278
stars
11
commits
Python
primary language
Dec 30, 2025
updated
Tencent Hunyuan Team
π Paper β’ π Home Page β’ π» Data β’ π Leaderboard β’ π Citation
Figure 1: Automation level versus humanβalignment across evaluation frameworks. The red star marks the fully manual WebDev Arena (100% human effort), while the blue bubble denotes our checklist-guided MLLM evaluation, ArtifactsBench, which achieves 94.4% agreement with human votes with 100% automation.
The generative capabilities of Large Language Models (LLMs) are rapidly expanding from static code to dynamic, interactive visual artifacts. This progress is bottlenecked by a critical evaluation gap: established benchmarks focus on algorithmic correctness and are blind to the visual fidelity and interactive integrity that define modern user experiences.
To bridge this gap, we introduce ArtifactsBench, a new benchmark and paradigm for the automated, multimodal evaluation of visual code generation. Our framework programmatically renders each generated artifact and captures its dynamic behavior, which is then assessed by an MLLM-as-Judge guided by a fine-grained, per-task checklist to ensure holistic and reproducible scoring.
ArtifactsBench is open-sourced, including the benchmark with 1,825 diverse tasks, the evaluation harness, and baseline results, to provide the community with a scalable and accurate tool to accelerate the development of user-centric generative models.
π Revolutionary Model Additions: Added comprehensive evaluation of cutting-edge models including GPT-5, GPT-OSS-120B, and Claude Opus 4.1, representing the latest advances in AI code generation capabilities.
π Historic Achievements:
π‘ OpenAI's Code Visualization Dominance: The results showcase OpenAI's exceptional capabilities in visual code generation, with both GPT-5 and GPT-OSS-120B leading their respective categories and demonstrating superior understanding of interactive visual artifact creation.
π Performance Insights: Enhanced analysis reveals the relationship between model inference patterns and visual code generation quality, providing deeper insights into what makes models excel at creating interactive experiences.
π Model Coverage Expansion: Added comprehensive evaluation of GLM-4.5 to expand our coverage of state-of-the-art language models and provide more comprehensive benchmarking insights.
π Enhanced Visualization: Introduced a new analysis chart artifactsbench_vs_model_infer.png that visualizes the relationship between model inference scores and model response lengths, providing deeper insights into model behavior patterns.
We're excited to announce important updates to ArtifactsBench that significantly improve reproducibility, expand model coverage, and enhance evaluation stability:
π§ Unified Judge Model: Migrated from Gemini-2.5-Pro-Preview-0605 (now deprecated) to the stable Gemini-2.5-Pro for all evaluations, ensuring consistent reproducibility for research communities.
π Expanded Model Coverage: Added comprehensive evaluation of latest high-quality open-source code models to keep pace with rapid developments in the field.
π Enhanced Transparency: Released intermediate reasoning results and evaluation data to improve research confidence and full reproducibility.
π 100% Data Open-Source: All evaluation data, model outputs, judge reasoning, and intermediate results are completely open-sourced - no proprietary data withheld.
β»οΈ Complete Paper Reproducibility: Every result in our paper can be fully reproduced using the provided data and scripts - we guarantee 100% reproducibility.
π Full Transparency: From raw model outputs to final scores, every step of our evaluation pipeline is transparent and auditable.
All intermediate model results, judge model inference results, and reasoning chains from this update are available at dataset/release_data_20250725/ for complete transparency and reproducibility.
Figure: Analysis of model inference scores versus response lengths on ArtifactsBench, revealing the relationship between model performance and output verbosity patterns.
Figure: Latest ArtifactsBench results (July 2025) with expanded model coverage and unified Gemini-2.5-Pro evaluation.
For comparison, the previous results table is available in the Leaderboard section.
ArtifactsBench is the first to offer high-granularity evaluation (GR), strong human-judgment consistency (CHA), automated assessment (AF), and direct visual evaluation (VE), addressing critical gaps in prior work.
| Benchmark | Data Size | Data Source | Primary Task | GR | CHA | AF | VE |
|---|---|---|---|---|---|---|---|
| Humaneval | 164 | Human-Written | Algorithmic Tasks | Low | High | β | β |
| SWE-Bench | 2,294 | GitHub Issues | Repository-level Bug Fixing | Low | High | β | β |
| WebBench | 1,000 | Human-Written | Web Task Automation | Mid | Mid | β | β |
| WebGen-Bench | 101 | Human & GPT-4 | Web Page Generation | Mid | Mid | β | β |
| WebChoreArena | 532 | Curated Tasks | Web Automation (No UI) | Mid | Mid | β | β |
| FullFront | 1,800 QA | Model-Synthesized | Web Comprehension/Generation | Mid | Mid | β | β |
| WebDev Arena | N/A | User-Prompts | Web Design (Human Vote) | Low | High | β | β |
| ArtifactsBench (Ours) | 1,825 | Self-Constructed | Interactive Visual Artifacts | High | High | β | β |
Figure 2: An overview of the ArtifactsBench dataset, illustrating the distribution of tasks across nine primary categories.
Our evaluation process is designed to ensure objectivity and high consistency with human expert judgment.
Figure 3: The ArtifactsBench evaluation pipeline. The process hinges on a two-stage evaluation: (Step 5) we first validate our MLLM-as-Judge by confirming its high pairwise scoring agreement with human experts. (Step 6) Once its reliability is established, the automated judge is deployed at scale to evaluate all model outputs across the entire benchmark.
pip install vllm==0.8.3
pip install pytest-playwright
playwright install
playwright install-deps
pip install transformers
pip install requests
pip install tqdm
You can use your own model to perform inference based on the "question" field in the dataset/artifacts_bench.json file, and save the results in the "answer" field.
{
"index": "Unique identifier in the dataset that corresponds one-to-one with 'question'.",
"question": "Each 'question' in ArtifactsBench.",
"answer": "The answer inferred by your model based on the 'question'.",
"checklist": "Array of evaluation criteria used by the MLLM judge (do not modify). Each item is an atomic check the judge will verify.",
"class": "Category/type label for the sample",
"difficulty": "Difficulty level of the sample, e.g., 'easy' | 'medium' | 'hard' (or a numeric scale)."
}
api_key=xxx
model_marker=xxx
api_url=xxx
screenshots_count=3
path_with_index=xxx
save_path=xxx
screenshots_dir=xxx
tokenizer_dir=xxx
num_processes=16
python3 src/infer_gemini.py \
$path_with_index \
$save_path \
$screenshots_dir \
$screenshots_count \
$api_key \
$model_marker \
$api_url \
$tokenizer_dir \
--num_processes $num_processes
gemini_reason (the explanation from Gemini) and gemini_ans (the score provided by Gemini).16 processes.# Deploy Qwen2.5-VL-72B-Instruct using vllm
MODEL_DIR="/xxx/Qwen2.5-VL-72B-Instruct"
HOST_IP=$(hostname -i)
model_name=$(basename $MODEL_DIR)
nohup python3 -m vllm.entrypoints.openai.api_server \
--enforce-eager --swap-space 50 --disable-log-requests \
--dtype float16 --trust-remote-code \
--model ${MODEL_DIR} --served-model-name ${model_name} \
--gpu-memory-utilization 0.9 --port 8088 \
--max-model-len 32768 --max-seq-len 32768 \
--limit-mm-per-prompt "image=5"\
--tensor-parallel-size 8 \
--seed 1024 > /root/log.ds_server 2> /root/err.ds_server &
sleep 10m
# Evaluate the answers with Qwen2.5-VL-72B-Instruct.
screenshots_count=3
path_with_index=xxx
save_path=xxx
screenshots_dir=xxx
tokenizer_dir=$MODEL_DIR
ip_file_path=$HOST_IP # ip or ip_list_file
num_processes=16
python3 src/infer_qvl.py \
$path_with_index \
$save_path \
$screenshots_dir \
$screenshots_count \
$model_name \
$tokenizer_dir \
$ip_file_path \
--num_processes $num_processes
Qwen2.5-VL-72B-Instruct model is stored.hostname -i).MODEL_DIR).index, question, and answer.qvl_reason (the explanation from Qwen2.5-VL-72B) and qvl_ans (the score provided by Qwen2.5-VL-72B).pssh.hosts).16 processes).For the latest results, please visit the live leaderboard.
The following are the latest results on ArtifactsBench, scored by the unified Gemini-2.5-Pro referee. A higher score indicates better overall capability in generating visual and interactive artifacts. This update showcases groundbreaking achievements with GPT-5 setting a new benchmark record at 72.55 and GPT-OSS-120B leading the open-source category.
| Model | AVG | Category | Inference Length | Achievement |
|---|---|---|---|---|
| GPT-5 | 72.55 | Closed | Unknown | π₯ New Benchmark Record |
| Claude Opus 4.1 | 59.76 | Closed | Unknown | π₯ Closed-Source #2 |
| Gemini-2.5-Pro | 57.74 | Closed | Unknown | π₯ Closed-Source #3 |
| GPT-OSS-120B | 57.69 | Open | 16,018 tokens | π Open-Source Champion |
| Claude Sonnet 4 | 57.28 | Closed | Unknown | Strong Performance |
| Qwen3-235B-Thinking | 55.01 | Open | 34,357 tokens | Open-Source #2 |
Complete results visualization available in figures/artifactsbench_vs_model_infer.png
The following are the main results on ArtifactsBench from July 2025, scored by the unified Gemini-2.5-Pro referee.
The following were the original results on ArtifactsBench, scored by the Gemini-2.5-Pro-0506 referee. These results are preserved for historical comparison and reproducibility studies.
| Model | AVG | SV | MMD | HD | II | GAME | SVG | WEB | SI | MS |
|---|---|---|---|---|---|---|---|---|---|---|
| Closed-Source LLMs | ||||||||||
| Gemini-2.5-Pro-0605 | 57.01 | 59.99 | 56.35 | 58.13 | 54.87 | 55.21 | 61.78 | 58.30 | 55.03 | 55.03 |
| Gemini-2.5-Pro-0506 | 56.79 | 59.02 | 57.69 | 57.99 | 54.70 | 56.65 | 62.37 | 57.28 | 55.26 | 53.04 |
| Claude 4.0-Sonnet | 55.76 | 57.14 | 59.18 | 57.93 | 53.04 | 57.22 | 56.98 | 55.79 | 56.67 | 53.20 |
| Claude 3.7-Sonnet | 52.19 | 52.73 | 53.54 | 53.48 | 50.83 | 52.24 | 51.63 | 53.64 | 52.14 | 50.27 |
| Hunyuan-Turbos-Preview | 50.97 | 50.58 | 53.27 | 53.08 | 49.35 | 51.61 | 51.37 | 52.31 | 50.74 | 49.92 |
| GPT-4.1-2025-04-14 | 48.23 | 47.90 | 48.68 | 49.61 | 47.39 | 50.43 | 48.75 | 48.51 | 46.88 | 42.81 |
| Seed-thinking-1.5 | 47.92 | 49.16 | 48.36 | 49.84 | 45.90 | 47.59 | 47.86 | 49.61 | 49.81 | 45.81 |
| OpenAI-o3-mini | 44.98 | 46.49 | 45.11 | 46.04 | 43.45 | 45.43 | 46.82 | 45.18 | 43.91 | 41.73 |
| O1-2024-12-17 | 38.65 | 39.51 | 38.35 | 39.90 | 37.38 | 38.96 | 38.58 | 39.01 | 38.12 | 36.20 |
| GPT-4o | 37.97 | 40.60 | 37.74 | 40.32 | 35.04 | 36.96 | 39.54 | 39.27 | 35.73 | 35.83 |
| Open-Source LLMs | ||||||||||
| DeepSeek-R1-0528 | 51.62 | 51.18 | 53.65 | 51.92 | 51.33 | 51.78 | 52.87 | 50.66 | 50.27 | 45.51 |
| DeepSeek-V3-0324 | 45.56 | 47.78 | 44.43 | 48.53 | 42.55 | 47.58 | 46.34 | 47.47 | 38.71 | 42.88 |
| DeepSeek-R1 | 44.64 | 47.17 | 46.75 | 46.95 | 41.44 | 44.18 | 47.01 | 45.58 | 41.85 | 42.40 |
| Qwen3-253B-A22B (Instruct) | 44.62 | 47.42 | 46.09 | 46.16 | 41.89 | 44.03 | 47.04 | 45.85 | 43.97 | 42.41 |
| Hunyuan-A13B | 42.95 | 44.80 | 44.64 | 44.22 | 40.88 | 42.30 | 47.31 | 44.56 | 39.17 | 41.23 |
| Qwen3-32B (Instruct) | 42.16 | 44.39 | 43.79 | 44.65 | 39.05 | 41.85 | 43.44 | 43.34 | 40.79 | 39.84 |
| QwQ-32B | 40.79 | 44.01 | 41.64 | 41.92 | 38.22 | 38.96 | 43.08 | 41.74 | 40.17 | 39.37 |
If you find our project helpful, please cite:
@article{zhang2025artifactsbench,
title={ArtifactsBench: Bridging the Visual-Interactive Gap in LLM Code Generation Evaluation},
author={Zhang, Chenchen and Li, Yuhang and Xu, Can and Liu, Jiaheng and Liu, Ao and Hu, Shihui and Wu, Dengpeng and Huang, Guanhua and Li, Kejiao and Yi, Qi and others},
journal={arXiv preprint arXiv:2507.04952},
year={2025}
}
First Authors
Core Contributors
Contributors | Algorithm Support (Alphabet Order)
Corresponding Authors
{wigginzhou,chaysezhou,faxonlian}@tencent.comAcknowledgements | Data and Front-End Technical Support (Alphabet Order)
If you encounter any issues during testing, please contact adamwzhang@tencent.com.
π FULLY OPEN-SOURCE: All intermediate evaluation results and reasoning data are completely open-sourced and available for download to ensure full reproducibility of our benchmark results. The updated evaluation pipeline with Gemini-2.5-Pro is fully automated and deterministic.
π Data Location: All intermediate model results and judge model inference results from the July 25, 2025 update are stored in dataset/release_data_20250725/, ensuring complete paper transparency and high reproducibility.
π― 100% Reproducibility Guarantee: We provide complete reproducibility - every table, figure, and result in our paper can be fully reproduced using our open-sourced data and evaluation scripts.
For researchers interested in:
dataset/release_data_20250725/This repository is licensed under the terms of the LICENSE file.
Python
98.2%
Shell
1.8%
278
stars
11
commits
Python
primary language
Dec 30, 2025
updated
Tencent Hunyuan Team
π Paper β’ π Home Page β’ π» Data β’ π Leaderboard β’ π Citation
Figure 1: Automation level versus humanβalignment across evaluation frameworks. The red star marks the fully manual WebDev Arena (100% human effort), while the blue bubble denotes our checklist-guided MLLM evaluation, ArtifactsBench, which achieves 94.4% agreement with human votes with 100% automation.
The generative capabilities of Large Language Models (LLMs) are rapidly expanding from static code to dynamic, interactive visual artifacts. This progress is bottlenecked by a critical evaluation gap: established benchmarks focus on algorithmic correctness and are blind to the visual fidelity and interactive integrity that define modern user experiences.
To bridge this gap, we introduce ArtifactsBench, a new benchmark and paradigm for the automated, multimodal evaluation of visual code generation. Our framework programmatically renders each generated artifact and captures its dynamic behavior, which is then assessed by an MLLM-as-Judge guided by a fine-grained, per-task checklist to ensure holistic and reproducible scoring.
ArtifactsBench is open-sourced, including the benchmark with 1,825 diverse tasks, the evaluation harness, and baseline results, to provide the community with a scalable and accurate tool to accelerate the development of user-centric generative models.
π Revolutionary Model Additions: Added comprehensive evaluation of cutting-edge models including GPT-5, GPT-OSS-120B, and Claude Opus 4.1, representing the latest advances in AI code generation capabilities.
π Historic Achievements:
π‘ OpenAI's Code Visualization Dominance: The results showcase OpenAI's exceptional capabilities in visual code generation, with both GPT-5 and GPT-OSS-120B leading their respective categories and demonstrating superior understanding of interactive visual artifact creation.
π Performance Insights: Enhanced analysis reveals the relationship between model inference patterns and visual code generation quality, providing deeper insights into what makes models excel at creating interactive experiences.
π Model Coverage Expansion: Added comprehensive evaluation of GLM-4.5 to expand our coverage of state-of-the-art language models and provide more comprehensive benchmarking insights.
π Enhanced Visualization: Introduced a new analysis chart artifactsbench_vs_model_infer.png that visualizes the relationship between model inference scores and model response lengths, providing deeper insights into model behavior patterns.
We're excited to announce important updates to ArtifactsBench that significantly improve reproducibility, expand model coverage, and enhance evaluation stability:
π§ Unified Judge Model: Migrated from Gemini-2.5-Pro-Preview-0605 (now deprecated) to the stable Gemini-2.5-Pro for all evaluations, ensuring consistent reproducibility for research communities.
π Expanded Model Coverage: Added comprehensive evaluation of latest high-quality open-source code models to keep pace with rapid developments in the field.
π Enhanced Transparency: Released intermediate reasoning results and evaluation data to improve research confidence and full reproducibility.
π 100% Data Open-Source: All evaluation data, model outputs, judge reasoning, and intermediate results are completely open-sourced - no proprietary data withheld.
β»οΈ Complete Paper Reproducibility: Every result in our paper can be fully reproduced using the provided data and scripts - we guarantee 100% reproducibility.
π Full Transparency: From raw model outputs to final scores, every step of our evaluation pipeline is transparent and auditable.
All intermediate model results, judge model inference results, and reasoning chains from this update are available at dataset/release_data_20250725/ for complete transparency and reproducibility.
Figure: Analysis of model inference scores versus response lengths on ArtifactsBench, revealing the relationship between model performance and output verbosity patterns.
Figure: Latest ArtifactsBench results (July 2025) with expanded model coverage and unified Gemini-2.5-Pro evaluation.
For comparison, the previous results table is available in the Leaderboard section.
ArtifactsBench is the first to offer high-granularity evaluation (GR), strong human-judgment consistency (CHA), automated assessment (AF), and direct visual evaluation (VE), addressing critical gaps in prior work.
| Benchmark | Data Size | Data Source | Primary Task | GR | CHA | AF | VE |
|---|---|---|---|---|---|---|---|
| Humaneval | 164 | Human-Written | Algorithmic Tasks | Low | High | β | β |
| SWE-Bench | 2,294 | GitHub Issues | Repository-level Bug Fixing | Low | High | β | β |
| WebBench | 1,000 | Human-Written | Web Task Automation | Mid | Mid | β | β |
| WebGen-Bench | 101 | Human & GPT-4 | Web Page Generation | Mid | Mid | β | β |
| WebChoreArena | 532 | Curated Tasks | Web Automation (No UI) | Mid | Mid | β | β |
| FullFront | 1,800 QA | Model-Synthesized | Web Comprehension/Generation | Mid | Mid | β | β |
| WebDev Arena | N/A | User-Prompts | Web Design (Human Vote) | Low | High | β | β |
| ArtifactsBench (Ours) | 1,825 | Self-Constructed | Interactive Visual Artifacts | High | High | β | β |
Figure 2: An overview of the ArtifactsBench dataset, illustrating the distribution of tasks across nine primary categories.
Our evaluation process is designed to ensure objectivity and high consistency with human expert judgment.
Figure 3: The ArtifactsBench evaluation pipeline. The process hinges on a two-stage evaluation: (Step 5) we first validate our MLLM-as-Judge by confirming its high pairwise scoring agreement with human experts. (Step 6) Once its reliability is established, the automated judge is deployed at scale to evaluate all model outputs across the entire benchmark.
pip install vllm==0.8.3
pip install pytest-playwright
playwright install
playwright install-deps
pip install transformers
pip install requests
pip install tqdm
You can use your own model to perform inference based on the "question" field in the dataset/artifacts_bench.json file, and save the results in the "answer" field.
{
"index": "Unique identifier in the dataset that corresponds one-to-one with 'question'.",
"question": "Each 'question' in ArtifactsBench.",
"answer": "The answer inferred by your model based on the 'question'.",
"checklist": "Array of evaluation criteria used by the MLLM judge (do not modify). Each item is an atomic check the judge will verify.",
"class": "Category/type label for the sample",
"difficulty": "Difficulty level of the sample, e.g., 'easy' | 'medium' | 'hard' (or a numeric scale)."
}
api_key=xxx
model_marker=xxx
api_url=xxx
screenshots_count=3
path_with_index=xxx
save_path=xxx
screenshots_dir=xxx
tokenizer_dir=xxx
num_processes=16
python3 src/infer_gemini.py \
$path_with_index \
$save_path \
$screenshots_dir \
$screenshots_count \
$api_key \
$model_marker \
$api_url \
$tokenizer_dir \
--num_processes $num_processes
gemini_reason (the explanation from Gemini) and gemini_ans (the score provided by Gemini).16 processes.# Deploy Qwen2.5-VL-72B-Instruct using vllm
MODEL_DIR="/xxx/Qwen2.5-VL-72B-Instruct"
HOST_IP=$(hostname -i)
model_name=$(basename $MODEL_DIR)
nohup python3 -m vllm.entrypoints.openai.api_server \
--enforce-eager --swap-space 50 --disable-log-requests \
--dtype float16 --trust-remote-code \
--model ${MODEL_DIR} --served-model-name ${model_name} \
--gpu-memory-utilization 0.9 --port 8088 \
--max-model-len 32768 --max-seq-len 32768 \
--limit-mm-per-prompt "image=5"\
--tensor-parallel-size 8 \
--seed 1024 > /root/log.ds_server 2> /root/err.ds_server &
sleep 10m
# Evaluate the answers with Qwen2.5-VL-72B-Instruct.
screenshots_count=3
path_with_index=xxx
save_path=xxx
screenshots_dir=xxx
tokenizer_dir=$MODEL_DIR
ip_file_path=$HOST_IP # ip or ip_list_file
num_processes=16
python3 src/infer_qvl.py \
$path_with_index \
$save_path \
$screenshots_dir \
$screenshots_count \
$model_name \
$tokenizer_dir \
$ip_file_path \
--num_processes $num_processes
Qwen2.5-VL-72B-Instruct model is stored.hostname -i).MODEL_DIR).index, question, and answer.qvl_reason (the explanation from Qwen2.5-VL-72B) and qvl_ans (the score provided by Qwen2.5-VL-72B).pssh.hosts).16 processes).For the latest results, please visit the live leaderboard.
The following are the latest results on ArtifactsBench, scored by the unified Gemini-2.5-Pro referee. A higher score indicates better overall capability in generating visual and interactive artifacts. This update showcases groundbreaking achievements with GPT-5 setting a new benchmark record at 72.55 and GPT-OSS-120B leading the open-source category.
| Model | AVG | Category | Inference Length | Achievement |
|---|---|---|---|---|
| GPT-5 | 72.55 | Closed | Unknown | π₯ New Benchmark Record |
| Claude Opus 4.1 | 59.76 | Closed | Unknown | π₯ Closed-Source #2 |
| Gemini-2.5-Pro | 57.74 | Closed | Unknown | π₯ Closed-Source #3 |
| GPT-OSS-120B | 57.69 | Open | 16,018 tokens | π Open-Source Champion |
| Claude Sonnet 4 | 57.28 | Closed | Unknown | Strong Performance |
| Qwen3-235B-Thinking | 55.01 | Open | 34,357 tokens | Open-Source #2 |
Complete results visualization available in figures/artifactsbench_vs_model_infer.png
The following are the main results on ArtifactsBench from July 2025, scored by the unified Gemini-2.5-Pro referee.
The following were the original results on ArtifactsBench, scored by the Gemini-2.5-Pro-0506 referee. These results are preserved for historical comparison and reproducibility studies.
| Model | AVG | SV | MMD | HD | II | GAME | SVG | WEB | SI | MS |
|---|---|---|---|---|---|---|---|---|---|---|
| Closed-Source LLMs | ||||||||||
| Gemini-2.5-Pro-0605 | 57.01 | 59.99 | 56.35 | 58.13 | 54.87 | 55.21 | 61.78 | 58.30 | 55.03 | 55.03 |
| Gemini-2.5-Pro-0506 | 56.79 | 59.02 | 57.69 | 57.99 | 54.70 | 56.65 | 62.37 | 57.28 | 55.26 | 53.04 |
| Claude 4.0-Sonnet | 55.76 | 57.14 | 59.18 | 57.93 | 53.04 | 57.22 | 56.98 | 55.79 | 56.67 | 53.20 |
| Claude 3.7-Sonnet | 52.19 | 52.73 | 53.54 | 53.48 | 50.83 | 52.24 | 51.63 | 53.64 | 52.14 | 50.27 |
| Hunyuan-Turbos-Preview | 50.97 | 50.58 | 53.27 | 53.08 | 49.35 | 51.61 | 51.37 | 52.31 | 50.74 | 49.92 |
| GPT-4.1-2025-04-14 | 48.23 | 47.90 | 48.68 | 49.61 | 47.39 | 50.43 | 48.75 | 48.51 | 46.88 | 42.81 |
| Seed-thinking-1.5 | 47.92 | 49.16 | 48.36 | 49.84 | 45.90 | 47.59 | 47.86 | 49.61 | 49.81 | 45.81 |
| OpenAI-o3-mini | 44.98 | 46.49 | 45.11 | 46.04 | 43.45 | 45.43 | 46.82 | 45.18 | 43.91 | 41.73 |
| O1-2024-12-17 | 38.65 | 39.51 | 38.35 | 39.90 | 37.38 | 38.96 | 38.58 | 39.01 | 38.12 | 36.20 |
| GPT-4o | 37.97 | 40.60 | 37.74 | 40.32 | 35.04 | 36.96 | 39.54 | 39.27 | 35.73 | 35.83 |
| Open-Source LLMs | ||||||||||
| DeepSeek-R1-0528 | 51.62 | 51.18 | 53.65 | 51.92 | 51.33 | 51.78 | 52.87 | 50.66 | 50.27 | 45.51 |
| DeepSeek-V3-0324 | 45.56 | 47.78 | 44.43 | 48.53 | 42.55 | 47.58 | 46.34 | 47.47 | 38.71 | 42.88 |
| DeepSeek-R1 | 44.64 | 47.17 | 46.75 | 46.95 | 41.44 | 44.18 | 47.01 | 45.58 | 41.85 | 42.40 |
| Qwen3-253B-A22B (Instruct) | 44.62 | 47.42 | 46.09 | 46.16 | 41.89 | 44.03 | 47.04 | 45.85 | 43.97 | 42.41 |
| Hunyuan-A13B | 42.95 | 44.80 | 44.64 | 44.22 | 40.88 | 42.30 | 47.31 | 44.56 | 39.17 | 41.23 |
| Qwen3-32B (Instruct) | 42.16 | 44.39 | 43.79 | 44.65 | 39.05 | 41.85 | 43.44 | 43.34 | 40.79 | 39.84 |
| QwQ-32B | 40.79 | 44.01 | 41.64 | 41.92 | 38.22 | 38.96 | 43.08 | 41.74 | 40.17 | 39.37 |
If you find our project helpful, please cite:
@article{zhang2025artifactsbench,
title={ArtifactsBench: Bridging the Visual-Interactive Gap in LLM Code Generation Evaluation},
author={Zhang, Chenchen and Li, Yuhang and Xu, Can and Liu, Jiaheng and Liu, Ao and Hu, Shihui and Wu, Dengpeng and Huang, Guanhua and Li, Kejiao and Yi, Qi and others},
journal={arXiv preprint arXiv:2507.04952},
year={2025}
}
First Authors
Core Contributors
Contributors | Algorithm Support (Alphabet Order)
Corresponding Authors
{wigginzhou,chaysezhou,faxonlian}@tencent.comAcknowledgements | Data and Front-End Technical Support (Alphabet Order)
If you encounter any issues during testing, please contact adamwzhang@tencent.com.
π FULLY OPEN-SOURCE: All intermediate evaluation results and reasoning data are completely open-sourced and available for download to ensure full reproducibility of our benchmark results. The updated evaluation pipeline with Gemini-2.5-Pro is fully automated and deterministic.
π Data Location: All intermediate model results and judge model inference results from the July 25, 2025 update are stored in dataset/release_data_20250725/, ensuring complete paper transparency and high reproducibility.
π― 100% Reproducibility Guarantee: We provide complete reproducibility - every table, figure, and result in our paper can be fully reproduced using our open-sourced data and evaluation scripts.
For researchers interested in:
dataset/release_data_20250725/This repository is licensed under the terms of the LICENSE file.
Python
98.2%
Shell
1.8%