Gemma 4 has incredible capabilities for such small models. Follow @googlegemma for the latest information.
→ View original post on X — @demishassabis, 2026-04-03 14:01 UTC

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Gemma 4 has incredible capabilities for such small models. Follow @googlegemma for the latest information.
→ View original post on X — @demishassabis, 2026-04-03 14:01 UTC

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Gemma 4 outperforms models over 10x their size! (note the x-axis is log scale!) [Translated from EN to English]
→ View original post on X — @demishassabis, 2026-04-03 14:01 UTC
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I took Stanford functional analysis with Paul Cohen. One of the best educational experiences of my life.
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🐍 YOLOv11: The Next Leap in Real-Time Detection
— Satya Mallick (@LearnOpenCV) 3 avril 2026
For nearly a decade, the YOLO family kept pushing real-time object detection forward. In 2024, YOLOv11 arrived faster, more accurate, and easier to deploy. 🚀
With improved multi-scale fusion, streamlined inference, and models… pic.twitter.com/4T0rz9yv6x
🐍 YOLOv11: The Next Leap in Real-Time Detection For nearly a decade, the YOLO family kept pushing real-time object detection forward. In 2024, YOLOv11 arrived faster, more accurate, and easier to deploy. 🚀 With improved multi-scale fusion, streamlined inference, and models sized for both edge devices and maximum accuracy, YOLOv11 stayed true to the YOLO philosophy: fast enough for real-time, accurate enough for production, simple enough to deploy everywhere. ⚡ #YOLOv11 #ComputerVision #DeepLearning #AI #ObjectDetection #MachineLearning #AIResearch #DataScience 🤖
→ View original post on X — @learnopencv, 2026-04-03 13:26 UTC
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I made a Claude Code skill that turns any arxiv paper into working code.
— pdawg (@prathamgrv) 3 avril 2026
Every line traces back to the paper section it came from & any implementation detail the paper skips will be flagged, and not assumed.
open sourcing it –https://t.co/sSio4JfpIo pic.twitter.com/5XqlGgQsqC
I made a Claude Code skill that turns any arxiv paper into working code. Every line traces back to the paper section it came from & any implementation detail the paper skips will be flagged, and not assumed. open sourcing it – github.com/PrathamLearnsToCo…

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Netflix: surprise we just released our new AI model VOID on @huggingface. Capabilities of Netflix's VOID Model:
– Object Removal with Environmental Awareness.
– Physical Interaction Handling.
– Open-Weight Access. [Translated from EN to English]
→ View original post on X — @huggingface, 2026-04-03 13:20 UTC
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Holy: OpenAI says it’s reallocating compute and talent toward its next generation of models, echoing the internal shift that preceded GPT-3.
— Chubby♨️ (@kimmonismus) 3 avril 2026
The focus now is on “automated researchers” and agent-based systems that can execute complex tasks end-to-end.
It’s a signal that the lab… pic.twitter.com/4jMc4eJgTR
Holy: OpenAI says it’s reallocating compute and talent toward its next generation of models, echoing the internal shift that preceded GPT-3. The focus now is on “automated researchers” and agent-based systems that can execute complex tasks end-to-end. It’s a signal that the lab

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If you found it useful, reshare it with your network Follow me → @Sumanth_077 for more insights and tutorials on AI Engineering! nitter.net/Sumanth_077/status/204… Sumanth (@Sumanth_077) Clone a human voice in real time without tokenization! VoxCPM is an open-source text-to-speech system that models speech in continuous space instead of discrete tokens. Most TTS systems convert speech to discrete tokens before generation. This quantization creates a fundamental trade-off: tokens provide stability but lose acoustic details like breath, vocal texture, and subtle articulation. VoxCPM skips tokenization entirely. It models speech directly in continuous space using an end-to-end diffusion autoregressive architecture built on MiniCPM-4. The system uses hierarchical language modeling with two specialized components: a Text-Semantic Language Model that captures high-level prosody and structure, and a Residual Acoustic Model that recovers fine-grained acoustic details. This separation eliminates dependency on external speech tokenizers and prevents error accumulation from multi-stage pipelines. Two flagship capabilities: 1. Context-aware speech generation: The model comprehends text to infer appropriate prosody and speaking style. Explanations slow down naturally, emphasis appears in the right places, questions sound like questions. 2. Zero-shot voice cloning: With just 3-10 seconds of reference audio, it replicates speaker timbre, accent, emotional tone, rhythm, and pacing. Key features: • Tokenizer-free architecture with continuous speech modeling • Context-aware prosody generation without manual tuning • Zero-shot voice cloning from short reference audio • Streaming synthesis support for real-time applications • SFT and LoRA fine-tuning support It's 100% open source Link to the GitHub repo in the comments! — https://nitter.net/Sumanth_077/status/2040055394958286903#m
→ View original post on X — @sumanth_077, 2026-04-03 13:15 UTC

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Clone a human voice in real time without tokenization! VoxCPM is an open-source text-to-speech system that models speech in continuous space instead of discrete tokens. Most TTS systems convert speech to discrete tokens before generation. This quantization creates a fundamental trade-off: tokens provide stability but lose acoustic details like breath, vocal texture, and subtle articulation. VoxCPM skips tokenization entirely. It models speech directly in continuous space using an end-to-end diffusion autoregressive architecture built on MiniCPM-4. The system uses hierarchical language modeling with two specialized components: a Text-Semantic Language Model that captures high-level prosody and structure, and a Residual Acoustic Model that recovers fine-grained acoustic details. This separation eliminates dependency on external speech tokenizers and prevents error accumulation from multi-stage pipelines. Two flagship capabilities: 1. Context-aware speech generation: The model comprehends text to infer appropriate prosody and speaking style. Explanations slow down naturally, emphasis appears in the right places, questions sound like questions. 2. Zero-shot voice cloning: With just 3-10 seconds of reference audio, it replicates speaker timbre, accent, emotional tone, rhythm, and pacing. Key features: • Tokenizer-free architecture with continuous speech modeling
• Context-aware prosody generation without manual tuning
• Zero-shot voice cloning from short reference audio
• Streaming synthesis support for real-time applications
• SFT and LoRA fine-tuning support It's 100% open source Link to the GitHub repo in the comments! [Translated from EN to English]
→ View original post on X — @sumanth_077, 2026-04-03 13:14 UTC

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8 RAG architectures for AI Engineers: (explained with usage) 1) Naive RAG – Retrieves documents purely based on vector similarity between the query embedding and stored embeddings. – Works best for simple, fact-based queries where direct semantic matching suffices. 2) Multimodal RAG – Handles multiple data types (text, images, audio, etc.) by embedding and retrieving across modalities. – Ideal for cross-modal retrieval tasks like answering a text query with both text and image context. 3) HyDE (Hypothetical Document Embeddings) – Queries are not semantically similar to documents. – This technique generates a hypothetical answer document from the query before retrieval. – Uses this generated document’s embedding to find more relevant real documents. 4) Corrective RAG – Validates retrieved results by comparing them against trusted sources (e.g., web search). – Ensures up-to-date and accurate information, filtering or correcting retrieved content before passing to the LLM. 5) Graph RAG – Converts retrieved content into a knowledge graph to capture relationships and entities. – Enhances reasoning by providing structured context alongside raw text to the LLM. 6) Hybrid RAG – Combines dense vector retrieval with graph-based retrieval in a single pipeline. – Useful when the task requires both unstructured text and structured relational data for richer answers. 7) Adaptive RAG – Dynamically decides if a query requires a simple direct retrieval or a multi-step reasoning chain. – Breaks complex queries into smaller sub-queries for better coverage and accuracy. 8) Agentic RAG – Uses AI agents with planning, reasoning (ReAct, CoT), and memory to orchestrate retrieval from multiple sources. – Best suited for complex workflows that require tool use, external APIs, or combining multiple RAG techniques. 👉 Over to you: Which RAG architecture do you use the most? _____ Share this with your network if you found this insightful ♻️ Find me → @akshay_pachaar ✔️ For more insights and tutorials on LLMs, AI Agents, and Machine Learning!
→ View original post on X — @akshay_pachaar, 2026-04-03 12:54 UTC