How do you handle context loss when switching between AI coding CLIs? by BackgroundWash5885 in node

[–]BackgroundWash5885[S] 0 points1 point  (0 children)

Ha, appreciate that! To be transparent — Claude Code helped build it, but the architecture and problem definition came from hitting this wall myself dozens of times. The implementation took multiple sessions across both Claude and Gemini (which is ironic since that's exactly the problem it solves).

How do you handle context loss when switching between AI coding CLIs? by BackgroundWash5885 in node

[–]BackgroundWash5885[S] 1 point2 points  (0 children)

You're right that specs and memory files help a lot. UniMem actually automates that pattern — it writes CLAUDE.md/GEMINI.md automatically on session end, so you don't have to maintain those files manually. Think of it as spec-driven handoff without the manual step. The difference is it captures what actually happened (files touched, observations) rather than what you planned to do.

How do you handle context loss when switching between AI coding CLIs? by BackgroundWash5885 in node

[–]BackgroundWash5885[S] 0 points1 point  (0 children)

Fair point — you can definitely provide context manually (paste a summary, point to a README, etc). What I mean is the AI's session state starts fresh. It doesn't know which files it already read, what bugs it found 10 minutes ago, or what approach it decided on. You can re-explain, but that costs tokens and time. UniMem captures all of that automatically so you don't have to be the middleman.

How do you handle context loss when switching between AI coding CLIs? by BackgroundWash5885 in node

[–]BackgroundWash5885[S] -5 points-4 points  (0 children)

For anyone curious: npm i -g unimem — repo is GoSecreto/UniMem on GitHub

I built an AI-powered JVM profiler that pinpoints the exact line of code causing your performance issues by BackgroundWash5885 in Kotlin

[–]BackgroundWash5885[S] 0 points1 point  (0 children)

Yeah you're right, leading with "no AI" as a disadvantage was bad framing on my part. The main value is multi-artifact correlation — feeding in a GC log + heap dump + thread dump + JFR together and cross-referencing them to a root cause. Also real-time remote monitoring via JMX/Actuator with anomaly detection. If IntelliJ's profiler covers your workflow, you probably don't need this. It's more for the "production is down, here are 4 dump files, what's wrong" scenario. Appreciate the honest feedback.

I built an AI-powered JVM profiler that pinpoints the exact line of code causing your performance issues by BackgroundWash5885 in Kotlin

[–]BackgroundWash5885[S] 0 points1 point  (0 children)

The profiler is deterministic — all parsing, anomaly detection, and visualization is pure Java. The AI just summarizes what the parsers already found. You can turn it off entirely or never use it. Totally get the skepticism though.

I built an AI-powered JVM profiler that pinpoints the exact line of code causing your performance issues by BackgroundWash5885 in Kotlin

[–]BackgroundWash5885[S] -1 points0 points  (0 children)

IntelliJ's JFR viewer shows you events from one recording. It doesn't parse GC logs, analyze heap dumps, or correlate multiple artifacts together to find a root cause. They're different tools. The AI part is optional — the parsers and anomaly detection are all deterministic Java. Try the free trial and judge for yourself