## Line Chart: Model Accuracy on Math Problems
### Overview
The image is a line chart comparing the accuracy of four different language models (InternLM2-Math-7B, InternLM2-7B, MAmmoTH-13B, and WizardMath-13B) on a variety of math problem types. The x-axis represents different types of math problems (in Chinese), and the y-axis represents the accuracy score, ranging from 0 to 80.
### Components/Axes
* **Title:** There is no explicit title on the chart.
* **X-axis:** Represents different types of math problems, labeled in Chinese. The labels are rotated for readability.
* The labels are: 三角形 (Triangle), 平行四边形 (Parallelogram), 平面图形综合 (Plane figure synthesis), 立体 (Solid), 长方形 (Rectangle), 正方形 (Square), 圆柱 (Cylinder), 圆锥 (Cone), 立体图形综合 (Solid figure synthesis), 和差倍问题 (Sum difference multiple problem), 基础问题 (Basic problem), 平均数问题 (Average problem), 工作问题 (Work problem), 年龄问题 (Age problem), 植树问题 (Tree planting problem), 行程问题 (Travel problem), 鸡兔同笼问题 (Chicken and rabbit in the same cage problem), 浓度问题 (Concentration problem), 面积问题 (Area problem), 统计指标 (Statistical indicators), 分数与小数 (Fractions and decimals), 分数应用题 (Fraction application problems), 公差与公倍数 (Common difference and common multiple), 因数与倍数 (Factors and multiples), 定义新运算 (Define new operation), 比例问题 (Proportion problem), 整数问题 (Integer problem), 除法问题 (Division problem), 概率问题 (Probability problem), 百分数问题 (Percentage problem).
* **Y-axis:** Represents Accuracy, ranging from 0 to 80, with increments of 20.
* **Legend:** Located at the top of the chart.
* Blue: InternLM2-Math-7B
* Orange: InternLM2-7B
* Green: MAmmoTH-13B
* Red: WizardMath-13B
### Detailed Analysis
Here's a breakdown of each model's performance across the different problem types:
* **InternLM2-Math-7B (Blue):** This model generally performs the best, with accuracy scores frequently above 60. It shows peaks in accuracy for problems like "Triangle" (~64), "Plane figure synthesis" (~84), "Rectangle" (~76), "Solid figure synthesis" (~64), "Average problem" (~76), "Travel problem" (~76), "Area problem" (~76), "Fractions and decimals" (~76), "Percentage problem" (~84). It dips to ~40 for "Cylinder" and "Common difference and common multiple".
* **InternLM2-7B (Orange):** This model's performance is generally lower than InternLM2-Math-7B, but still competitive. It shows peaks in accuracy for problems like "Triangle" (~40), "Plane figure synthesis" (~72), "Rectangle" (~60), "Solid figure synthesis" (~40), "Average problem" (~60), "Travel problem" (~92), "Area problem" (~60), "Fractions and decimals" (~60), "Percentage problem" (~80). It dips to ~32 for "Cylinder" and "Common difference and common multiple".
* **MAmmoTH-13B (Green):** This model's performance is generally lower than the other two, with accuracy scores mostly below 40. It shows peaks in accuracy for problems like "Triangle" (~24), "Plane figure synthesis" (~20), "Rectangle" (~24), "Solid figure synthesis" (~24), "Average problem" (~24), "Travel problem" (~44), "Area problem" (~32), "Fractions and decimals" (~32), "Percentage problem" (~28). It dips to ~0 for "Cylinder" and "Common difference and common multiple".
* **WizardMath-13B (Red):** This model consistently has the lowest accuracy scores, often near or at 0. It shows peaks in accuracy for problems like "Triangle" (~12), "Plane figure synthesis" (~16), "Rectangle" (~12), "Solid figure synthesis" (~8), "Average problem" (~12), "Travel problem" (~20), "Area problem" (~16), "Fractions and decimals" (~24), "Percentage problem" (~32). It dips to ~0 for "Cylinder" and "Common difference and common multiple".
### Key Observations
* InternLM2-Math-7B generally outperforms the other models.
* WizardMath-13B consistently shows the lowest accuracy.
* All models struggle with certain problem types, particularly those related to "Cylinder" and "Common difference and common multiple".
* There is significant variance in performance across different problem types for all models.
### Interpretation
The chart suggests that the InternLM2-Math-7B model is the most effective at solving a variety of math problems compared to the other models tested. The significant performance differences across problem types indicate that the models may have varying strengths and weaknesses depending on the specific mathematical concepts involved. The consistently low performance of WizardMath-13B suggests it may require further training or optimization for these types of problems. The common difficulty across all models with "Cylinder" and "Common difference and common multiple" problems could indicate a need for improved training data or model architecture to handle these specific mathematical concepts.