Shengming Yin
Author directory2026
Conflicts Make Large Reasoning Models Vulnerable to Attacks
Honghao Liu | Chengjin Xu | Xuhui Jiang | Cehao Yang | Shengming Yin | Zhengwu Ma | Lionel Ni | Jian Guo
Findings of the Association for Computational Linguistics: ACL 2026
Honghao Liu | Chengjin Xu | Xuhui Jiang | Cehao Yang | Shengming Yin | Zhengwu Ma | Lionel Ni | Jian Guo
Findings of the Association for Computational Linguistics: ACL 2026
Large Reasoning Models (LRMs) have achieved remarkable performance across diverse domains, yet their decision-making under conflicting objectives remains insufficiently understood. This work investigates how LRMs respond to harmful queries when confronted with two categories of conflicts: internal conflicts that pit alignment values against each other and dilemmas, which impose mutually contradictory choices, including sacrificial, duress, agent-centered, and social forms. Using over 1,300 prompts across five benchmarks, we evaluate three representative LRMs - Llama-3.1-Nemotron-8B, QwQ-32B, and DeepSeek R1 - and find that conflicts significantly increase attack success rates, even under single-round non-narrative queries without sophisticated auto-attack techniques. Our findings reveal through layerwise and neuron-level analyses that safety-related and functional representations shift and overlap under conflict, interfering with safety-aligned behavior. This study highlights the need for deeper alignment strategies to ensure the robustness and trustworthiness of next-generation reasoning models. Our code is available at https://github.com/DataArcTech/ConflictHarm. Warning: This paper contains inappropriate, offensive and harmful content.
Qwen-Image-Bench: From Generation to Creation in Text-to-Image Evaluation
Niantong Li | Guangzheng Hu | Weixu Qiao | Ying Ba | Qichen Hong | Shijun Shen | Jinlin Wang | Fan Zhou | Jianye Kang | Xin Shang | Ziyi HE | Wei Wang | Dalin Li | Jiahao Li | Jie Zhang | Kaiyuan Gao | Kun Yan | Lihan Jiang | Ningyuan Tang | Shengming Yin | Tianhe Wu | Xiao Xu | Xiaoyue Chen | Yuxiang Chen | Yan Shu | Yanran Zhang | Yilei Chen | Yixian Xu | Zekai Zhang | Zhendong Wang | Zihao Liu | Zikai Zhou | Hongzhu Shi | Yi Wang | Bing Zhao | hu Wei | Lin Qu | Chenfei Wu
Proceedings of the 2026 Conference on Empirical Methods in Natural Language Processing
Niantong Li | Guangzheng Hu | Weixu Qiao | Ying Ba | Qichen Hong | Shijun Shen | Jinlin Wang | Fan Zhou | Jianye Kang | Xin Shang | Ziyi HE | Wei Wang | Dalin Li | Jiahao Li | Jie Zhang | Kaiyuan Gao | Kun Yan | Lihan Jiang | Ningyuan Tang | Shengming Yin | Tianhe Wu | Xiao Xu | Xiaoyue Chen | Yuxiang Chen | Yan Shu | Yanran Zhang | Yilei Chen | Yixian Xu | Zekai Zhang | Zhendong Wang | Zihao Liu | Zikai Zhou | Hongzhu Shi | Yi Wang | Bing Zhao | hu Wei | Lin Qu | Chenfei Wu
Proceedings of the 2026 Conference on Empirical Methods in Natural Language Processing
Existing Text-to-Image (T2I) benchmarks remain anchored in foundational criteria such as image quality and text-image alignment, failing to capture the nuanced capabilities that professional creators demand in real-world workflows. Meanwhile, evaluation pipelines that rely on an untrained multimodal model as a judge diverge from human standards. We introduce Qwen-Image-Bench, a creator-centric benchmark that extends evaluation with two application-driven dimensions (Real-world Fidelity and Creative Generation), alongside the conventional pillars of Quality, Aesthetics, and Alignment. The benchmark organizes these into a three-level taxonomy (5 pillars, 23 sub-capabilities, 56 verifiable rubrics) and provides 1000 stratified bilingual prompts. We train a unified Judge Model (Q-Judger) on Qwen3.6-27B, supervised by 80 professional annotators under blind labeling and triple-review protocols, that scores every image across all 56 facets with fine-grained, rubric-grounded diagnostics. Empirically, Qwen-Image-Bench reliably distinguishes leading T2I models, achieving the greatest separation on the application-driven dimensions where existing benchmarks provide limited insight.
Qwen-Image-Layered 1.5: Unified Image Generation and Editing with Native Transparency Awareness
Shengming Yin | Zekai Zhang | Yixian Xu | Kaiyuan Gao | Zhendong Wang | Lihan Jiang | Ningyuan Tang | Tianhe Wu | Xiaoyue Chen | Yanran Zhang | Zihao Liu | Zikai Zhou | Jiahao Li | Xiao Xu | Kun Yan | Yuxiang Chen | Yilei Chen | Yan Shu | Jie Zhang | Heung-Yeung Shum | Lionel Ni | Jingren Zhou | Chenfei Wu
Proceedings of the 2026 Conference on Empirical Methods in Natural Language Processing
Shengming Yin | Zekai Zhang | Yixian Xu | Kaiyuan Gao | Zhendong Wang | Lihan Jiang | Ningyuan Tang | Tianhe Wu | Xiaoyue Chen | Yanran Zhang | Zihao Liu | Zikai Zhou | Jiahao Li | Xiao Xu | Kun Yan | Yuxiang Chen | Yilei Chen | Yan Shu | Jie Zhang | Heung-Yeung Shum | Lionel Ni | Jingren Zhou | Chenfei Wu
Proceedings of the 2026 Conference on Empirical Methods in Natural Language Processing
Recent advances in image generation and editing have been driven by powerful pretrained unified models, yet most existing approaches remain fundamentally raster-centric: they represent images as opaque pixels without natively modeling transparency. This limitation restricts their applicability to a broad range of real-world applications. In this work, we present Qwen-Image-Layered 1.5, a pretrained unified image generation and editing model with native transparency awareness. By jointly modeling visual appearance and transparency, our framework supports a wide range of both raster-centric and transparency-aware tasks within a single model. Notably, we observe that the model can perform transparent image editing in a zero-shot manner. To systematically evaluate this new task, we introduce TransEdit-Bench, the first benchmark specifically designed for transparent image editing. Extensive experiments across various tasks demonstrate strong performance and highlight the great potential of transparency-native image modeling as a unified paradigm for future image synthesis and editing.
2023
NUWA-XL: Diffusion over Diffusion for eXtremely Long Video Generation
Shengming Yin | Chenfei Wu | Huan Yang | Jianfeng Wang | Xiaodong Wang | Minheng Ni | Zhengyuan Yang | Linjie Li | Shuguang Liu | Fan Yang | Jianlong Fu | Ming Gong | Lijuan Wang | Zicheng Liu | Houqiang Li | Nan Duan
Proceedings of the 61st Annual Meeting of the Association for Computational Linguistics (Volume 1: Long Papers)
Shengming Yin | Chenfei Wu | Huan Yang | Jianfeng Wang | Xiaodong Wang | Minheng Ni | Zhengyuan Yang | Linjie Li | Shuguang Liu | Fan Yang | Jianlong Fu | Ming Gong | Lijuan Wang | Zicheng Liu | Houqiang Li | Nan Duan
Proceedings of the 61st Annual Meeting of the Association for Computational Linguistics (Volume 1: Long Papers)
In this paper, we propose NUWA-XL, a novel Diffusion over Diffusion architecture for eXtremely Long video generation. Most current work generates long videos segment by segment sequentially, which normally leads to the gap between training on short videos and inferring long videos, and the sequential generation is inefficient. Instead, our approach adopts a “coarse-to-fine” process, in which the video can be generated in parallel at the same granularity. A global diffusion model is applied to generate the keyframes across the entire time range, and then local diffusion models recursively fill in the content between nearby frames. This simple yet effective strategy allows us to directly train on long videos (3376 frames) to reduce the training-inference gap and makes it possible to generate all segments in parallel. To evaluate our model, we build FlintstonesHD dataset, a new benchmark for long video generation. Experiments show that our model not only generates high-quality long videos with both global and local coherence, but also decreases the average inference time from 7.55min to 26s (by 94.26%) at the same hardware setting when generating 1024 frames. The homepage link is [NUWA-XL](https://msra-nuwa.azurewebsites.net)
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Co-authors
- Chenfei Wu 3
- Xiaoyue Chen 2
- Yilei Chen 2
- Yuxiang Chen 2
- Kaiyuan Gao 2
- Lihan Jiang 2
- Jiahao Li 2
- Zihao Liu 2
- Lionel Ni 2
- Yan Shu 2
- Ningyuan Tang 2
- Zhendong Wang 2
- Tianhe Wu 2
- Xiao Xu 2
- Yixian Xu 2
- Kun Yan 2
- Jie Zhang 2
- Yanran Zhang 2
- Zekai Zhang 2
- Zikai Zhou 2
- Ying Ba 1
- Nan Duan 1
- Jianlong Fu 1
- Ming Gong 1
- Jian Guo 1
- Ziyi HE 1
- Qichen Hong 1
- Guangzheng Hu 1
- Xuhui Jiang 1
- Jianye Kang 1
- Dalin Li 1
- Houqiang Li 1
- Linjie Li 1
- Niantong Li 1
- Honghao Liu 1
- Shuguang Liu 1
- Zicheng Liu 1
- Zhengwu Ma 1
- Minheng Ni 1
- Weixu Qiao 1
- Lin Qu 1
- Xin Shang 1
- Shijun Shen 1
- Hongzhu Shi 1
- Heung Yeung Shum 1
- Jianfeng Wang 1
- Jinlin Wang 1
- Lijuan Wang 1
- Wei Wang 1
- Xiaodong Wang 1
- Yi Wang 1
- hu Wei 1
- Chengjin Xu 1
- Cehao Yang 1
- Fan Yang 1
- Huan Yang 1
- Zhengyuan Yang 1
- Bing Zhao 1
- Fan Zhou 1
- Jingren Zhou 1