🤖 AI Research - Writing and Collaboration
Writing and thinking hard about what words mean and evoke in readers is crucial for effective communication in the AI research community. Junior researchers can benefit from honing their writing skills and considering the impact of their words on readers.
Key Points:
Writing for Impact: Understanding the nuances of language and its impact on readers is essential for effective communication in AI research.
Collaborative Writing: Encouraging junior researchers to practice writing and thinking critically about their words can lead to improved collaboration and more effective communication.
Reader-Centric Approach: Focusing on the reader's perspective and understanding can help researchers craft more engaging and effective writing.
🔗 Resources:
- Original post
- Original source
- Benno Krojer
- Writing for Impact
🚀 ScienceBuddy - Interactive Research Workspace
ScienceBuddy is an interactive research workspace that improves through collaboration. It was initiated by @PhAILabs with @muchencq (Muchen AI) as the joint R&D partner. ScienceBuddy uses Recursive-in-Recursive Self-Improvement to improve through collaboration.
Key Points:
Interactive Research Workspace: ScienceBuddy is an interactive research workspace that improves through collaboration.
Recursive-in-Recursive Self-Improvement: ScienceBuddy uses a recursive approach to self-improve through collaboration.
Collaborative Research: ScienceBuddy enables collaborative research through its interactive workspace.
🔗 Resources:
- Original post
- Original source
- ScienceBuddy
- Charles Y. Wu
📈 Meta's Segment Anything Model (SAM) 3.1
Meta's Segment Anything Model (SAM) 3.1 is now available on Meta Model API. It provides a fast and lightweight model for detection, segmentation, and tracking in a single call on inference tuned for SAM 3.1's architecture.
Key Points:
Segment Anything Model (SAM) 3.1: SAM 3.1 is a fast and lightweight model for detection, segmentation, and tracking.
Single Call Inference: SAM 3.1 provides a single call inference for detection, segmentation, and tracking.
Architecture Tuning: SAM 3.1's architecture is tuned for inference.
🔗 Resources:
- Original post
- Original source
- Meta's Segment Anything Model (SAM) 3.1
- Meta for Developers
🚀 Self-Evolving Agent Harnesses
NVIDIA's paper on self-evolving agent harnesses introduces SoL-Pi, which cuts token traffic by nearly half. SoL-Pi matches its baseline harness on GPT-5.6 Sol and Opus 5.
Key Points:
Self-Evolving Agent Harnesses: NVIDIA's paper introduces self-evolving agent harnesses.
SoL-Pi: SoL-Pi cuts token traffic by nearly half and matches its baseline harness on GPT-5.6 Sol and Opus 5.
Token Traffic Reduction: SoL-Pi reduces token traffic by nearly half.
🔗 Resources:
- Original post
- Original source
- Omar Sar
- NVIDIA
🤖 ABC - Open Teleop Dataset
ABC is a fully open teleop dataset that includes 3,500 hours, 130K+ episodes, 195 tasks, collected on an $8K bimanual setup. The full stack is open, including hardware, training code, sim, and eval.
Key Points:
ABC - Open Teleop Dataset: ABC is a fully open teleop dataset.
3,500 Hours of Data: ABC includes 3,500 hours of data.
130K+ Episodes: ABC includes 130K+ episodes.
195 Tasks: ABC includes 195 tasks.
Full Stack Open: The full stack of ABC is open, including hardware, training code, sim, and eval.
🔗 Resources:
- Original post
- Original source
- Redstone Hong
- ABC
🤖 Booster MJLab
Booster MJLab is an interactive research workspace that includes a velocity tracking task, motion tracking, an AMP implementation, and more. The project page and demos are available at https://intelligentroboticslab.github.io/booster_mjlab/.
Key Points:
Booster MJLab: Booster MJLab is an interactive research workspace.
Velocity Tracking Task: Booster MJLab includes a velocity tracking task.
Motion Tracking: Booster MJLab includes motion tracking.
AMP Implementation: Booster MJLab includes an AMP implementation.
🔗 Resources:
- Original post
- Original source
- Booster MJLab
- Gijs Djikstra
🤖 SNAP3D
SNAP3D decomposes objects into semantic parts, generates complementary peg-and-socket connectors, optimizes parts and connectors for physical assembly, verifies that the assembled object is stable, and verifies that the assembled object is fabricable.
Key Points:
SNAP3D: SNAP3D decomposes objects into semantic parts.
Semantic Parts Decomposition: SNAP3D generates complementary peg-and-socket connectors.
Physical Assembly Optimization: SNAP3D optimizes parts and connectors for physical assembly.
Stability Verification: SNAP3D verifies that the assembled object is stable.
Fabricability Verification: SNAP3D verifies that the assembled object is fabricable.
🔗 Resources:
- Original post
- Original source
- Xiaoxuan Ma
- SNAP3D
🚫 Quitting Google DeepMind
After 10 incredible years, I've decided to quit Google DeepMind. I'll be joining @sirbayes' team to continue the work on curriculum design, towards a general computational model of teaching.
Key Points:
Quitting Google DeepMind: I've decided to quit Google DeepMind after 10 incredible years.
Joining Sir Bayes' Team: I'll be joining @sirbayes' team to continue the work on curriculum design.
Curriculum Design: I'll be working on curriculum design towards a general computational model of teaching.
🔗 Resources:
- Original post
- Original source
- Csaba Botos
- Google DeepMind
🤖 Functionalization
Functionalization is a graph completion approach that adds missing structure and connectors to rectify motion and make models work. The SIGGRAPH Asia 2026 Paper, code, and data are available at https://mingrui-zhao.github.io/Functionalization/.
Key Points:
Functionalization: Functionalization is a graph completion approach.
Graph Completion: Functionalization adds missing structure and connectors to rectify motion.
Model Rectification: Functionalization makes models work by rectifying motion.
🔗 Resources:
- Original post
- Original source
- Mingrui Zhao
- Functionalization
🤖 Writing Fun Papers
You can slop-o-write a paper and submit it. But can you write one that's actually fun, cool, and a little nuts? We need more of them.
Key Points:
Writing Fun Papers: Writing fun papers is essential for the AI research community.
Fun Papers: Fun papers should be engaging, cool, and a little nuts.
Encouraging Fun Papers: We need more fun papers in the AI research community.
🔗 Resources:
- Original post
- Original source
- Dimitris Papail
- Writing Fun Papers
Read More & Connect
Interactive version: blogs.drix10.com
Written by Drishtant Ghosh (Drix10), a technical founder and engineer working across AI systems, developer infrastructure, and cybersecurity.
- Blog: blogs.drix10.com
- Portfolio: drix10.com
- GitHub: github.com/Drix10
- LinkedIn: linkedin.com/in/drix10
- X: @DrishtantGhosh
- Email: ggdrishtant@gmail.com
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