If this codebase is production, handles money, or touches sensitive data: treat this audit loop as a high-risk operation. Run with least privilege, avoid exporting long-lived credentials in your shell, and keep the agent in read-only mode.
| --- | |
| name: lum-execute | |
| polytoken: | |
| tools: | |
| - ask_user_question | |
| - file_read | |
| - file_edit_search_replace | |
| - file_write | |
| - glob | |
| - grep |
| --- | |
| name: code-review | |
| description: Review a pull request (or the current branch) with TWO parallel reviewer subagents on gpt-5.5(high) — a standard reviewer and an adversarial reviewer. Merge their findings only after both return; deliver an in-chat summary always and post to the PR only with consent. When reviewing your own branch, iterate on the feedback and re-invoke until no findings remain. | |
| disable-model-invocation: false | |
| tags: | |
| - productivity | |
| polytoken: true | |
| --- | |
| # Code Review |
| # Conformance suites: what they are, when they help, how to build one | |
| A conformance suite is a third axis of testing — distinct from unit tests | |
| and integration tests. Where unit tests prove that a function does what | |
| its body says, and integration tests prove that subsystems compose, a | |
| conformance suite proves that **what the public API claims it does | |
| matches what it actually does, against an external ground truth**. | |
| This document explains the pattern, when it earns its keep, and how to | |
| set one up. The case study is ferrotorch (a pure-Rust PyTorch |
Verification-Driven Development (VDD) is a high-integrity software engineering framework designed to eliminate "code slop" and logic gaps through a generative adversarial loop. Unlike traditional development cycles that rely on passive code reviews, VDD utilizes a specialized multi-model orchestration where a Builder AI and an Adversarial AI are placed in a high-friction feedback loop, mediated by a human developer and a granular tracking system.
| <!DOCTYPE html> | |
| <html> | |
| <head> | |
| <meta charset="utf-8" /> | |
| <title>Automerge (Vanilla JS, Unbundled) Demo</title> | |
| <meta name="viewport" content="width=device-width, initial-scale=1" /> | |
| </head> | |
| <body> | |
| <script type="module"> | |
| // The ?bundle-deps here is very dodgy... |
| <!DOCTYPE html> | |
| <html lang="en"> | |
| <head> | |
| <meta charset="UTF-8"> | |
| <meta name="viewport" content="width=device-width, initial-scale=1"> | |
| <title>Signals</title> | |
| </head> | |
| <body> | |
| <button id="decrement"> | |
| - |
This week, I wrote about using the CSS @import rule to modularize CSS, and some performance challenges with that approach.
tl;dr: the issue isn't the @import rule itself, but that files under 1kb often end up the same size or even bigger when gzipped, so you get no compression benefits.
I ran a few additional tests, and wanted to share the data I found.
- 40 modular CSS files
- All imported from a single
kelp.cssfile hosted on JSDelivr
| accordion-group { | |
| background-color: #f7f7f7; | |
| border-radius: 0.25em; | |
| display: block; | |
| margin-block-end: 1.5em; | |
| padding: 0.5em 1em; | |
| width: 100%; | |
| } | |
| accordion-group [accordion-trigger] { |
| import Database from 'better-sqlite3'; | |
| import { createDatabaseClient } from './proxy.ts'; | |
| // 1) Create an in-memory DB and your table(s). | |
| const db = new Database(':memory:'); | |
| db.exec(` | |
| CREATE TABLE users ( | |
| id TEXT PRIMARY KEY, | |
| data JSON | |
| ); |