They get filed as rivals because both promise "one API for every model." But one is a hosted marketplace you buy from, the other is infrastructure you run — and the smart move is often to use both.
Gemini's audio tokens look 10x cheaper than OpenAI's — until you learn it re-bills the whole conversation every turn. The real fork is transport, not price.
The real question isn't which isolation feature to use. It's where the tenant boundary lives — and what happens the one time a code path forgets to apply it.
One framework makes you draw the control-flow graph up front; the other lets it emerge from events. Pick by whether your hardest requirement is durable recovery or flexible composition.
Four open-weight MoE models now run real agents. The headline parameter counts are nearly decorative — pick by active params and post-training, not by the leaderboard screenshot.
A max-step counter is the reflex, and it's necessary — but it caps the damage without fixing the cause. Agents loop because the thing they see never changes, and that's a fixable problem.
Durable execution and checkpointing give you at-least-once replay, which is strictly worse for side-effecting tools — unless you attach a stable idempotency key before the call, not after the crash.
Print statements debug code. But the agent's code did exactly what it was told — the bug is in the context the model saw and the decision it made there. You debug an agent by reading transcripts, not by stepping through functions.
Google's Antigravity, Cursor, and Claude Code now all hit ~80% on SWE-bench. So the real difference isn't who writes better code — it's where each one puts the work of checking it.
Google's Genkit is the framework that bundles the parts the others sell separately. The real choice isn't features — it's where your code runs and how much of your ops you want the framework to own.
Three ways to keep an agent's untrusted code off your host kernel — and why the right choice is a triangle of compatibility, cold-start speed, and operational weight, not a security ranking.
The bottleneck in a coding agent isn't the smart model deciding what to change. It's the dull mechanical work of writing that change to disk correctly — and that's a different model entirely.
The async coding agents have all converged on the same shape — a cloud VM that clones your repo, runs the tests, and opens a PR. So the thing you're actually choosing isn't the coder. It's the harness and who reviews the flood.
DeepSeek's October paper shows vision tokens can carry roughly 10x the text of text tokens at ~97% fidelity — which quietly reframes long context as a compression problem, not a capacity one.
A long-running agent fails when its window fills with stale tool output. Anthropic ships three levers for that — and the trap is treating them as competitors instead of a division of labor.
The two best coding agents disagree at the architecture level on how to find the right code. One builds a vector index of your repo; the other threw the index away and runs grep. The split is about freshness, not accuracy.
One paradigm has an agent write a Python snippet as its action; the other has it emit a structured JSON tool call. The 20% accuracy gap everyone quotes is real — but only on the tasks where it applies.
They both promise durable, resumable agents — but one is a place to run code and the other is a way to structure it. Confusing the two is how teams end up with neither.
A Stanford/SambaNova method called ACE lets an agent get better by editing its own context instead of its weights — and the trick is to grow that context, not compress it.
Three platforms that look like competitors but optimize for different primary jobs, with lock-in profiles that diverge sharply once you read the fine print.
A deep agent is not a new model or a framework breakthrough — it's four cheap, known ingredients that let a plain tool-calling loop survive a long task instead of drifting.
Most teams buy one vector store and call it 'memory.' It solves exactly one of the four problems — which is why the agent still loses the thread and repeats yesterday's mistake.
Everyone has GRPO now — it ships in every training library. The scarce, defensible input in agent training turned out to be the environment, and it looks suspiciously like your eval.
The chunk that matches your query best is rarely the chunk that answers it. Small-to-big retrieval fixes that — here's how the three patterns differ and which to reach for.
The list reads like a model-safety checklist. Read it again: most of the ten are not the model misbehaving — they're your architecture trusting the model too much. Agents make exactly those entries worse.
OpenAI shipped a drag-and-drop agent canvas in October, then posted its deprecation notice eight months later. The part that survived tells you which layer to build on.
The July 28 release candidate rips out sessions and the initialize handshake, deprecates Sampling and Roots, and adds MCP Apps — the clean break agent developers have to plan for.
Most teams assume LangGraph's checkpointer already makes their agents crash-proof. It doesn't — and the gap is architectural, not a missing setting. Here's exactly where it ends and where Temporal begins.
LangChain 1.0 reduced the agent to two lines and moved everything interesting into hooks. The quiet consequence: supervisor, swarm, and reflection stop being architectures and become middleware you stack.