ECDSA.Fail: Open Autoresearch for Optimizing Elliptic-Curve Point Addition in Shor's Algorithm
本文提出Open Autoresearch方法,通过人和AI合作优化椭圆曲线点加法电路,减少Shor算法中的瓶颈,显著降低了逻辑量子比特宽度与Toffoli门数量乘积的得分。
本文提出Open Autoresearch方法,通过人和AI合作优化椭圆曲线点加法电路,减少Shor算法中的瓶颈,显著降低了逻辑量子比特宽度与Toffoli门数量乘积的得分。
This study addresses the challenge of precisely repairing SVG code under visual instruction guidance, requiring models to modify only specified regions while preserving all other protected content. To this end, the authors introduce a benchmark comprising 40 high-difficulty tasks and propose a novel dual-norm reward mechanism that integrates semantic invariance with attribute-aware tolerance. They also introduce new evaluation dimensions, including validity-gated repair progress and Unintended Change Rate (UCR). Through rigorous assessment involving SVG parsing-rendering validation, structural-semantic consistency checks, and deterministic norm scoring across 34 models, they find that even the strongest model achieves a full-norm success rate of merely 15.0%, with an average repair progress of 43.7%, revealing significant limitations in current approaches to faithful, constrained editing.
Existing indoor scene generation methods struggle to simultaneously achieve high photorealism, fine-grained object-level control, and global style consistency. To address this challenge, this work proposes a tri-branch collaborative generation model that uniquely integrates multimodal graph conditioning with rectified flow mechanisms. Specifically, a multimodal graph neural network models inter-object relationships, while tightly coupled rectified flows across layout, shape, and texture branches enable dynamic interaction of object information and style alignment during generation. The proposed approach significantly outperforms current language- or graph-conditioned baselines in terms of photorealism, style coherence, and human preference, achieving synergistic optimization between object-level precision and scene-level stylistic unity.
This work addresses the challenge of optimizing advertisers’ cumulative value under strict budget constraints in low-data regimes within online advertising. To this end, the authors propose DARA, a two-stage framework: the first stage leverages the in-context learning capability of large language models (LLMs) to generate an initial campaign plan, while the second stage refines this plan through feedback-driven reasoning for precise numerical optimization. The approach innovatively combines the few-shot generalization strength of LLMs with reinforcement learning fine-tuning, introducing a GRPO-Adaptive policy that dynamically optimizes the reference strategy. By decoupling the decision process into distinct reasoning and optimization phases, DARA achieves superior performance over existing baselines on both real-world and synthetic datasets, consistently enhancing advertisers’ cumulative value under stringent budget limitations.
Existing 3D urban generation methods rely on monolithic diffusion models, limiting both personalization and scalable expansion. To address this, we propose a top-down hierarchical planning framework—“City–District–Grid”—that integrates large language model (LLM)-driven reasoning to enable user-guided, customizable design and continuous urban evolution. Our key innovation is a relation-guided interactive expansion mechanism, incorporating scene-graph-aware distance constraints and semantic layout optimization to ensure spatial coherence. We further introduce a multi-dimensional evaluation benchmark covering semantic fidelity, geometric accuracy, texture quality, and layout合理性, with six quantitative metrics. Leveraging a “generate–optimize–evaluate” image synthesis loop and image-to-3D reconstruction, our method jointly synthesizes hierarchical structure and local details. Experiments demonstrate state-of-the-art performance across generation quality, scalability, and user controllability.
本文提出Open Autoresearch方法,通过人和AI合作优化椭圆曲线点加法电路,减少Shor算法中的瓶颈,显著降低了逻辑量子比特宽度与Toffoli门数量乘积的得分。
This study addresses the challenge of precisely repairing SVG code under visual instruction guidance, requiring models to modify only specified regions while preserving all other protected content. To this end, the authors introduce a benchmark comprising 40 high-difficulty tasks and propose a novel dual-norm reward mechanism that integrates semantic invariance with attribute-aware tolerance. They also introduce new evaluation dimensions, including validity-gated repair progress and Unintended Change Rate (UCR). Through rigorous assessment involving SVG parsing-rendering validation, structural-semantic consistency checks, and deterministic norm scoring across 34 models, they find that even the strongest model achieves a full-norm success rate of merely 15.0%, with an average repair progress of 43.7%, revealing significant limitations in current approaches to faithful, constrained editing.
Existing indoor scene generation methods struggle to simultaneously achieve high photorealism, fine-grained object-level control, and global style consistency. To address this challenge, this work proposes a tri-branch collaborative generation model that uniquely integrates multimodal graph conditioning with rectified flow mechanisms. Specifically, a multimodal graph neural network models inter-object relationships, while tightly coupled rectified flows across layout, shape, and texture branches enable dynamic interaction of object information and style alignment during generation. The proposed approach significantly outperforms current language- or graph-conditioned baselines in terms of photorealism, style coherence, and human preference, achieving synergistic optimization between object-level precision and scene-level stylistic unity.
This work addresses the challenge of optimizing advertisers’ cumulative value under strict budget constraints in low-data regimes within online advertising. To this end, the authors propose DARA, a two-stage framework: the first stage leverages the in-context learning capability of large language models (LLMs) to generate an initial campaign plan, while the second stage refines this plan through feedback-driven reasoning for precise numerical optimization. The approach innovatively combines the few-shot generalization strength of LLMs with reinforcement learning fine-tuning, introducing a GRPO-Adaptive policy that dynamically optimizes the reference strategy. By decoupling the decision process into distinct reasoning and optimization phases, DARA achieves superior performance over existing baselines on both real-world and synthetic datasets, consistently enhancing advertisers’ cumulative value under stringent budget limitations.
Existing 3D urban generation methods rely on monolithic diffusion models, limiting both personalization and scalable expansion. To address this, we propose a top-down hierarchical planning framework—“City–District–Grid”—that integrates large language model (LLM)-driven reasoning to enable user-guided, customizable design and continuous urban evolution. Our key innovation is a relation-guided interactive expansion mechanism, incorporating scene-graph-aware distance constraints and semantic layout optimization to ensure spatial coherence. We further introduce a multi-dimensional evaluation benchmark covering semantic fidelity, geometric accuracy, texture quality, and layout合理性, with six quantitative metrics. Leveraging a “generate–optimize–evaluate” image synthesis loop and image-to-3D reconstruction, our method jointly synthesizes hierarchical structure and local details. Experiments demonstrate state-of-the-art performance across generation quality, scalability, and user controllability.