AI Breakdown

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Apr 28, 2025 • 7min

Arxiv paper - MCNC: MANIFOLD-CONSTRAINED REPARAMETERIZATION FOR NEURAL COMPRESSION

In this episode, we discuss MCNC: MANIFOLD-CONSTRAINED REPARAMETERIZATION FOR NEURAL COMPRESSION by The authors of the paper are: - Chayne Thrash - Ali Abbasi - Reed Andreas - Parsa Nooralinejad - Soroush Abbasi Koohpayegani - Hamed Pirsiavash - Soheil Kolouri. The paper introduces Manifold-Constrained Neural Compression (MCNC), a novel model compression technique that confines parameters to low-dimensional, pre-defined nonlinear manifolds. This approach leverages the over-parameterization of deep networks to find high-quality solutions while achieving superior compression rates. Experiments across computer vision and NLP tasks show that MCNC outperforms existing methods in compression efficiency, accuracy, and reconstruction speed.
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Apr 23, 2025 • 6min

Arxiv paper - Self-Improving Robust Preference Optimization

In this episode, we discuss Self-Improving Robust Preference Optimization by Eugene Choi, Arash Ahmadian, Matthieu Geist, Oilvier Pietquin, Mohammad Gheshlaghi Azar. The paper introduces Self-Improving Robust Preference Optimization (SRPO), an offline RLHF framework that enables models to self-improve and generalize across tasks by jointly optimizing a self-improvement and generative policy through a min-max objective. SRPO reformulates this objective into a non-adversarial offline loss that can be efficiently optimized using supervised learning. Experiments show SRPO significantly outperforms existing methods like DPO and IPO on benchmarks such as XSum and Arena-Hard, achieving higher win rates against human and AI baselines.
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Apr 22, 2025 • 5min

Arxiv paper - LLM Post-Training: A Deep Dive into Reasoning Large Language Models

In this episode, we discuss LLM Post-Training: A Deep Dive into Reasoning Large Language Models by Komal Kumar, Tajamul Ashraf, Omkar Thawakar, Rao Muhammad Anwer, Hisham Cholakkal, Mubarak Shah, Ming-Hsuan Yang, Phillip H. S. Torr, Fahad Shahbaz Khan, Salman Khan. The paper surveys post-training techniques for Large Language Models (LLMs) that enhance performance beyond initial pretraining, focusing on fine-tuning, reinforcement learning, and test-time scaling. It addresses challenges like catastrophic forgetting and reward hacking while exploring model alignment and scalable adaptation. The survey also provides a public repository to track ongoing advancements in post-training methods.
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Apr 21, 2025 • 7min

Arxiv paper - Welcome to the Era of Experience

In this episode, we discuss Welcome to the Era of Experience by David Silver, Richard S. Sutton. The paper discusses the forthcoming era of artificial intelligence marked by agents with superhuman capabilities. These agents will primarily learn through experience. The note highlights the essential features that will characterize this new phase in AI development.
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Apr 19, 2025 • 6min

Arxiv paper - MALT Diffusion: Memory-Augmented Latent Transformers for Any-Length Video Generation

In this episode, we discuss MALT Diffusion: Memory-Augmented Latent Transformers for Any-Length Video Generation by Sihyun Yu, Meera Hahn, Dan Kondratyuk, Jinwoo Shin, Agrim Gupta, José Lezama, Irfan Essa, David Ross, Jonathan Huang. The paper introduces MALT Diffusion, a new diffusion model designed for generating long videos by dividing them into short segments and using recurrent attention to maintain a memory latent vector for long-term context. It presents training techniques to ensure consistent quality over extended frames and demonstrates superior performance on long video benchmarks, significantly improving FVD scores. Additionally, MALT shows strong results in text-to-video generation, capable of producing longer videos than existing methods.
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Apr 17, 2025 • 6min

Arxiv paper - InternVL3: Exploring Advanced Training and Test-Time Recipes for Open-Source Multimodal Models

In this episode, we discuss InternVL3: Exploring Advanced Training and Test-Time Recipes for Open-Source Multimodal Models by The authors of the paper "InternVL3: Exploring Advanced Training and Test-Time Recipes for Open-Source Multimodal Models" are as follows: 1. **Jinguo Zhu** 2. **Weiyun Wang** 3. **Zhe Chen** 4. ... InternVL3 advances the InternVL series by jointly training on multimodal and text data in a unified pre-training stage, avoiding the complexities of adapting text-only models to handle visual inputs. It incorporates features like variable visual position encoding and advanced fine-tuning techniques, achieving state-of-the-art performance on benchmarks such as MMMU and competing with leading proprietary models. Committed to open science, the authors plan to publicly release both the training data and model weights to support further research in multimodal large language models.
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Apr 16, 2025 • 5min

Arxiv paper - EquiVDM: Equivariant Video Diffusion Models with Temporally Consistent Noise

In this episode, we discuss EquiVDM: Equivariant Video Diffusion Models with Temporally Consistent Noise by The authors of the paper are: - **Chao Liu** - **Arash Vahdat**. The paper presents a video diffusion framework that utilizes temporally consistent noise to generate coherent and high-quality video frames without needing specialized modules. By ensuring the model handles spatial transformations consistently, it effectively captures and aligns motion patterns from input videos and maintains 3D consistency when extended to 3D meshes. Experimental results show that this method outperforms current state-of-the-art approaches in motion alignment, 3D consistency, video quality, and efficiency.
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Apr 16, 2025 • 6min

Arxiv paper - TinyLLaVA-Video-R1: Towards Smaller LMMs for Video Reasoning

In this episode, we discuss TinyLLaVA-Video-R1: Towards Smaller LMMs for Video Reasoning by Xingjian Zhang, Siwei Wen, Wenjun Wu, Lei Huang. The paper introduces TinyLLaVA-Video-R1, a small-scale video reasoning model with no more than 4 billion parameters, designed to enhance reasoning abilities using reinforcement learning on general Video-QA datasets. Unlike previous studies that focus on large models and specialized datasets, this work demonstrates significant improvements in reasoning and the emergence of "aha moments" in a more computationally accessible model. The authors also provide experimental insights to guide future research in developing video reasoning capabilities for smaller models.
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Apr 9, 2025 • 4min

Arxiv paper - Reasoning Models Don’t Always Say What They Think

In this episode, we discuss Reasoning Models Don’t Always Say What They Think by The authors of the paper "Reasoning Models Don’t Always Say What They Think" are: 1. Yanda Chen 2. Joe Benton 3. Ansh Radhakrishnan 4. Jonathan Uesato 5. Carson Denison 6. John Schulman 7. Arushi Somani 8. Peter Hase 9. Misha Wagner 10. Fabien Roger 11. Vlad Mikulik 12. Sam Bowman 13. Jan Leike 14. Jared Kaplan 15. Ethan Perez 16. Alignment Science Team, Anthropic **Notes:** - John Schulman and Peter Hase contributed work while at Anthropic. - Correspondence can be addressed to Yanda Chen and Ethan Perez at Anthropic (`{yanda,ethan}@anthropic.com`).. The paper examines how accurately chain-of-thought (CoT) reasoning reflects the true reasoning processes of advanced AI models. It finds that CoTs only occasionally reveal the use of reasoning hints, with effectiveness limited even after reinforcement learning enhancements. The study concludes that while CoT monitoring can help identify some undesired behaviors, it alone is not enough to reliably prevent rare or severe unexpected actions.
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Apr 7, 2025 • 5min

Arxiv paper - Slow-Fast Architecture for Video Multi-Modal Large Language Models

In this episode, we discuss Slow-Fast Architecture for Video Multi-Modal Large Language Models by Min Shi, Shihao Wang, Chieh-Yun Chen, Jitesh Jain, Kai Wang, Junjun Xiong, Guilin Liu, Zhiding Yu, Humphrey Shi. The paper presents a slow-fast architecture for video-based multi-modal large language models that uses a dual-token system to balance temporal resolution and spatial detail efficiently. "Fast" tokens provide a compressed overview of the video, while "slow" tokens deliver detailed, instruction-aware visual information, allowing the model to handle more frames with minimal extra computation. Experimental results show that this approach significantly outperforms existing methods, enhancing input capacity and achieving state-of-the-art performance among similar-sized models.

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