylor Applebaum, Teiva Harsanyi, Terry Chen, Tim Blyth, Ting Liu, Tom Cobley, Tomas Izo, Trystan Upstill, Varun Singhai, Vedrana Klarić Trupčević, Victor Cai, Vladimir Pudovkin, Vu Dang, Wenbo Zhao, Wesley Crow, Wesley Szeng, Xiaodan Song, Yazhou Zu, Ye Tian, Yicong Wang, Yixing Wang, Yossi Matias, Yunlong Jiao, Zachary Jessup, Zhenchuan Pang, Žiga Avsec, Zimeng Yang, and Zoubin Ghahramani. We'd also like to recognize the AlphaCode team, the Borg Scheduling team, the Facilities team, the Gemini Demo Team, the Global Server Ops (GSO) team, the JAX team, the the Legal team, ML SRE team, the ML Supercomputer (MLSC) team, the PartIR team, the Platforms Infrastructure Engineering (PIE) team, and the XLA Compiler team. We thank everyone at Google not explicitly mentioned above, who have shared excitement, given feedback on early Gemini models or created interesting demo uses of Gemini, and worked with or supported the core Gemini team on many aspects of this project. ## 10. Appendix ## 10.1. Gemini Ultra Model Card | Model summary | Model summary | |--------------------|--------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------| | Model architecture | Gemini V1.0 is a new family of state-of-the-art language models, containing variants known as Nano, Pro and Ultra (ordered by parameter count) based on a decoder-only Transformer architecture (Vaswani et al., 2017a). Models are trained to support 32K context length, employing efficient attention mechanisms such as multi-query attention (Shazeer, 2019b). Gemini is trained jointly across image, audio, video and text data for the purpose of building a model with both strong generalist capabilities across modalities alongside cutting-edge understanding and reasoning performance in each respective domain. The post-trained models described in this model card are Gemini API and Gemini Apps model variants (Section 6) built on top of the Gemini Ultra pre-trained model. During the post-training process, additional architectural modifications are also made to support the training of multi-objective reward models for RLHF. | | Input(s) | Text (e.g. a question, a prompt, a document(s) to be summa- rized), images, video, audio files. | | Output(s) | Generated text in response to the input (e.g. an answer to the question, a summary of multiple documents, comparing documents/videos). | | Usage | Usage | | Application | Gemini is designed for accelerating research on language models, for use as a building block in features within Google products, and as a building block for select applications such as Gemini App and Search Generative Experience. Services and products built on top of Gemini Ultra are also being made available to external developers via Google Cloud Vertex API and Google Labs, with additional process and technical safeguards related to safety policies. | | Known Caveats | Gemini should not be made available as part of a general-purpose service or product, or used within a specific downstream appli- cation without a prior assessment and mitigation of the safety and fairness concerns specific to the downstream use. | | | Implementation Frameworks | |-----------------------|------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------| | Hardware & Software | Hardware: Training was conducted on TPUv4 and TPUv5e (Jouppi et al., 2020, 2023). Software: JAX (Bradbury et al., 2018), ML Pathways (Dean, 2021). JAX allows researchers to leverage the latest generation of hardware, including TPUs, for faster and more efficient training of large models. ML Pathways is infrastructure software to support Google's efforts to build artificially intelligent systems capable of generalizing across multiple tasks. This is specially suitable for foundation models, including large language models like the Gemini V1.0 models. Together, JAX and ML Pathways are used as described in Section 3. The 'single controller' programming model of JAX and ML Pathways allows a single Python process to orchestrate the entire training run, dramatically simplifying the development workflow. | | Compute Requirements | Not reported. | | Model Characteristics | Model Characteristics | | Model initialization | Initial pretraining used random initialization. Post-training was initialized from checkpoints obtained at the later stages of pre- training. These checkpoints were fine-tuned using supervised fine-tuning, and subsequently used to initialize reward model training and RLHF. | | Model Status | This is a static model trained on an offline dataset. | | Model Stats | Not reported. | | Data overview | Data overview | | Training Dataset | Gemini models are trained on a dataset that is both multimodal and multilingual. Our pre-training dataset uses data from web documents, books, and code, and includes image, audio, and video data. Refer to Section 4 (Pre-Training Dataset) for further de- tails. | | Evaluation Dataset | We compare pre- and post-trained Gemini Ultra models to a suite of external LLMs and our previous best model PaLM 2 across a series of text-based academic benchmarks covering reasoning, reading comprehension, STEM, and coding. We also evaluate Gemini models on four different mul- timodal capabilities: high-level object recognition using captioning or question-answering tasks such as VQAv2; fine- grained transcription using tasks such as TextVQA and DocVQA requiring the model to recognize low-level details; chart understanding requiring spatial understanding of input layout using ChartQA and InfographicVQA tasks; and multimodal reasoning using tasks such as Ai2D, MathVista and MMMU. | |--------------------------------|----------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------| | Post-training Dataset | For post-training, we first collect a diverse set of prompts that are representative of real-world use cases. We then collect demonstration data of what the model's output should be for a given prompt for supervised fine-tuning. We further collect different possible responses to a given prompt, and collect feedback data over these to train reward models. Refer to Section 6.3 (Post-Training Methods and Data) for further details. | | Evaluation Results | Evaluation Results | | Benchmark Information | See Section 5 (Evaluation). | | Evaluation Results | See Section 5 (Evaluation) and Section 6.4 (Post-Training Hu- man Evaluation). | | Model Usage & Limitations | Model Usage & Limitations | | Sensitive Use | For an analysis of risks and sensitive uses associated with the Gemini models, see Section 7.1 (Impact Assessment). | | Known Limitations | Gemini models can exhibit limitations outlined in Section 7.1 (Impact Assessment). Gemini models should not be used for downstream applications without further analysis of potential harm in the proposed downstream application. | | Ethical Considerations & Risks | Areflection on the potential risks and impacts of the Gemini V1.0 models can be found in Section 7 (Responsible Deployment). For evaluation details for a range of risks, see Section 7.4 (Safety Evaluations). | ## 10.2. Chain-of-Thought Comparisons on MMLU benchmark We contrast several chain-of-thought approaches on MMLU and discuss their results in this section. We proposed a new approach where model produces k chain-of-thought samples, selects the majority vote if the model is confident above a threshold, and otherwise defers to the greedy sample choice. The thresholds are optimized for each model based on their validation split performance. The proposed approach is referred to as uncertainty-routed chain-of-thought . The intuition behind this approach is that chain-of-thought samples might degrade performance compared to the maximum-likelihood decision when the model is demonstrably inconsistent. We compare the gains from the proposed approach on both Gemini Ultra and GPT-4 in Figure 9. We find that Gemini Ultra benefits more from this approach compared to using only chain-of-thought samples. GPT-4's performance improves from 84.2% with greedy sampling to 87.3% with uncertainty-routed chain-of-thought approach with 32 samples, but it already achieves these gains from using 32 chain-of-thought samples. In contrast, Gemini Ultra improves its performance significantly from 84.0% with greedy sampling to 90.0% with uncertainty-routed chain-of-thought approach with 32 samples while it marginally improves to 85.0% with the use of 32 chain-of-thought samples only. Figure 9 | Chain-of-Thought with uncertainty routing on MMLU. <details> <summary>Image 16 Details</summary> ![73389c9b](/v1/image/73389c9b04a5ac32839c3efacf6543642275c18c45c80f5cb482c27e4f2f4c26) ### Visual Description ## Bar Chart: MLU Accuracy Comparison of GPT-4 and Gemini Ultra ### Overview The chart compares the MLU accuracy of two AI models, GPT-4 (gpt-4-0613) and Gemini Ultra, across three evaluation metrics: "Score Eval," "Chain-of-Thought@32," and "Chain-of-Thought@32 (Uncertainty-Routed)." The y-axis represents MLU accuracy (test split) on a scale from 0 to 90, while the x-axis categorizes the evaluation methods. Each model is represented by a distinct color (gray for GPT-4, blue for Gemini Ultra). ### Components/Axes - **Legend**: - Top-center position. - Labels: "GPT-4 (gpt-4-0613)" (gray) and "Gemini Ultra" (blue). - **X-Axis**: - Categories: 1. "Score Eval" (leftmost group). 2. "Chain-of-Thought@32" (middle group). 3. "Chain-of-Thought@32 (Uncertainty-Routed)" (rightmost group). - **Y-Axis**: - Label: "MLU accuracy (test split)". - Scale: 0 to 90 in increments of 10. - **Bars**: - Grouped pairs for each x-axis category (gray for GPT-4, blue for Gemini Ultra). - Numerical values displayed atop each bar. ### Detailed Analysis - **Score Eval**: - GPT-4: 84.21 (gray bar). - Gemini Ultra: 83.96 (blue bar). - **Chain-of-Thought@32**: - GPT-4: 87.29 (gray bar). - Gemini Ultra: 84.99 (blue bar). - **Chain-of-Thought@32 (Uncertainty-Routed)**: - GPT-4: 87.29 (gray bar). - Gemini Ultra: 90.04 (blue bar). ### Key Observations 1. **Gemini Ultra outperforms GPT-4** in the "Chain-of-Thought@32 (Uncertainty-Routed)" category (90.04 vs. 87.29). 2. **GPT-4 maintains higher accuracy** than Gemini Ultra in "Score Eval" (84.21 vs. 83.96) and "Chain-of-Thought@32" (87.29 vs. 84.99). 3. **Uncertainty routing** significantly improves Gemini Ultra's performance in the Chain-of-Thought@32 metric (+5.05 points), while GPT-4's score remains unchanged. ### Interpretation The data suggests that **Gemini Ultra benefits more from uncertainty routing** in complex reasoning tasks (Chain-of-Thought@32), achieving near-perfect accuracy (90.04). In contrast, GPT-4's performance is relatively stable across metrics, indicating consistent but less adaptive handling of uncertainty. The slight edge in "Score Eval" for GPT-4 may reflect its general robustness, but Gemini Ultra's superior performance in uncertainty-routed scenarios highlights its potential for specialized applications requiring nuanced reasoning under ambiguity. </details> ## 10.3. Capabilities and Benchmarking Tasks We use more than 50 benchmarks as a holistic harness to evaluate the Gemini models across text, image, audio and video. We provide a detailed list of benchmarking tasks for six different capabilities in text understanding and generation: factuality, long context, math/science, reasoning, summarization, and multilinguality. We also enumerate the benchmarks used for image understanding, video understanding, and audio understanding tasks. - Factuality : We use 5 benchmarks: BoolQ (Clark et al., 2019), NaturalQuestions-Closed (Kwiatkowski et al., 2019a), NaturalQuestions-Retrieved (Kwiatkowski et al., 2019a), RealtimeQA (Kasai et al., 2022b), TydiQA-noContext and TydiQA-goldP (Clark et al., 2020). - Long Context : We use 6 benchmarks: NarrativeQA (Kočiský et al., 2018), Scrolls-Qasper, Scrolls-Quality (Shaham et al., 2022), XLsum (En), XLSum (non-English languages) (Hasan et al., 2021), and one other internal benchmark. - Math/Science : We use 8 benchmarks: GSM8k (with CoT) (Cobbe et al., 2021), Hendryck's MATHpass@1(Hendrycks et al., 2021b), MMLU (Hendrycks et al., 2021a), Math-StackExchange, Math-AMC 2022-2023 problems, and three other internal benchmarks. - Reasoning : We use 7 benchmarks: BigBench Hard (with CoT) (Srivastava et al., 2022; Suzgun et al., 2022), CLRS (Veličković et al., 2022), Proof Writer (Tafjord et al., 2020), Reasoning-Fermi problems (Kalyan et al., 2021), Lambada (Paperno et al., 2016), HellaSwag (Zellers et al., 2019), DROP (Dua et al., 2019). - Summarization : We use 5 benchmarks: XL Sum (English), XL Sum (non-English languages) (Hasan et al., 2021), WikiLingua (non-English languages), WikiLingua (English) (Ladhak et al., 2020), XSum (Narayan et al., 2018). - Multilinguality : We use 10 benchmarks: XLSum (Non-English languages) (Hasan et al., 2021), WMT22 (Kocmi et al., 2022), WMT23 (Tom et al., 2023), FRMT (Riley et al., 2023), WikiLingua (Non-English languages) (Ladhak et al., 2020), TydiQA (no context), TydiQA (GoldP) (Clark et al., 2020), MGSM (Shi et al., 2023), translated MMLU (Hendrycks et al., 2021a), NTREX (Federmann et al., 2022), FLORES-200 (Team et al., 2022). - Image and Video : We use 9 benchmarks for image understanding: MMMU (Yue et al., 2023), TextVQA (Singh et al., 2019), DocVQA (Mathew et al., 2021), ChartQA (Masry et al., 2022), InfographicVQA (Mathew et al., 2022), MathVista (Lu et al., 2023), AI2D (Kembhavi et al., 2016), VQAv2 (Goyal et al., 2017), XM3600 (Thapliyal et al., 2022) for multi-lingual image understanding, and 6 benchmarks for video understanding: VATEX (Wang et al., 2019) for captioning in two different languages, YouCook2 (Zhou et al., 2018), NextQA (Xiao et al., 2021), ActivityNet-QA (Yu et al., 2019), and Perception Test MCQA (Pătrăucean et al., 2023). - Audio : We use 5 benchmarks including automatic speech recognition (ASR) tasks such as FLEURS (Conneau et al., 2023), VoxPopuli (Wang et al., 2021), Multi-lingual Librispeech (Pratap et al., 2020), and automatic speech translation task such as CoVoST 2 (Wang et al., 2020). ## 10.4. Qualitative Examples This section shows sample qualitative examples from prompting the Gemini Ultra model. Some illustrative examples of multimodal reasoning for image understanding tasks over charts, natural images and memes are shown in Figures 10, 11, 13, 15, 16, and 17. Figure 12 shows an example of image generation capabilities of Gemini Ultra where the user generates an interleaved sequence of image and text to design a blog post. Beyond English, Figure 18 shows model's capability to understand images in a multilingual setting. Gemini models also show strong performance on multimodal image understanding and reasoning in mathematics, as shown in Figures 14, 20 and 21. Figure 22 is an example of complex multimodal reasoning demonstrating how the model composes complex image understanding, code generation, and instruction following capabilities for a given user task. In Figure 19, we see another example of the model being able to generate working code and follow complex user instructions. Finally, Figure 23 shows an example of Gemini Ultra's capability of understanding video by reasoning over temporally connected set of frames. ## 10.4.1. Chart understanding and reasoning over data <details> <summary>Image 17 Details</summary> ![c99ee2c4](/v1/image/c99ee2c4e4d43bb5940cf272ebe723577feba0b7b74aa4b9942ed49aea68a498) ### Visual Description ## Bar Chart: Share of Plastic Waste Management by Region (2019) ### Overview The chart visualizes the distribution of plastic waste management across four regions: **World**, **United States**, **Europe**, and **Asia (excluding China and India)**. Categories include **Landfilled**, **Mismanaged**, **Incinerated**, and **Recycled** plastic waste. Data is aggregated from OECD regions and presented as percentages. --- ### Components/Axes - **X-Axis**: Categories of waste management (Landfilled, Mismanaged, Incinerated, Recycled). - **Y-Axis**: Regions (World, United States, Europe, Asia excl. China/India). - **Legend**: - **Purple**: Landfilled - **Green**: Mismanaged - **Blue**: Incinerated - **Orange**: Recycled - **Data Source**: OECD (2023), calculated by Our World in Data. --- ### Detailed Analysis #### World - **Landfilled**: 49% (Purple) - **Mismanaged**: 22% (Green) - **Incinerated**: 19% (Blue) - **Recycled**: 9% (Orange) #### United States - **Landfilled**: 73% (Purple) - **Mismanaged**: 4% (Green) - **Incinerated**: 19% (Blue) - **Recycled**: 4% (Orange) #### Europe - **Landfilled**: 44% (Purple) - **Mismanaged**: 6% (Green) - **Incinerated**: 38% (Blue) - **Recycled**: 12% (Orange) #### Asia (excl. China/India) - **Landfilled**: 39% (Purple) - **Mismanaged**: 34% (Green) - **Incinerated**: 19% (Blue) - **Recycled**: 8% (Orange) --- ### Key Observations 1. **Landfilling Dominance**: The U.S. has the highest landfill usage (73%), while Europe has the lowest (44%). 2. **Mismanagement Crisis**: Asia (excl. China/India) has the highest mismanaged waste (34%), far exceeding the global average (22%). 3. **Incineration Trends**: Europe leads in incineration (38%), suggesting advanced waste-to-energy infrastructure. 4. **Recycling Deficits**: Recycling rates are lowest in the U.S. (4%) and Asia (8%), with the global average at 9%. --- ### Interpretation - **Regional Disparities**: The U.S. prioritizes landfilling, possibly due to historical infrastructure investments and lax regulations. Europe’s high incineration rate reflects robust waste-to-energy policies. Asia’s mismanagement highlights systemic gaps in waste collection and processing. - **Global Recycling Gap**: The low global recycling rate (9%) underscores a critical need for circular economy policies and infrastructure investment. - **Mismanagement Implications**: Asia’s high mismanagement (34%) correlates with open dumping and ocean pollution, posing severe environmental risks. --- ### Data Source Notes - **OECD Regions**: Definitions include specific country groupings (e.g., OECD EU, OECD Asia). Non-OECD regions (e.g., China, Pacific nations) are excluded from regional aggregates. - **Mismanaged Definition**: Includes open burning, ocean dumping, and unsanitary landfills. --- ### Critical Data Point - **Asia’s Mismanaged Waste (34%)**: This outlier suggests inadequate waste infrastructure and regulatory enforcement, contributing disproportionately to global plastic pollution. </details> ## Model Response (rendered Markdown) The data point that stands out is the United States' landfilled plastic waste, which is 73%. This is significantly higher than the other countries and regions shown. This implies that the United States is not doing as much to recycle or incinerate its plastic waste as other countries and regions. | Country/Region | Landfilled (%) | Mismanaged (%) | Incinerated (%) | Recycled (%) | |------------------------------|------------------|------------------|-------------------|----------------| | World | 49 | 22 | 19 | 9 | | United States | 73 | 4 | 19 | 4 | | Europe | 44 | 6 | 38 | 12 | | Asia (excl. China and India) | 39 | 34 | 19 | 8 | Figure 10 | Solving a problem requiring multimodal chart understanding.The model has to read the text, understand the connections between different data points and reason over them to recommend an interesting point and follow the instructions to generate a markdown table (shown correctly rendered). Source: Our World In Data (Ritchie et al., 2023). ## 10.4.2. Multimodal question answering ## Prompt <details> <summary>Image 18 Details</summary> ![0d39e889](/v1/image/0d39e889afe1ceffc18864c64e04f8b4d03335b45098f473392e08e1f28421ed) ### Visual Description ## Photograph: Garden Scene with Ornamental Plants ### Overview The image depicts a dense, colorful garden bed featuring a variety of ornamental plants. Dominant elements include plants with striking purple and green foliage, interspersed with clusters of red and pink flowers. The composition emphasizes textural contrast between broad-leafed plants and smaller, delicate blooms. ### Components/Axes No textual labels, axes, legends, or numerical data are present in the image. The photograph focuses solely on botanical elements without graphical or diagrammatic annotations. ### Detailed Analysis - **Central Plant**: A cluster of plants with elongated, lanceolate leaves exhibiting a gradient of purple hues (ranging from deep violet to lavender) with prominent dark green veins. Leaf margins appear slightly serrated. - **Surrounding Flora**: - **Top-left**: Small clusters of pink and white flowers (possibly *Impatiens* or similar species) with rounded petals. - **Top-right**: Broad, glossy green leaves (possibly *Caladium* or *Elephant Ear*) with undulating edges. - **Bottom-left**: Bright red flowers (likely *Pelargonium* or *Geranium*) with five petals, surrounded by dark green, lobed leaves. - **Bottom-right**: A groundcover plant with small, variegated leaves (pink and green mottling) and a trailing growth habit. - **Textural Contrast**: The image highlights juxtaposition between the bold, graphic patterns of the purple-leafed plants and the softer, rounded forms of the flowering species. ### Key Observations - No discernible textual elements (labels, legends, or annotations) are visible. - The purple-leafed plant dominates the central and lower portions of the image, suggesting it may be the focal point of the garden design. - Flowering plants are distributed peripherally, creating a natural border effect. ### Interpretation The image likely represents a curated garden bed designed for aesthetic appeal, emphasizing color contrast and textural diversity. The absence of textual information suggests the photograph is intended for visual documentation rather than data representation. The purple-leafed plant’s prominence may indicate its role as a centerpiece, while the surrounding flora provides complementary color and form. Without explicit labels, the identification of plant species relies on morphological characteristics (e.g., leaf shape, flower structure). **Note**: This analysis is based solely on visible botanical features. No numerical data, trends, or structured information (e.g., charts, tables) are present in the image. </details> Do you know what it this plant? How do I best take care of it? ## Model Response This is a Persian shield plant. It is a tropical plant that is native to Southeast Asia. It is a popular houseplant because it is easy to care for and has beautiful purple leaves. Persian shield plants prefer bright, indirect light. They can tolerate some direct sunlight, but too much direct sunlight can scorch their leaves. They also prefer warm temperatures and high humidity. Persian shield plants need to be watered regularly, but they should not be allowed to sit in water. The soil should be kept moist but not soggy. They also benefit from being misted regularly. Persian shield plants can be fertilized every two weeks during the growing season. A balanced fertilizer is a good choice. Persian shield plants are susceptible to pests, such as mealybugs and spider mites. These pests can be controlled with insecticidal soap or neem oil. Persian shield plants can be propagated by stem cuttings. The cuttings should be taken in the spring or summer and should be rooted in water or a moist potting mix. Figure 11 | Answering a multimodal information-seeking query. The model is able to recognize the specific plant shown in the image and provide information about it. The model shows robustness to typos as it is able to understand the user question despite them. Source: photo taken by an author from the Gemini team. ## 10.4.3. Interleaved image and text generation ## Prompt Please create a blog post about a trip to New York, where a dog and his owner had lots of fun. Include a few pictures of the dog posing happily at different landmarks. ## Model Response Hi, I'm Cooper. I'm a 2 year old Goldendoodle who loves to travel. Last month, my family and I went to New York City. It was my first time in the Big Apple, and I had a blast! We stayed in a hotel near Times Square. It was so much fun to see all the bright lights and people. We went to see a Broadway show, and I even got to meet some of the actors. One of my favorite parts of New York City was Central Park. It was so big and beautiful. I loved running around and playing fetch. We also went to the Statue of Liberty and the Empire State Building. I was so excited to see all the famous landmarks. I had so much fun in New York City. It's definitely one of my favorite places to travel. I can't wait to go back someday! Figure 12 | Generating interleaved text and images. The model is able to follow the instructions of generating a blog post with images closely related to the text and with dog images showing high levels of consistency across all images. <details> <summary>Image 19 Details</summary> ![cda992f0](/v1/image/cda992f05dfd9cbea46f5a044549144a2295ffb4e12477cc5f8417704fdf5113) ### Visual Description ## Photograph: Three Scenes of a Curly-Coated Dog ### Overview The image is a triptych of three distinct photographs featuring a single curly-coated dog (likely a Labradoodle or similar breed) in different environments. Each panel captures the dog in a unique setting, with no textual elements present in the image. ### Components/Axes - **Panel 1 (Left)**: Urban street scene with a yellow taxi in the background. - **Panel 2 (Center)**: Autumnal park pathway with blurred trees and pedestrians. - **Panel 3 (Right)**: Waterfront cityscape with a skyline and body of water. ### Detailed Analysis #### Panel 1 (Urban Street) - **Subject**: Dog sitting on a wet asphalt road, facing the camera. - **Details**: - Dog has a light brown, curly coat with a red collar. - Tongue slightly out, eyes focused on the viewer. - Background: Yellow taxi with headlights on, blurred city buildings. - Lighting: Overcast, diffused light. #### Panel 2 (Autumn Park) - **Subject**: Dog sitting on a paved pathway, facing the camera. - **Details**: - Dog’s coat appears slightly darker, with autumn leaves scattered on the ground. - Background: Blurred trees with yellow/orange foliage, two indistinct pedestrians. - Lighting: Soft, natural daylight with warm tones. #### Panel 3 (Waterfront Cityscape) - **Subject**: Dog sitting on a concrete ledge, back to the camera, facing a city skyline. - **Details**: - Dog’s coat is uniformly light brown, with a calm posture. - Background: Modern skyscrapers (including a prominent tower resembling One World Trade Center), calm water, and clear blue sky. - Lighting: Bright, high-contrast daylight. ### Key Observations 1. **Consistency in Subject**: The dog’s breed, coat texture, and collar (red in Panel 1, absent in others) remain consistent across panels. 2. **Environmental Contrast**: - Panel 1 emphasizes urban hustle (taxi, wet road). - Panel 2 highlights seasonal tranquility (autumn leaves, blurred figures). - Panel 3 conveys urban grandeur (skyline, waterfront). 3. **Lighting Variations**: Each panel uses distinct lighting to evoke mood—diffused urban light, warm autumn tones, and stark cityscape contrast. ### Interpretation The triptych likely aims to showcase the dog’s adaptability to diverse environments, from bustling cities to serene parks. The absence of text suggests the focus is on visual storytelling, emphasizing the dog’s calm demeanor across contrasting settings. The red collar in Panel 1 may symbolize ownership or identity, while its absence in later panels could imply a narrative of exploration or freedom. The skyline in Panel 3 might represent aspiration or a sense of scale, contrasting with the intimate, grounded perspectives of the other panels. No textual data, charts, or diagrams are present in the image. All descriptions are based on visual analysis. </details> ## 10.4.4. Image understanding and reasoning ## Prompt <details> <summary>Image 20 Details</summary> ![7284f9c5](/v1/image/7284f9c52b44d161122817a31b1ae1eb204c002dc2e8cfc99c0f5f7384fb5f1b) ### Visual Description ## Diagram: Sequence of Geometric Shapes with Question Mark ### Overview The image displays a horizontal sequence of three geometric shapes (triangle, square, pentagon) followed by a question mark. No numerical data, labels, or additional annotations are present. ### Components/Axes - **Shapes**: 1. Triangle (3 sides) 2. Square (4 sides) 3. Pentagon (5 sides) - **Question Mark**: Positioned to the right of the pentagon, suggesting an inquiry about the next element in the sequence. ### Detailed Analysis - **Shape Progression**: - Triangle (3 sides) → Square (4 sides) → Pentagon (5 sides). - Each subsequent shape increases by one side. - **Question Mark**: Acts as a terminal symbol, implying a request to identify the next shape in the sequence. ### Key Observations - The sequence follows a clear numerical pattern: incrementing side counts (3 → 4 → 5). - The question mark introduces ambiguity, as no explicit rule or context is provided to confirm the pattern’s continuation. ### Interpretation The image likely represents a pattern recognition task. The progression from triangle to pentagon suggests a logical sequence where the next shape would be a hexagon (6 sides). The question mark emphasizes uncertainty, inviting the viewer to infer the rule governing the sequence. Without additional context (e.g., labels, constraints), the interpretation relies solely on the observed numerical increment. **Note**: No textual labels, axes, or numerical values are present beyond the question mark. The analysis is based purely on the visual arrangement and symbolic meaning of the shapes. </details> Look at this sequence of three shapes. What shape should come as the fourth shape? Explain your reasoning with detailed descriptions of the first shapes. ## Model Response The fourth shape should be a hexagon. The first shape is a triangle, the second shape is a square, and the third shape is a pentagon. The number of sides in each shape is increasing by one Figure 13 | Solving a multimodal reasoning problem.The model is able to recognize shapes in the image, understand their properties and reason about the relationship between them to predict the next object. Source: photo taken by an author from the Gemini team. ## 10.4.5. Geometrical reasoning <details> <summary>Image 21 Details</summary> ![f8af0352](/v1/image/f8af035268a3a6f2343af321668c4f52a461389e3fe06402b50b5422e6b038b7) ### Visual Description ## Screenshot: Mathematical Problem and Solution ### Overview The image contains a two-part technical document: 1. **Prompt Section**: A geometric problem involving a parallelogram with labeled dimensions and an area constraint. 2. **Model Response Section**: A step-by-step algebraic solution to the problem. --- ### Components/Axes #### Prompt Section - **Diagram Labels**: - Base of parallelogram: `x + 15` (top edge). - Height of parallelogram: `x` (vertical dashed line with a right-angle symbol). - **Textual Content**: - Problem statement: *"Find the height of the parallelogram given its area with 100 square units."* #### Model Response Section - **Textual Content**: - Explanation of the area formula: *"The area of the parallelogram is equal to the product of the base and the height."* - Equation setup: `100 = (x + 15)x`. - Quadratic equation: `x² + 15x - 100 = 0`. - Roots of the equation: `x₁ = 5` and `x₂ = -20`. - Final answer: `5` (discarding the negative root). --- ### Detailed Analysis #### Prompt Section - The parallelogram diagram visually represents the relationship between the base (`x + 15`) and height (`x`). - The area constraint (`100` square units) is explicitly stated. #### Model Response Section 1. **Equation Derivation**: - The area formula `Area = base × height` is applied: `100 = (x + 15) × x`. - Expanded to quadratic form: `x² + 15x - 100 = 0`. 2. **Root Calculation**: - Solved using factoring or quadratic formula (not explicitly shown but implied). - Roots: `x₁ = 5` (valid) and `x₂ = -20` (invalid, as height cannot be negative). 3. **Final Answer**: - Height = `5` units. --- ### Key Observations - The problem tests understanding of geometric area formulas and algebraic problem-solving. - The negative root (`x₂ = -20`) is correctly discarded, emphasizing domain-specific constraints (height > 0). - The solution assumes integer roots, though the quadratic could have non-integer solutions if the discriminant were not a perfect square. --- ### Interpretation - **Mathematical Rigor**: The solution demonstrates correct application of the area formula and quadratic solving techniques. - **Logical Consistency**: The rejection of the negative root aligns with real-world constraints (physical dimensions cannot be negative). - **Assumptions**: The problem implicitly assumes the height is an integer, which may not always hold in generalized cases. - **Educational Value**: Highlights the importance of contextual reasoning (e.g., discarding non-physical solutions). --- **Note**: No numerical trends, charts, or data tables are present. The image focuses on textual problem-solving and algebraic reasoning. </details> Figure 14 | Solving a geometrical reasoning task. The model shows good understanding of the task and is able to provide meaningful reasoning steps despite slightly unclear instructions. Source: Lu et al. (2021). 10.4.6. Information seeking about objects <details> <summary>Image 22 Details</summary> ![c7c60983](/v1/image/c7c6098382af4b4c394ae71b59f28c8936279073b3f4537c348a643a147bf056) ### Visual Description ## Screenshot: Prompt and Model Response ### Overview The image contains two distinct sections: 1. **Prompt Section**: - A title labeled "Prompt" in a dark gray header. - Two images side-by-side: - Left: A grayscale photograph of the Moon with visible craters and maria. - Right: A close-up of a human hand holding a white golf ball, with a blurred industrial ceiling in the background. - Text below the images: "Find a connection between these. Hint: think about historical events." 2. **Model Response Section**: - A title labeled "Model Response" in a dark gray header. - Text: "The Moon is the only celestial body in which humans have played golf. In 1971, the Apollo 14 crew hit two golf balls on the lunar surface." ### Components/Axes - **Textual Elements**: - Titles: "Prompt" and "Model Response" (dark gray headers). - Labels: "Find a connection between these. Hint: think about historical events." - Response Content: Explanation of lunar golf by Apollo 14 crew. ### Detailed Analysis - **Prompt Section**: - **Moon Image**: Standard lunar surface photograph (no labels or annotations). - **Golf Ball Image**: Human hand holding a white Titleist golf ball (brand logo partially visible). Background shows a grid-patterned ceiling with fluorescent lighting. - **Text**: Direct instruction to identify a historical connection between the two images. - **Model Response Section**: - **Text**: Explicitly states the historical event (Apollo 14 lunar golf) and contextualizes it as the only instance of golf played on a celestial body. ### Key Observations - The connection hinges on the **Apollo 14 mission** (1971), where astronauts played golf on the Moon. - The golf ball in the image matches the historical event described in the model response. - No numerical data, charts, or diagrams are present. ### Interpretation The image juxtaposes the Moon (a celestial body) with a golf ball to prompt a historical association. The model response clarifies that this refers to the **Apollo 14 mission**, where astronaut Alan Shepard famously hit golf balls on the lunar surface using a makeshift club. This event underscores human ingenuity and the cultural significance of space exploration milestones. The absence of additional data suggests the focus is on contextual storytelling rather than quantitative analysis. </details> Figure 15 | Solving a puzzle using multimodal inputs. The model recognizes the objects in the images and identifies a commonality that connects the two objects. Source: photo taken by an author from the Gemini team. ## 10.4.7. Multimodal reasoning based on visual cues ## Prompt <details> <summary>Image 23 Details</summary> ![5f5ffd10](/v1/image/5f5ffd109d32dd758e87321573440e5e5a38f1417ce8ba4ff73c58444e5ca3ce) ### Visual Description ## Photograph: Nighttime Urban Street Scene ### Overview The image depicts a bustling city street at night, characterized by towering skyscrapers, illuminated windows, and active pedestrian and vehicular traffic. The scene is dominated by artificial lighting from streetlights, building interiors, and vehicle headlights. A crosswalk spans the foreground, with pedestrians and cyclists navigating the intersection. Construction barriers and traffic signals are visible, suggesting ongoing urban activity. ### Components/Axes - **Foreground**: Crosswalk with white striped pavement, orange-and-white construction barriers, and a pedestrian mid-crossing. - **Midground**: Vehicles (black SUV, silver sedan), cyclists, and pedestrians. Traffic lights (red signal active). - **Background**: High-rise buildings with mixed lighting patterns (e.g., Empire State Building silhouette with illuminated upper floors). Streetlights cast diffuse glows. - **Sky**: Dark, indicating nighttime. ### Detailed Analysis - **Buildings**: - Left: A partially constructed high-rise with exposed scaffolding and bright interior lights. - Center: Empire State Building (distinctive spire) with warm yellow lighting. - Right: Modern glass-and-steel skyscrapers with sporadic window illumination. - **Vehicles**: - Black SUV stopped at the crosswalk. - Silver sedan partially visible on the right. - **Pedestrians**: - Diverse group crossing the street, including a person on a bicycle. - Individuals waiting near a bus stop or kiosk (orange structure with unreadable signage). - **Infrastructure**: - Streetlights with curved arms, emitting bright white light. - Traffic signals (red light active). - Construction barriers with reflective stripes. ### Key Observations - No discernible textual elements (signs, labels, or annotations) are visible in the image. - Light pollution from buildings and vehicles creates a hazy glow, reducing visibility of distant details. - The Empire State Building’s silhouette is a focal point, anchoring the scene geographically. ### Interpretation This image captures the dynamic energy of a metropolitan area after dark, emphasizing the interplay between human activity and urban infrastructure. The absence of textual elements suggests the focus is on visual storytelling rather than informational content. The construction barriers and active crosswalk imply ongoing development and pedestrian prioritization in the area. The Empire State Building’s presence hints at a New York City setting, though no explicit identifiers confirm this. **Note**: No textual data (labels, legends, or annotations) was extractable from the image. The description is based solely on visible spatial and contextual cues. </details> Do you know the precise location where this image was taken? ## Model Response This image was taken in New York City. The Empire State Building is visible in the background. The street in the foreground is 8th Avenue. The cross street is West 34th Street. Figure 16 | Identifying the objects in the image (the Empire State Building) and recognizing what those are even with small levels of visual distortion in the image. Based on the image, the model is also able to correctly identify the precise location of the person taking the photo. Source: photo taken by an author from the Gemini team. ## 10.4.8. Multimodal humor understanding ## Prompt <details> <summary>Image 24 Details</summary> ![30268f7f](/v1/image/30268f7f1d294ef7abb99938329d9658f7dd6a44df7144ee98b96e83ef5c9e85) ### Visual Description ## Meme: "Gaming Performance vs. Monitor Capabilities" ### Overview A two-panel cartoon meme contrasting gaming performance metrics (FPS) with monitor capabilities (Hz). The top panel shows a stick figure enthusiastically reaching for a "Game at 300 FPS" ball, while the bottom panel reveals a smaller stick figure being restrained by a pink blob labeled "75 Hz Monitor," with the FPS text partially obscured. ### Components/Axes - **Panel 1 (Top)**: - **Stick Figure**: Neutral expression, arms outstretched toward a yellow ball. - **Yellow Ball**: Labeled "Game at 300 FPS" in bold black text. - **Background**: Light blue gradient. - **Panel 2 (Bottom)**: - **Stick Figure**: Sweat drop on forehead, arms still reaching but restrained. - **Pink Blob**: Labeled "75 Hz Monitor" in bold black text, gripping the stick figure from behind. - **Yellow Ball**: Labeled "Game at FPS" (text cut off at "FPS"). - **Background**: Darker blue gradient. ### Detailed Analysis - **Textual Elements**: - "Game at 300 FPS" (top panel, yellow ball). - "Game at FPS" (bottom panel, yellow ball; text truncated). - "75 Hz Monitor" (bottom panel, pink blob). - **Visual Elements**: - Sweat drop on the stick figure in the bottom panel, indicating stress. - Pink blob’s grip on the stick figure, symbolizing restriction. ### Key Observations 1. The top panel portrays unbridled excitement for high FPS (300 FPS). 2. The bottom panel introduces a constraint: a 75 Hz monitor, which cannot display frame rates above 75 FPS, rendering the 300 FPS irrelevant. 3. The truncated "Game at FPS" text in the bottom panel emphasizes the incompatibility between the game’s performance and the monitor’s capabilities. ### Interpretation The meme humorously critiques the mismatch between high-performance gaming hardware (capable of 300 FPS) and budget monitors limited to 75 Hz refresh rates. The stick figure’s futile effort to reach the 300 FPS ball while restrained by the 75 Hz monitor symbolizes the frustration of investing in powerful hardware only to be bottlenecked by subpar display technology. The sweat drop and partial text truncation reinforce the idea of wasted potential and technical limitations. **Note**: No numerical data or structured tables are present; the image relies on symbolic representation and text labels to convey its message. </details> Can you explain this meme? ## Model Response The meme is about a person who is playing a game at 300 FPS, but their monitor is only 75Hz. The person is trying to catch the game, but it is too fast for their monitor to display. The meme is funny because it is relatable to anyone who has ever played a game on a monitor that is not fast enough. Figure 17 | Explanation of humor in a meme. The model is showing the ability to not only describe what is happening in the image but also what it means even though the cultural context is not mentioned explicitly in the image or the prompt. Source: Hwang and Shwartz (2023). ## 10.5. Commonsense reasoning in a multilingual setting <details> <summary>Image 25 Details</summary> ![e49e7b8b](/v1/image/e49e7b8b536094f5142bc769e6f102d70d7096c055fb3fcc1cdbe82f0e66a773) ### Visual Description ## Diagram: The Basic Chinese Family Tree ### Overview The image depicts a hierarchical family tree diagram illustrating Chinese familial relationships and terminology. It uses circular nodes connected by lines to represent generational and relational connections, with labels in both Chinese characters and English transliterations. ### Components/Axes - **Title**: "The Basic Chinese Family Tree" (center-top). - **Nodes**: - **Grandparents**: - Father’s side: 爷爷 (Yéye, grandfather) and 奶奶 (Nǎinai, grandmother). - Mother’s side: 外公 (Wǎigōng, paternal grandfather) and 外婆 (Wǎipó, paternal grandmother). - **Parents**: - 爸爸 (Bàba, father) and 妈妈 (Māma, mother). - **Children**: - 弟弟 (Dìdì, younger brother), 妹妹 (Mèimei, younger sister), 我 (Wǒ, "I/me"), 哥哥 (Gēgē, older brother), 姐姐 (Jiějie, older sister). - **Color Coding**: - Blue circles for all nodes. - Red rectangular box highlighting the node labeled "我" (Wǒ, "I/me"). - **Spatial Layout**: - Grandparents at the top (two pairs: father’s and mother’s sides). - Parents in the middle generation. - Children at the bottom generation. - "我" (Wǒ) is centrally positioned in the bottom row, enclosed in a red box. ### Content Details - **Textual Labels**: - All nodes include Chinese characters (e.g., 爷爷, 奶奶) and their English transliterations (e.g., Yéye, Nǎinai). - No numerical data or quantitative values present. - **Relationships**: - Lines connect grandparents to parents, and parents to children, indicating direct lineage. - Siblings (e.g., Dìdì, Mèimei, Gēgē, Jiějie) are grouped under the same parent nodes. ### Key Observations 1. **Generational Hierarchy**: The chart strictly follows a top-down structure, with grandparents at the apex, parents in the middle, and children at the base. 2. **Cultural Specificity**: Terms like 外公 (Wǎigōng) and 外婆 (Wǎipó) denote maternal grandparents, reflecting Chinese kinship terminology’s emphasis on distinguishing parental sides. 3. **User-Centric Focus**: The red box around "我" (Wǒ) explicitly marks the user’s perspective, anchoring relational terms (e.g., 爷爷 vs. 外公) to their position in the family. ### Interpretation This diagram serves as a pedagogical tool to clarify Chinese familial address systems, which differ significantly from Western norms. Key insights: - **Relational vs. Generational Terms**: Chinese terms often combine both relational (e.g., 爷爷 for father’s father) and generational roles, requiring contextual understanding. - **Maternal vs. Paternal Distinction**: Terms like 外公 (paternal grandfather) and 爷爷 (father’s father) are differentiated, highlighting cultural emphasis on lineage. - **User Positioning**: The red box around "我" (Wǒ) underscores that familial terms are always relative to the speaker’s position, a critical nuance for accurate communication. The chart does not contain numerical data or trends but provides a structural framework for understanding Chinese kinship terminology. Its simplicity ensures clarity, though real-world applications may involve additional complexities (e.g., half-siblings, step-relatives) not depicted here. </details> Figure 18 | Common-sense reasoning in images. The model is able to understand the relationships represented in the graphs and reason about them in a multilingual setting. Source: image created by an author from the Gemini team. ## 10.5.1. Reasoning and code generation ## Prompt Create a web app called "Opossum Search": 1. Every time you make a search query, it should redirect you to a google search with the same query, but the word opossum before it. 2. It should be visually similar to Google search, 3. Instead of the google logo, it should have a picture of an opossum from the internet. 4. It should be a single html file, no separate js or css files. 5. It should say "Powered by google search" in the footer. ## Model Response (rendered code) ## Here is the code for Opossum Search: ``` 5. It should say "Powered by google search" in the footer. ``` Figure 19 | Writing code for a website based on user request. The model follows the instructions and requirements defined by the user and converts them to functioning code. <details> <summary>Image 26 Details</summary> ![094b2dfc](/v1/image/094b2dfcf2e25dd6b48cf511a0105600bff8dafd0f5662145b279cc2b087e3ac) ### Visual Description ## Screenshot: Code Snippet for Opossum-Themed Google Search Redirect ### Overview The image displays a code snippet for a simple web application that mimics Google Search functionality but prepends the word "opossum" to user queries. The code includes HTML structure, JavaScript logic, and explanatory text describing the app's behavior. ### Components/Axes - **HTML Structure**: - `<footer>`: Contains the text "Powered by Google Search" (lines 62-64). - `<script>`: Encapsulates JavaScript logic (lines 66-76). - `<body>`: Closes the document body (line 77). - **JavaScript Variables/Functions**: - `searchInput`: Selects the search input field (line 67). - `searchButton`: Selects the search button (line 68). - `query`: Captures the user's input value (line 71). - Event listener attached to `searchButton` for "click" events (line 70). - Conditional redirection logic (lines 72-74). ### Detailed Analysis 1. **HTML Elements**: - Line 62: `<footer>` opens the footer section. - Line 63: Text "Powered by Google Search" is displayed. - Line 64: `</footer>` closes the footer. - Line 66: `<script>` opens the script block. - Line 77: `</body>` closes the document body. 2. **JavaScript Logic**: - Lines 67-68: Variables `searchInput` and `searchButton` are initialized using `document.querySelector`. - Line 70: An event listener is added to `searchButton` to trigger a function on click. - Line 71: The user's query is extracted from `searchInput.value`. - Line 72: A conditional checks if `query` exists. - Line 73: Redirects to `https://www.google.com/search?q=opossum+${query}` if the condition is met. - Line 76: `</script>` closes the script block. 3. **Explanatory Text**: - Describes the app's purpose: mimicking Google Search with an opossum logo and redirecting queries prefixed with "opossum". - Notes the app is "powered by Google Search" as indicated in the footer. ### Key Observations - The code uses basic DOM manipulation (`querySelector`, `addEventListener`) and template literals for URL construction. - The opossum-themed redirect is a playful twist on Google's branding, likely referencing internet memes. - The footer attribution to Google Search suggests the app relies on Google's infrastructure. ### Interpretation This code demonstrates a minimal web app that humorously alters user search queries by prepending "opossum" before redirecting to Google. The opossum reference may allude to the "opossum" meme, where users jokingly add the word to queries for absurd results. The app's simplicity highlights fundamental web development concepts like event handling and URL manipulation. The footer's "Powered by Google Search" disclaimer underscores reliance on Google's backend, while the opossum logo (not visible in the code) implies a visual branding element outside the provided snippet. The conditional redirection ensures the app only acts when a query is entered, preventing empty redirects. </details> <details> <summary>Image 27 Details</summary> ![5e918769](/v1/image/5e91876908c06f22d83fbef1e077c3ce43dd2273d49edda566ef3110a7b6bbc6) ### Visual Description ## Screenshot: Opossum Search Website ### Overview The image depicts a minimalist, single-page website interface with a dark-themed design. The layout includes a header, central content area, and footer, all structured to emphasize a search functionality themed around opossums. ### Components/Axes 1. **Header**: - Dark gray banner with white text: "Rendered Website" (top-left corner). 2. **Main Content**: - Black rectangular banner with centered white text: "Opossum Search". - Embedded image of an opossum (white fur, black markings) sitting on a white surface, positioned below the banner. - Search bar with placeholder text: "Search the web" (gray placeholder text). - Gray search button with black text: "Search". 3. **Footer**: - Dark gray banner with centered white text: "Powered by Google Search". ### Detailed Analysis - **Text Elements**: - All text is in English, using a sans-serif font. - No non-English text or numerical data present. - **Visual Hierarchy**: - Header and footer banners use dark gray for contrast against the white background. - Central banner uses black for emphasis, with the opossum image reinforcing the theme. - **UI Elements**: - Search bar and button are centrally aligned, suggesting primary user interaction points. - Placeholder text in the search bar is generic ("Search the web"), indicating a placeholder for user input. ### Key Observations - The opossum image is the only visual element, serving as a thematic anchor for the website's purpose. - No interactive elements beyond the search bar and button are visible. - The design prioritizes simplicity, with no additional navigation or decorative elements. ### Interpretation This website appears to be a conceptual or prototype search engine focused on opossum-related content, leveraging Google Search as its backend. The opossum image and themed title suggest a niche or educational purpose, possibly for wildlife enthusiasts or researchers. The minimalist design implies a focus on functionality over aesthetics, with the search bar as the sole user interaction point. The footer attribution to Google Search indicates reliance on external infrastructure, which may imply scalability or integration with existing search technologies. </details> ## 10.5.2. Mathematics: Calculus ## Prompt Find the derivative of sinh 𝑥 + cosh 𝑦 = 𝑥 + 𝑦 . ## Model Response (rendered latex) We have that 𝑑 𝑑𝑥 sinh 𝑥 = cosh 𝑥 and 𝑑 𝑑𝑥 cosh 𝑦 = sinh 𝑦 𝑑𝑦 𝑑𝑥 . Therefore, $$\cosh x + \sinh y { \frac { d y } { d x } } = 1 + { \frac { d y } { d x } } .$$ $${ \frac { d y } { d x } } = { \frac { 1 - \cosh x } { \sinh y - 1 } } .$$ Final Answer: The final answer is 1 - cosh 𝑥 sinh 𝑦 - 1 . Figure 20 | Solving a calculus problem. The model is able to get a solution to a calculus problem with step-by-step explanation and correctly defined LaTeX equations. Source: question is provided by Macmillan Learning. Solving for 𝑑𝑦 𝑑𝑥 , we find that ## 10.6. Multi-step reasoning and mathematics ## Prompt In the year 2018 factory A produced goods worth 500 million forints, while factory B produced goods worth 400 million forints. According to their long-term plans, factory A will increase production by 5% each year, while factory B will increase production by 6% per year. The above plans were published on an economy website. A debate started in the comment section of the article: one user claimed that the difference between the volumes of production between the two factories would get smaller and smaller in the next couple of years. Calculate the missing values of the table below and show that the above claim is not true. ``` Header: | 2018 | 2019 | 2020 | 2021 | Production volume of factory A (mln) | 500 | | | | | Production volume of factory B (mln) | 400 | | | | | ``` ## Model Response (rendered Markdown) | Year | Production volume of factory A (mln) | Production volume of factory B (mln) | Difference (mln) | |--------|----------------------------------------|----------------------------------------|--------------------| | 2018 | 500 | 400 | 100 | | 2019 | 525 | 424 | 101 | | 2020 | 551.25 | 449.44 | 101.81 | | 2021 | 578.81 | 476.41 | 102.4 | The production volume of factory A in 2019 is 500 * 1.05 = 525 million forints. The production volume of factory B in 2019 is 400 * 1.06 = 424 million forints. The difference in production volume in 2019 is 525 - 424 = 101 million forints. The production volume of factory A in 2020 is 525 * 1.05 = 551.25 million forints. The production volume of factory B in 2020 is 424 * 1.06 = 449.44 million forints. The difference in production volume in 2020 is 551.25 - 449.44 = 101.81 million forints. The production volume of factory A in 2021 is 551.25 * 1.05 = 578.81 million forints. The production volume of factory B in 2021 is 449.44 * 1.06 = 476.41 million forints. The difference in production volume in 2021 is 578.81 - 476.41 = 102.4 million forints. As you can see, the difference in production volume between the two factories is actually increasing, not decreasing. Therefore, the claim that the difference between the volumes of production between the two factories would get smaller and smaller in the next couple of years is not true. Figure 21 | Solving a multi-step math problem. The model is able to understand the task and generate a markdown table with correctly calculated values. It also explicitly follows the instructions to show where the numbers come from and answer the question given in the task. Source: Oktatási Hivatal (2023, p. 20) ## 10.6.1. Complex image understanding, code generation, and instruction following ## Prompt <details> <summary>Image 28 Details</summary> ![c2e97b38](/v1/image/c2e97b38dd7f3d0c9baafdb51ed9720ef19a35496e91bbb0772a61f2cba883e8) ### Visual Description ## Multi-Subplot Visualization: Mathematical and Data Trends ### Overview The image contains four distinct subplots arranged in a 2x2 grid, each depicting different mathematical or data trends. The subplots include a sine wave, a series of vertical spikes, an exponential growth curve, and a 3D surface plot. All subplots use a consistent x-axis range (0–10) and y-axis scales varying by subplot. The 3D plot introduces a z-axis and a color gradient. --- ### Components/Axes #### Top-Left Subplot (Sine Wave) - **X-axis**: Labeled "0–10" with ticks at 0, 2, 4, 6, 8, 10. - **Y-axis**: Labeled "-1.0 to 1.0" with ticks at -1.0, -0.5, 0.0, 0.5, 1.0. - **Legend**: None explicitly visible. The curve is a single blue line. - **Trend**: A periodic sine wave with two peaks (at x=1 and x=9) and a trough (at x=5). Crosses zero at x=3 and x=7. #### Top-Right Subplot (Vertical Spikes) - **X-axis**: Labeled "0–10" with ticks at 0, 2, 4, 6, 8, 10. - **Y-axis**: Labeled "-40 to 40" with ticks at -40, -20, 0, 20, 40. - **Legend**: None explicitly visible. The spikes are sharp vertical lines at x=2, 4, 6, 8. - **Trend**: Four vertical spikes centered at x=2, 4, 6, 8, with y-values reaching ±20. The spikes are symmetric around the x-axis. #### Bottom-Left Subplot (Exponential Growth) - **X-axis**: Labeled "0–10" with ticks at 0, 2, 4, 6, 8, 10. - **Y-axis**: Labeled "0 to 20,000" with ticks at 0, 5,000, 10,000, 15,000, 20,000. - **Legend**: None explicitly visible. The curve is a single blue line. - **Trend**: A rapidly increasing exponential curve starting near 0 at x=0 and rising to ~20,000 at x=10. #### Bottom-Right Subplot (3D Surface Plot) - **X-axis**: Labeled "0–1" with ticks at 0, 0.2, 0.4, 0.6, 0.8, 1.0. - **Y-axis**: Labeled "0–1" with ticks at 0, 0.2, 0.4, 0.6, 0.8, 1.0. - **Z-axis**: Labeled "-0.2 to 0.8" with ticks at -0.2, -0.1, 0.0, 0.1, 0.2, 0.3, 0.4, 0.5, 0.6, 0.7, 0.8. - **Legend**: Located in the top-right corner of the subplot. Colors correspond to z-values: purple (low), green (mid), yellow (high). - **Trend**: A saddle-shaped surface with a minimum at (x=0.5, y=0.5, z≈-0.2) and a maximum at (x=1, y=1, z≈0.8). The gradient transitions from purple (low z) to yellow (high z). --- ### Detailed Analysis #### Top-Left Subplot (Sine Wave) - **Key Data Points**: - Peaks: (1, 1.0), (9, 1.0) - Trough: (5, -1.0) - Zero crossings: (3, 0.0), (7, 0.0) - **Uncertainty**: Approximate values due to lack of grid lines. Peaks and troughs are visually estimated. #### Top-Right Subplot (Vertical Spikes) - **Key Data Points**: - Spikes at x=2, 4, 6, 8 with y-values of ±20. - No intermediate values between spikes. - **Uncertainty**: Exact y-values are approximate; spikes are sharp and symmetric. #### Bottom-Left Subplot (Exponential Growth) - **Key Data Points**: - At x=0: y≈0 - At x=10: y≈20,000 - Intermediate values: Exponential growth (e.g., x=5: y≈1,000; x=8: y≈10,000). - **Uncertainty**: Values are estimated based on the curve's steepness. #### Bottom-Right Subplot (3D Surface Plot) - **Key Data Points**: - Minimum: (0.5, 0.5, -0.2) - Maximum: (1.0, 1.0, 0.8) - Gradient: Purple (low z) to yellow (high z) indicates increasing z-values. - **Uncertainty**: Z-values are approximate due to the color gradient. --- ### Key Observations 1. **Periodicity**: The sine wave (top-left) exhibits a clear periodic pattern with a frequency of ~2 cycles over the x-axis range. 2. **Impulse Response**: The vertical spikes (top-right) suggest discrete events or impulses at specific x-values. 3. **Exponential Growth**: The bottom-left plot shows rapid growth, likely representing a logarithmic or exponential function. 4. **Multivariable Relationship**: The 3D plot (bottom-right) demonstrates a saddle-shaped surface, indicating a nonlinear relationship between x, y, and z. --- ### Interpretation - **Sine Wave**: Likely represents a periodic function (e.g., signal processing, oscillatory behavior). - **Vertical Spikes**: Could model impulse responses in systems or discrete events in time-series data. - **Exponential Growth**: Suggests a scenario with accelerating growth (e.g., population, financial growth, or computational complexity). - **3D Surface Plot**: The saddle shape implies a trade-off or interaction between variables (e.g., optimization problems, multivariable functions). The subplots collectively highlight diverse mathematical behaviors: periodicity, discrete events, exponential growth, and multivariable nonlinearity. The 3D plot’s color gradient emphasizes the z-axis dependency, while the other subplots focus on 2D trends. No outliers are present, but the exponential growth curve’s steepness may indicate sensitivity to input changes. </details> I want you to take the function depicted in the top left subplot, multiply it by 1000, and then add it to the function depicted in the bottom left subplot. Generate matplotlib code for the single resulting plot. ## Model Response (rendered code) ``` import numpy as np import matplotlib.pyplot as plt x = np.linspace(0, 10, 1000) y1 = np.sin(x) y2 = np.exp(x) plt.plot(x, 1000*y1 + y2) plt.show() ``` ## Rendered Graph Figure 22 | Multimodal reasoning capabilities applied to code generation. Gemini Ultra needs to perform inverse graphics task to infer the code that would have generated the plots, perform additional mathematical transformations, and generate relevant code. <details> <summary>Image 29 Details</summary> ![1263d4cd](/v1/image/1263d4cd6f2e50e73ec06f2ca3efd37832a416c697be19e3696a2c95dd504e72) ### Visual Description ## Line Graph: Value Over Time ### Overview The image depicts a line graph illustrating a fluctuating value over a 10-unit time period. The graph shows a single blue line with a complex trajectory, starting near zero, dipping below the x-axis, and then rising sharply toward the end of the timeframe. ### Components/Axes - **X-axis (Time)**: Labeled "Time (x-axis)", scaled from 0 to 10 in increments of 2. Tick marks at 0, 2, 4, 6, 8, 10. - **Y-axis (Value)**: Labeled "Value (y-axis)", scaled from 0 to 20,000 in increments of 5,000. Tick marks at 0, 5,000, 10,000, 15,000, 20,000. - **Legend**: No legend present (single data series). - **Line**: Blue line with no markers or annotations. ### Detailed Analysis - **Initial Phase (x=0 to x=2)**: Line starts at (0, 0) and rises to approximately (2, 1,000). - **Dip Phase (x=2 to x=4)**: Line descends below the x-axis, reaching a minimum of approximately (4, -500). - **Recovery Phase (x=4 to x=6)**: Line ascends from (4, -500) to (6, 5,000). - **Exponential Growth Phase (x=6 to x=10)**: Line rises sharply from (6, 5,000) to (10, 20,000), with a steep slope increasing over time. ### Key Observations 1. The line exhibits a **non-linear trajectory** with a pronounced dip below zero between x=2 and x=4. 2. A **sharp upward trend** dominates the latter half of the graph (x=6 onward), suggesting exponential growth. 3. The negative value at x=4 may indicate an anomaly, error, or intentional negative measurement (e.g., debt, deficit). ### Interpretation The graph demonstrates a **volatile system** with initial growth, a temporary decline, and subsequent rapid escalation. The negative dip could represent a corrective phase or data inconsistency. The exponential rise after x=6 implies accelerating growth, potentially due to compounding effects or external drivers. The absence of a legend or annotations leaves the context ambiguous, but the trajectory suggests a process transitioning from instability to explosive growth. The negative value warrants further investigation to confirm its validity or contextual meaning. </details> Source: figure generated by an author from the Gemini team. ## 10.6.2. Video understanding and reasoning ## Prompt (video) <details> <summary>Image 30 Details</summary> ![e9776914](/v1/image/e9776914eb0291f29e708c4c8ac69921e7a73e8c25503c7c408d20a034ac6d8c) ### Visual Description ## Photograph Collage: Soccer Kick Sequence ### Overview The image is a 2x2 grid of sequential photographs capturing a person executing a soccer kick on a grassy field. The sequence progresses from preparation to follow-through, with consistent environmental elements (goalpost, trees, sky) across all panels. No textual elements (labels, legends, axis titles) are present in the image. ### Components/Axes - **No textual components detected**: The image contains no labels, legends, axis markers, or embedded text. - **Visual elements**: - **Subject**: A person wearing a camouflage-patterned jacket, black shorts, and dark shoes. - **Action**: Soccer ball interaction (preparation, contact, follow-through, post-kick movement). - **Environment**: - White soccer goalpost with net in the background. - Green grass field with scattered trees and a clear sky. - Distant buildings and a white fence visible in the background. ### Detailed Analysis 1. **Panel 1 (Top-Left)**: - Person stands facing the goalpost, body upright, ball positioned near their feet. - Shadow cast to the right, indicating sunlight from the left. 2. **Panel 2 (Top-Right)**: - Person pivots on their left foot, right leg extended mid-kick. - Ball airborne, shadow elongated due to dynamic movement. 3. **Panel 3 (Bottom-Left)**: - Follow-through phase: Right leg retracted, body leaning forward. - Ball in motion toward the goalpost, shadow aligned with trajectory. 4. **Panel 4 (Bottom-Right)**: - Person begins running toward the ball’s projected path. - Consistent shadow direction across all panels confirms static lighting conditions. ### Key Observations - **Sequence coherence**: The four panels depict a continuous motion without gaps, suggesting a time-lapse or rapid succession of frames. - **Environmental consistency**: No changes in background elements (goalpost, trees, sky) between panels. - **Absence of textual data**: No annotations, legends, or numerical values are visible. ### Interpretation The collage likely serves as a visual demonstration of soccer kicking mechanics, emphasizing body positioning and ball trajectory. The lack of textual elements suggests the focus is purely on physical technique rather than statistical or analytical data. The consistent shadow direction and environmental stability imply the photos were taken in a single session under uniform lighting. **Note**: No factual or numerical data is extractable from this image. The description is limited to observable visual elements and inferred context. </details> How could this person improve their technique? ## Model Response This soccer player needs to work on their ball-striking mechanics. Their foot is not making good contact with the ball, which is causing the ball to fly up and away from the goal. They also need to work on their body positioning. They should be leaning into the shot with their non-kicking leg in front of their kicking leg, and they should be following through with their kicking leg. Figure 23 | Video understanding and reasoning over the situation presented in the video. Here, we provide a video as input to the model together with a text prompt (images are provided here only for visualization purposes). The model is able to analyze what happened in the video and provide recommendations on how the actions in the video could have been better. Video source: "Football/Soccer Penalty Miss" https://www.youtube.com/watch?v=VmWxjmJ3mvs

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