I’ve put the bottom-of-the-frame interrupt first here. This is mainly out of laziness—since this is the interrupt that restores the display for the next frame, putting it first means that it will also end up being the screen initialization code.
The pipeline was very similar to icon-to-image above: ask Opus 4.5 to fulfill a long list of constraints with the addition of Python bindings. But there’s another thing that I wanted to test that would be extremely useful if it worked: WebAssembly (WASM) output with wasm-bindgen. Rust code compiled to WASM allows it to be run in any modern web browser with the speed benefits intact: no dependencies needed, and therefore should be future-proof. However, there’s a problem: I would have to design an interface and I am not a front end person, and I say without hyperbole that for me, designing even a simple HTML/CSS/JS front end for a project is more stressful than training an AI. However, Opus 4.5 is able to take general guidelines and get it into something workable: I first told it to use Pico CSS and vanilla JavaScript and that was enough, but then I had an idea to tell it to use shadcn/ui — a minimalistic design framework normally reserved for Web Components — along with screenshots from that website as examples. That also worked.。PDF资料对此有专业解读
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The obvious approach to running Java in the browser is to just boot the container, wait for a shell prompt, send javac Main.java through the terminal, wait, then send java Main, wait some more, and collect the output. I tried this. Every single javac invocation has to start a brand new JVM. Under QEMU TCG WebAssembly emulation, JVM startup alone takes over twelve minutes.