惯性聚合 高效追踪和阅读你感兴趣的博客、新闻、科技资讯
阅读原文 在惯性聚合中打开

推荐订阅源

WordPress大学
WordPress大学
腾讯CDC
阮一峰的网络日志
阮一峰的网络日志
GbyAI
GbyAI
B
Blog RSS Feed
Engineering at Meta
Engineering at Meta
Google DeepMind News
Google DeepMind News
MyScale Blog
MyScale Blog
Last Week in AI
Last Week in AI
F
Fortinet All Blogs
云风的 BLOG
云风的 BLOG
N
Netflix TechBlog - Medium
G
Google Developers Blog
博客园_首页
有赞技术团队
有赞技术团队
V
V2EX
奇客Solidot–传递最新科技情报
奇客Solidot–传递最新科技情报
MongoDB | Blog
MongoDB | Blog
H
Help Net Security
aimingoo的专栏
aimingoo的专栏
月光博客
月光博客
Hugging Face - Blog
Hugging Face - Blog
The GitHub Blog
The GitHub Blog
S
SegmentFault 最新的问题

DEV Community

Authentication Security Deep Dive: From Brute Force to Salted Hashing (With Java Examples) Why AI Systems Don’t Fail — They Drift Spilling beans for how i learn for exam😁"Reinforcement Learning Cheat Sheet" I Replaced Chrome with Safari for AI Browser Automation. Here's What Broke (and What Finally Worked) How Python Borrows Other People's Work The $40 Architecture: Processing 1 Billion API Requests with 99.99% Uptime Vibe Coding: A Workflow Guide (From Zero to SaaS) Most webhook security guides protect the wrong side. The scary part is delivery. Headless CMS for TanStack Start: Build a Blog with Cosmic EU Age Verification App "Hacked in 2 Minutes" — What Actually Happened Comfy Cloud’s delete function does not actually remove files Running AI Models on GPU Cloud Servers: A Beginner Guide Event-driven media intelligence with AWS Step Functions and Bedrock I scored 500 AI prompts across 8 quality dimensions — here's what broke How to Call Google Gemini API from Next.js (Free Tier, No Backend Needed) The Portal Protocol: Reclaiming Human Connection in the Age of AI How to Fix Your Team's Scattered Knowledge Problem With a Self-Hosted Forum Intro to tc Cloud Functors: A Graph-First Mental Model for the Modern Cloud Designing Multi-Tenant Backends With Both Ownership and Team Access I Built a Neumorphic CSS Library with 77+ Components — Here's What I Learned PostgreSQL Performance Optimization: Why Connection Pooling Is Critical at Scale Cómo construí un SaaS multi-rubro para gestionar expensas en Argentina con FastAPI + Vue 3 🚀 I Built an Ethical Hacking Scanner Tool – Open Source Project I Replaced /usage and /context in Claude Code With a Single Statusline A Pythonic Way to Handle Emails (IMAP/SMTP) with Auto-Discovery and AI-Ready Design I Collected 8.9 Million Polymarket Price Points — Here's What I Found About How Markets Really Move EcoTrack AI — Carbon Footprint Tracker & Dashboard Everyone's Using AI. No One Agrees How. 5 self-hosted ebook managers worth trying in 2026 Building Your First AI Agent with LangChain: From Chatbot to Autonomous Assistant
AI agents need tiered approval escalation, not one big co...
Armorer Labs · 2026-06-24 · via DEV Community

Armorer Labs

Every agent product eventually has the same conversation: who is allowed to click "yes"?

The simplest answer is a single per-action prompt. The user gets a popup, the popup says "the agent wants to do X", the user clicks yes or no, the run continues. That model breaks down fast in real operations. Three reasons come up over and over:

  1. The user cannot evaluate every action. A long-running research or coding agent can produce hundreds of low-risk actions and a handful of side effects. Either the user approves everything in bulk (no real safety) or they get fatigued and rubber-stamp the rest.
  2. The same action has different blast radius in different contexts. "Send a message" might be safe in a sandbox and dangerous against a real customer. The runtime usually knows which; the user usually does not.
  3. The interesting failures are not at the prompt boundary. They are at the edges: retries, recoveries, fallbacks, escalations. A single confirm button has no opinion about what happens between the prompt and the side effect.

A better model is tiered approval escalation. Each proposed action is classified into a tier at the tool-call boundary, and the tier decides who is asked and how often.

A working tiered escalation policy looks something like this:

  • Tier 0 (read-only, scoped): no prompt, no receipt beyond the run log. Examples: file read inside the project root, search query against an internal index, snapshot of a sandbox URL.
  • Tier 1 (reversible internal state change): no prompt, but a durable receipt and an undo token. Examples: create a local branch, draft a doc, populate a workspace cache.
  • Tier 2 (bounded external write): prompt the user once per session for that class of action, with a clear scope. The agent can issue five, fifty, or five hundred writes under that class without re-asking, but the user knows what class was authorized. Examples: create a PR, send a message to a test channel, post a comment to a specific thread.
  • Tier 3 (irreversible or high-blast-radius): prompt every time, with the resolved target, the policy decision, and the verification artifact, and require a fresh human approval. Examples: send to a real customer, merge to main, delete a record, change a credential, post a public message under a real account.

The important shift is that the classification happens in the runtime, not in the prompt. The agent cannot "decide" a Tier 3 action is really Tier 1 by being persuasive; the gateway sees the resolved target, the policy, the prior approvals, and either allows it, demands a prompt, or blocks it.

Why the tier matters more than the prompt text. The actual cost of "click yes" fatigue is not the user's time. It is the silent downgrade of the audit trail. If a user approves a Tier 2 class once and then fifty writes happen, the system still has a real receipt for each write and a real reason it was allowed. If a user approves a "yes to everything" prompt, the system has nothing to show after the fact except that the user said yes once.

A practical implementation has four moving parts:

  1. A tool registry that knows the tier of every action. Not the agent's description of the action — the gateway's classification of the resolved call.
  2. A session-level scope object. Once the user approves a Tier 2 class, the scope travels with the run. The next Tier 2 write in the same class checks the scope and proceeds without re-asking.
  3. A per-call receipt. Every action, at every tier, produces a small structured record: tier, resolved target, policy decision, approval reference, verification artifact. Tier 0 and Tier 1 receipts are batched into the run log; Tier 2 and Tier 3 receipts are first-class.
  4. An escalation path. If a Tier 1 action suddenly needs to become Tier 2 (e.g. the agent tries to write outside the approved scope), the runtime pauses, re-classifies, and asks. The prompt is not "do you want to continue?"; the prompt is "this action just got re-tiered, here is why, approve the new tier or stop."

What this is not. Tiered escalation is not a substitute for a guard. A guard scans the contents of the action for prompt injection, credential leaks, exfiltration patterns, and safety bypasses. The tier decides whether the human is asked; the guard decides whether the action runs at all. A Tier 0 read can still be blocked by the guard. A Tier 3 send that passes the guard can still be paused for human approval.

What to watch for in production. Three failure modes show up early:

  • Tier inflation. The agent learns that Tier 1 is easy and routes borderline actions through it. The fix is to require the runtime, not the agent, to pick the tier.
  • Scope drift. A Tier 2 class broadens over the session until it covers most writes. The fix is a per-class scope object that names the target type, the destination, and the count, not a generic "writes are allowed."
  • Receipt underproduction. Operators forget to wire Tier 0 and Tier 1 receipts into durable storage, so when something goes wrong the only record is the run log. The fix is to make the tier classification and the receipt emission happen in the same place.

The honest summary: a single confirm button is fine for a demo, and wrong for production. Tiered escalation at the tool-call boundary, with a guard upstream and a durable receipt downstream, is what makes a long-running agent safe to operate without making the user the bottleneck.


This is a working note from the Armorer Labs team. We build Armorer, a local control plane for AI agents, and Armorer Guard, a fast local Rust scanner for prompt injection, credential leaks, and outbound side effects. The tier model above is the same shape we use inside our own agent runs. If you want to see the receipts from a real run, the local-first install is at https://armorerlabs.com.