Open weights are important and critical, but they are not enough by themselves. If we want open ML and AI research to move forward, we also need open training frameworks: codebases that do more than run jobs. They should make the training process visible, understandable, and modifiable, so researchers/engineers/practitioner can build new algorithms instead of fighting hidden systems. That was the motivation behind FeynRL (pronounced “FineRL”) a framework I built for RL post-training of LLMs, VLMs, and agents. RL is already hard to make work. With LLMs, VLM, and agents, it becomes even messier: rollout engines, reward computation, distributed training, weight syncing, credit assignment problems, long-horizon behavior, and many small implementation details that can quietly break everything. The core idea behind FeynRL is simple: algorithms should stay algorithms, systems should stay systems, and researchers/engineers/practitioner should be able to understand the full training loop end-to-end without spending days or weeks. GitHub: https://github.com/FeynRL-project/FeynRL The framework is designed to keep the framework explicit: from data loading and rollout generation to reward computation, loss construction, optimization, and evaluation. The goal is to make it easier to develop new algorithms, training recipes, reward designs, rollout strategies, and optimization methods without going through a convoluted hidden system. The framework currently includes examples for SFT, DPO, and RL-style post-training for both vllm and llm, with support for single-GPU, multi-GPU, and cluster setups. Would love feedback, issues, suggestions. Also, curious to hear what parts of RL post-training infrastructure people still find too hidden, hard to debug, or hard to modify. submitted by /u/summerday10 [link] [Kommentare]
Bought some years ago and is now in a paper wallet, but I never wrote down what this logo is lol Ikik Any help is appreciated submitted by /u/Feed-Your-Fish [link] [Kommentare]
New features include: - on-camera person detection - closer depth perception - new browser based viewer More info: https://github.com/realsenseai/librealsense/releases/tag/v2.58.2 submitted by /u/Chemical-Hunter-5479 [link] [Kommentare]
Hi everyone, I’m a recent CS graduate working mainly on NLP/LLMs and VLMs failures. I’m currently in a phase where I can dedicate a lot of focused time to research, but the main bottleneck holding me back is compute. I know “asking for GPUs” can sound vague or unserious, so I want to be transparent. I’m not looking for free compute to casually experiment or waste cycles. I have already been actively publishing and submitting research, including papers at EACL 2026, IJCNLP-AACL 2025, MICCAI 2026, an EMNLP 2025 workshop paper, and a recent ARR submission. I’m happy to share my Google Scholar/CV/papers privately with anyone interested. The ideas I’m currently working on are GPU-intensive, mostly around LLMs, NLP, and VLMs. I’ve discussed some of them with PhD friends/peers, and the feedback has been encouraging. The goal is to develop these ideas into strong, publishable work, ideally targeting top conferences such as *CL venues, CVPR, ICLR, and related ML/AI conferences. To run the experiments properly, I likely need more than a single consumer GPU. Ideally, I’m looking for access to something like a 4x or 8x GPU setup, L40S, A100, H100, H200, or similar. I understand that asking for H100/H200-class compute is a big ask, so I’m also open to scheduled access, partial access, university/lab cluster time, unused credits, or any practical arrangement. What I can offer: Serious research effort and consistent execution Weekly progress updates, logs, and experiment summaries Clear compute usage reports so the resources are not wasted Reproducible code, experiment tracking, and documentation Open discussion of ideas before running expensive experiments Proper acknowledgment of compute support Co-authorship To be very clear: this is purely for research work, no mining, no commercial misuse, no unrelated jobs. I’m comfortable discussing the project scope, risks, expected compute needs, and authorship/acknowledgment expectations before using anything. I know this is a long shot. Maybe nothing comes out of it. But I also know many early-career researchers face this same wall: you may have the time, motivation, and ideas, but not the infrastructure to test them properly. So I’m putting this out here in case someone has unused compute, lab access, cloud credits, or is interested in collaborating on publishable research. If this sounds relevant, please DM me or comment, and I’ll be happy to share more details about my background and the research directions. Thanks for reading. submitted by /u/Academic-Success9525 [link] [Kommentare]
With NVIDIA Jetson AGX Thor bringing a major jump in AI performance, I've been wondering whether the next bottleneck in embedded vision systems will no longer be compute—but camera architecture. In many real-world deployments, challenges often come from: Multi-camera synchronization Camera bandwidth Sensor interface limitations High-resolution video pipelines System latency Memory throughput As AI compute becomes less of a constraint, do you think future vision systems will be limited more by how cameras are connected and managed than by inference performance itself? For example: Will larger multi-camera systems become more common? Which interfaces are best positioned for next-generation systems: MIPI, GMSL, Ethernet, or something else? What challenges do you see when scaling vision systems for robotics, autonomous machines, or industrial automation? One interesting point I've been seeing is that discussions around AGX Thor are increasingly focused on sensor bandwidth, camera scalability, and system architecture rather than AI performance alone. Curious to hear how others see AGX Thor changing embedded vision system design over the next few years. For anyone interested, I recently came across a discussion on AGX Thor from a vision-system perspective that covers camera integration, multi-camera scalability, and future deployment considerations: 🎧 NVIDIA Jetson AGX Thor Vision Systems: Camera Integration and Deployment Considerations What do you think will be the biggest bottleneck in next-generation vision systems? AI compute, camera architecture, memory bandwidth, or something else? submitted by /u/Wonderful-Brush-2843 [link] [Kommentare]
Can anybody throw me a dollar on ETH so I can move my balance? I'll repay you plus some. Really i just need like 18 cents lol message me for my address. submitted by /u/LukeIsLostAF [link] [Kommentare]
A high-performance Windows user space emulator.