Google Brain founder, Andrew Ng:
"Prompting will die in 6 months.
Loops and Graphs are what's replacing it."
In 2 hours, he shows exactly what the best engineers already build instead, and how to start building it yourself.
The missing piece most people skip: how to connect those loops into a graph that compounds every time it runs.
Watch it, then read the full guide on loops and graphs below.
My friend at Anthropic makes $1.4M a year.
No MIT. No Stanford. No PhD.
I asked how their team actually ships autonomous agents.
He sent me an article most AI engineers missed.
It unpacks Anthropic's entire loop-engineering playbook: the 3-agent harness, all the team's internal essays, and how to copy it.
https://t.co/kNNDjtD1Y2
Bookmark it. Then read this setup ↓
Google acaba de soltar un curso de solo 1 hora sobre Ingeniería Agentiva que destroza a la mayoría de cursos de pago 🔥
Timestamps:
00:00 → Cómo construir tu primer agente de IA
08:24 → Memoria de agente (corta, persistente y larga)
28:34 → Bucles agentivos y agentes de larga duración
40:04 → MCP vs API (esto solo ya vale la pena)
1:00:22 → Sistemas multiagentivos
En 60 minutos aprendes más que en 10 cursos pagos. Míralo hoy. Luego lee el artículo y construye un sistema agentivo que se auto-mejora solo.
¿Lo vas a ver ahora o lo guardas para “después”? 👀
Alibaba engineer who leads Qwen explained the future of open agent models in 25 minutes - better than $2000 LLM training courses.
pre-train the base ->SFT -> RLHF -> tool use -> multi-modal -> ship a whole family (chat / VL / coder / math / QwQ).
That loop is why Qwen quietly became the most downloaded open model family on Hugging Face.
Qwen base + Qwen-VL + Qwen-Coder + QwQ reasoning - that's the stack.
Watch and save it, then read the article below.
Claim: Autoresearch that moves the frontier will be about better data: we call that *Autodata*.
🧵1/6 -- Paper is out! https://t.co/b8gOALndzy
Key idea: agentic data creation provides a way to *convert increased inference compute into higher quality model training*.
We show our method gives gains on computer science, legal and math problems over classical synthetic dataset creation methods.
We also show how to train (meta-optimize) such a data scientist agent, so that it can create even stronger data.
Overall, we believe this direction has the potential to change how we build AI data!
An algorithm that turns $1 into $36 billion over 22 years sounds like a false headline right.
It's actually Table 3 of a University of Johannesburg working paper (Nkomo & Kabundi, ERSA 394), a Kalman-filtered, momentum-extended Anticor algorithm (K-ACM), backtested on NYSE data from 1962–1984.
No capacity constraints. 10bps in costs, full liquidity assumed.
The mechanism trade on deviation from Kalman trend, not raw returns is genuinely interesting. The headline number is a backtest artifact.
Bookmark this!
Here is a condensed, high-impact version of the post:
Discover -> Hand off -> Verify -> Persist -> Schedule
This 12-page PDF completely changed how I build agentic systems. Here is the 5-step blueprint:
Discovery: The loop reads CI, issues, and commits to find what's worth fixing.
Handoff: Each finding gets an isolated git worktree so parallel agents never collide.
Verification: A second agent - built to assume the code is broken, reviews the work.
Persistence: Results land on disk, never in a temporary context window.
Scheduling: Automation fires the entire process on a timer, making it a true loop.
The key insight: An agent grading its own work always praises it. You need that second agent to say "no."
Read it now, then explore the article below.
The most important AI-in-medicine result of the last two years is the one almost nobody wants to repeat. Giving doctors a frontier model did not make them better diagnosticians.
In a randomized trial, physicians using GPT-4 plus standard resources scored 76% on diagnostic reasoning. The control group, using UpToDate and Google, scored 74%. Statistically a tie.
Here's the twist that should keep us up at night. The model alone, with no doctor attached, scored about 16 points higher than the physicians it was supposed to be helping.
So the AI was excellent. The doctors were fine. And the combination added almost nothing. The bottleneck wasn't the model's intelligence. It was the human-AI interface. We glance at the output, anchor on our first impression, and use the tool to confirm rather than to think.
That reframes the whole problem. We've spent two years racing to build models smart enough for medicine. This says the harder, less glamorous work is teaching clinicians how to actually use one. Capability was never the gap. Adoption behavior is.
What would it take to train a doctor who gets more than 2 points out of a system that's already better than them alone?
“Do as I Do: Dexterous Manipulation Data from Everyday Human Videos”
With how robot dexterity is bottlenecked by data as teleoperation and MoCap are expensive and internet videos are only observational, this paper turns normal RGB human videos into executable robot hand trajectories.
It reconstructs the hand and object, tracks the object with SAM 3D guided diffusion, then retargets the motion through physics-aware optimization so a real dexterous hand can do the same task.
The result is a path from internet video to real robot rollouts, with retargeting success improving from 25% to 71% on noisy reconstructions.