not just plain MoE but LatentMoE π
CODE
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llmfit: Auto-detect hardware and rank 206 models by VRAM compatibility
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Stop guessing which models fit in your VRAM! llmfit is a CLI tool that auto-detects your hardware and ranks 206 models by what actually runs on your system. You download a 70B model and hope it fits. Or you estimate memory requirements across quantization levels and still end
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GitHub Repository for AI Engineering Hub with Secure Deployment Steps
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Glad you liked it Avi! Here's I have put together all the steps in this Markdown file with all the commands: https://
github.com/patchy631/ai-e
ngineering-hub/tree/main/openclaw-secure-deployment
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Model optimization: context reduction saves download resources
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Yeah and it tries half context if nothing fits at full. Saves you from downloading models that won't work
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CLI vs MCP: Single-User Hackers Enterprise Teams
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CLI: Good for single-user mode, hackers.
MCP: Good for multi-user mode, teams/enterprises. -
CLI vs MCP: Single-User Hackers versus Multi-User Teams
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CLI: Good for single-user mode, hackers.
MCP: Good for multi-user mode, teams/enterprises. -
CLI vs MCP: Single-user versus Enterprise AI Interfaces
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CLI: Good for single-user mode, hackers.
MCP: Good for multi-user mode, teams/enterprises. -

Practical Linear Algebra for Data Science with Python Applications
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Practical Linear Algebra for #DataScience β From Core Concepts to Applications Using #Python β http://
amzn.to/3WWJKR4
ββββ
#DataScientist #AI #ML #MachineLearning #Mathematics -

Naive Bayes Classification Explained with Python Code and Resources
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Naive Bayes Classification, explained with Python code: https://
github.com/taspinar/siml/
blob/master/notebooks/Naive_Bayes.ipynb
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Learn more in this book: http://
amzn.to/312hAHF
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#DataScience #MachineLearning #AI #ML #Algorithms #Statistics #DataScientist #Mathematics -

LLM2Vec-Gen: Frozen LLMs Generate Better Embeddings Through Reasoning
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LLM2Vec-Gen represents a major paradigm shift for embeddings/retrieval. Why encode the query when the LLM already knows what to look for and can directly produce an embedding for it? Best part: itβs self-supervised, and it does all of this while the LLM remains completely frozen. Think about it: "solve xΒ² + 3x β 4 = 0" has zero reasoning in it. But the LLM's response does. By encoding the response, the embedding captures the reasoning — and the better the LLM reasons, the better the embedding. This is why our results scale with model size. As LLMs get smarter, our embeddings automatically get better. LLM2Vec-Gen is also the first demonstration of the promise of @ylecun's JEPA for text embeddings. The alignment loss is JEPA β predict in representation space, not token space. The reconstruction loss goes beyond — it keeps embeddings decodable. This paradigm shift opens new frontiers: π¬ Can we build a full JEPA for language where the teacher and student are the same LLM? β‘ Can LLMs reason in compressed space without ever generating text? π€ Can agents reason in compression tokens and carry that directly into retrieval? π¬ Can agents talk to each other in compression tokens instead of text — dense, fast, and still human-readable? LLM2Vec-Gen is a first step toward all four. Vaibhav Adlakha (@vaibhav_adlakha) Your LLM already knows the answer. Why is your embedding model still encoding the question? π¨Introducing LLM2Vec-Gen: your frozen LLM generates the answer's embedding in a single forward pass β without ever generating the answer. Not only that, the frozen LLM can decode the embedding back into text. π SOTA self-supervised embeddings π‘οΈ Free transfer of instruction-following, safety, and reasoning β https://nitter.net/vaibhav_adlakha/status/2032065008603951187#m
β View original post on X β @hugo_larochelle, 2026-03-12 12:37 UTC