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What's the difference between experience a human made bug versus an AI made bug in software?

A human preserves more context and might remember what they did and when pointing out a new bug, they often have an idea what's wrong.

A human also learns from their mistakes and grows their skillset.

I cringe any time I read loaded questions like GP's. Have they ever met a human in their life?


The difference lies in the field of civic virtue. A human programmer accepts personal responsibility for the safety of the software of which he is a member, defending it, if need be, with his life. The AI does not.

You must be trolling. Most open source software is released under MIT license which explicitly says the author isn't liable for anything.

Trusted Access for Cyber is OpenAI’s identity and trust-based framework for cybersecurity professionals. OpenAI announced it in February 2026 alongside GPT-5.3-Codex.

A banner appeared at the bottom of my Codex session: “This content was flagged for possible cybersecurity risk.” Pointing to chatgpt.com/cyber and OpenAI’s “Trusted Access for Cyber” program.

The article outlines how I got verified for Trusted Access for Cyber.


All it takes is 3 environmental variables need to be set in ~/.claude/settings.json config file for you to regain access to Claude Opus 4.6 and Opus 4.5 selection in /model selection


Anthropic’s Claude Opus 4.7 prompting guide references that prompt steering can impact Opus 4.7 more than previous Opus models. Opus 4.7 calibrates to task complexity and lets its extended reasoning be shaped by the prompt.

I did benchmarks of 200 headless Claude Code sessions comparing Opus 4.6 and Opus 4.7 1M-context models across effort levels and prompt steering variants - concise, step by step, ultrathink and how that impacts token usage and costs and instruction following performance.


Claude Code now exposes a reasoning_effort knob with five public rungs: low, medium, high, xhigh, max. The pitch is simple. Higher effort means more thinking, which means better answers on hard problems.

The unasked question is what that knob actually costs, in tokens and dollars, and whether the same crank behaves the same way across different models. I spent an afternoon of subscription quota finding out


I created this Claude Code session-metric skill pluginso that I could have insights into Claude Code models' tokens and cost usage at both the project level and also at the individual chat session level.

There are still some Claude Code users reporting having hit their 5-hour session limits prematurely, and I’m always curious how their patterns of usage differed from mine. So I’m hoping this session-metrics skill becomes a useful tool for others as well


Boris Cherny, creator of Claude Code, posted a six-part thread on Threads on how he and his team get the most out of Opus 4.7. The tips are small on their own but coherent together. I went through each one, cross-checked it against the Claude Code docs, the migration guide, and the Opus 4.7 announcement, and pulled out what I think actually matters.


I wanted per-turn visibility at the individual Claude Code chat session level. So I built a Claude Code skill, sessions-metric that reads Claude Code’s raw conversation logs and breaks down every response at the project and project session level.

There are other popular usage tools, ccusage, ccburn, Claude-Code-Usage-Monitor, codeburn etc, but none would also operate at the Claude Code individual chat session level.


Claude Code/Cowork Skill called, ai-video-creator allows video generation using a unified API that aggregates ByteDance Seedance 2.0, Kling 3.0, Google Veo 3.1, Grok Imagine, Wan 2.7, Runway, ElevenLabs, and Suno AI behind a single authentication flow.


I built a Claude Code skill that generates images from the terminal and also via Claude Desktop MacOS app and Cowork. One command, any AI model, with transparent backgrounds, reference image editing, prompt engineering patterns, and composite banner generation built in.

The skill supports five AI image models through OpenRouter’s API, all proxied through Cloudflare AI Gateway for monitoring and cost control:

Gemini 3.1 Flash Image Preview (Google Nano Banana 2) FLUX.2 Max Riverflow v2 Pro Seedream 4.5 GPT-5 Image


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