
CludeAI
37 posts

CludeAI
@cludeproject
Persistent memory that learns, consolidates, and proves itself on-chain. 83.9/100 benchmark By: @sebbsssss. TG: https://t.co/bP2DK447Mm



Every AI chat stores your data on their servers, forgets you every session, and trains on your conversations. If you ask me, I don’t like AI surveillance Clude Chat on @AskVenice is different. • Chat history lives on your device only • Decentralized GPUs with zero data retention • End-to-end encryption, decrypted only in verified hardware enclaves • Memory that persists and learns who you are An AI that remembers you. Infrastructure that can't. ➡️ Coming soon Vires In Numeris





OpenClaw: autonomous AI agents that can do anything. MiroFish: 500K agent simulations at swarm scale. Clude: the memory layer that makes both actually work. - Autonomy without memory is amnesia. - Scale without memory is chaos. - An autonomous agent that forgets everything between sessions isn't autonomous. A swarm of 500K agents where each one hallucinates 20% of the time isn't a swarm, it's a liability. @cludeproject 1.96% hallucination. 100% recall. We basically augment and improve any AI out there today

Hey Brian, would love to work with you on the 750K agent challenge. I built @cludeproject to handle specifically on Agent memory architecture. We scored 100% on LoCoMo benchmark, 69% on LongMemEval with ~2% hallucinations. We benchmarked 1,000 agents with three memory approaches: Basic RAG > 53% hallucination by round 50, $0.015/query OpenViking > 26% hallucination, $0.008/query Clude > ~2% hallucination, $0.001/query 26% hallucination at 750K means 195K agents get confidently wrong every round. Would love for you to explore what we've built. Memory is the unlock for the next order of magnitude. 1,000,000 agents with persistent memory next?

Brian Roemmele (@BrianRoemmele) created 500,000 AI agents in one simulation with MiroFish - There's so much potential use cases with Miro; hats off to the dev! However, nobody is talking about the short-term memory each agent has. One agent hallucinates a fact. Shares it. 10 agents now believe it. They share it. 50 rounds later, your entire simulation is making decisions based on things that never happened. @cludeproject is testing what happens when you give swarm agents real memory. Testing Clude memory architecture on a MiroFish-style swarm. Running the experiment now.




Every time a new AI model drops with a 1-million token context window, the tech world celebrates. And for deep, single session analysis of massive documents, it truly is an incredible leap forward. But using these massive context windows as a substitute for long-term memory is fundamentally unscalable. Here is the educational breakdown of why. The Hidden Cost of Context When you use a context window, the model processes every single token, every single time you hit send. If you load up 1M tokens and ask a simple question, the LLM still reads all 1M tokens before answering. With a model like GPT-4.5, that scales to a staggering $75 per query. The Architectural Fix: Retrieval Memory retrieval systems (like Clude) use a completely different approach. Instead of forcing the AI to reread the entire library every time, the system runs a quick vector search to find only the relevant information, sending a tiny payload (usually ~2,000 tokens) to the LLM. The Math at Scale Because retrieval sends only what matters, your costs stay flat. If you run 1,000 queries a day against a 500K memory bank: • Context stuffing (GPT-4o): ~$37,530 / month • Memory retrieval (Clude + GPT-4o): ~$182 / month You get the exact same answers from the exact same models, but it costs ~200x less. Giant context windows are amazing tools, but for scalable memory, they force your costs to scale linearly. Memory retrieval keeps them flat Pick your poison

🚨 BREAKING: IBM just admitted your AI agent forgets everything the moment it finishes a task. > Every mistake. Repeated. > Every inefficiency. Repeated. > Every failure. Repeated. They built the fix. > Every AI agent starts each task from zero: > No memory of what worked. > No memory of what failed. > No memory of the faster path it found yesterday. IBM built a fix called Trajectory-Informed Memory. It watches the agent's full execution and extracts three types of reusable tips: > what worked > what failed and how it recovered > what succeeded but wasted steps Those tips get injected into the agent's prompt next time a similar task appears. The model stays frozen. No retraining. Only the memory evolves. > 14.3 pp gain in scenario completion on tasks never seen before > Complex tasks: 19.1% → 47.6% scenario completion, a 149% relative increase > Zero retraining required The 149% on hard tasks is the number. These are 50+ step workflows across multiple apps. Exactly where agents break in production.


you cannot fix higher order problems if the system cant remember what its doing while its doing it memory is the dominant bottleneck + the one that blocks all the others (autonomy, coordination, scale) clear it, progress resumes ignore it, nothing else compounds




