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README.md+11−16@@ -24,43 +24,38 @@ acting only on the commands you give it. ## What it does for you -Six real apps from the Adom ecosystem — each shown running **in a Chrome window the extension drives** (note-the **"Adom driving"** badge in the toolbar), and how it helps you get the work done.--### Web-based oscilloscope — verify an instrument UI without clicking through every iteration--You're bringing up a browser-based scope and need to confirm the trigger and timebase behave against real-signals. Instead of clicking through it by hand each pass, your AI assistant drives the live app in your own-Chrome — sets the timebase, drags the trigger to **CH1-rising**, reads the measurements back, and screenshots-the result. You stay in flow while it verifies the instrument and flags a regression the moment one appears.+Five real apps from the Adom ecosystem — each shown in a short **demo video**, the AI driving the live app+**in a real, logged-in Chrome window through this extension**, and how it helps you get the work done. Every+clip below was recorded on a genuine browser session — there are no developer-mode warnings and no debugger+banners. ### Chip-fetcher — fill your CAD library while you keep designing-+<video src="/blob/app/adom-browser-extension/demo/clips/use-case-1-chip-fetcher.mp4" controls muted playsinline width="100%" style="border-radius:10px;border:1px solid #30363d;max-width:760px"></video> Sourcing CAD for a BOM is tedious — symbol, footprint, 3D model, and datasheet for every part. Your AI drives the chip-fetcher dashboard in your browser, working down the parts list and pulling each one's full CAD bundle into your library, so the components are ready to drop into your design instead of you hunting them down one tab at a time. ### Adom Symbol — schematic symbols, generated and previewed live-+<video src="/blob/app/adom-browser-extension/demo/clips/use-case-2-adom-symbol.mp4" controls muted playsinline width="100%" style="border-radius:10px;border:1px solid #30363d;max-width:760px"></video> You need a schematic symbol for a chip — pins grouped sensibly, the 3D package shown right on the symbol. Your AI drives Adom Symbol in the browser, generating the symbol from the datasheet pinout, arranging the pins by function, and embedding the 3D model — then previews it live so you can eyeball it before it lands in your library. ### Web-based EDA & CAD — try a design change and see it routed-+<video src="/blob/app/adom-browser-extension/demo/clips/use-case-3-web-eda.mp4" controls muted playsinline width="100%" style="border-radius:10px;border:1px solid #30363d;max-width:760px"></video> Mid-design you want to try a change and see it routed. Your AI opens the EDA tool in the browser you're already signed into, **fills the schematic, re-runs the autorouter, and inspects the nets** — turning "try this and tell me what breaks" into something it just does, in the same session where your part libraries already live. ### 3D board CAD — review the layout in the browser-+<video src="/blob/app/adom-browser-extension/demo/clips/use-case-4-3d-board.mp4" controls muted playsinline width="100%" style="border-radius:10px;border:1px solid #30363d;max-width:760px"></video> Before a board goes out, you want to look at the actual layout. Your AI opens the 3D board viewer in your-browser, frames the camera, hides a component to see the traces underneath, and re-runs the autorouter — so-reviewing a PCB is a conversation, not a context-switch into a separate desktop tool.+browser, frames the camera, and x-rays the board to reveal the traces underneath — so reviewing a PCB is a+conversation, not a context-switch into a separate desktop tool. ### Adom Chipsmith — check a part fits its footprint before it ships-+<video src="/blob/app/adom-browser-extension/demo/clips/use-case-5-chipsmith.mp4" controls muted playsinline width="100%" style="border-radius:10px;border:1px solid #30363d;max-width:760px"></video> Before a part goes onto a board, its 3D model and footprint have to actually line up. Your AI drives Adom Chipsmith in the browser to drop the chip onto its pads and check the fit visually — catching a mis-seated or wrong-variant model before it ever reaches the PCB.