I started this project while working on a stress testing tool called Crows that runs WebAssembly scenarios. At the moment it only supports code compiled from Rust to WASM. As much as I love writing Rust, I also know it's not a widely popular language and besides, small tests are often easier to write in interpreted languages. The problem is, running scripting languages on top of WASM is not ideal
サーバサイドのJavaScriptランタイム「WinterJS」登場。Rustで書かれ、WebAssembyにコンパイル可能なService Workerサーバ WebAssemblyランタイム「Wasmer」の開発元として知られているWasmer社は、新しいサーバサイドのJavaScriptランタイム「WinterJS」を発表しました。 Announcing WinterJS: a blazing-fast Javascript Service Workers server written in Rust powered by SpiderMonkey ❄️https://t.co/kX7jjJj6qv — Wasmer (@wasmerio) October 27, 2023 WinterJSはRustで書かれた高速なService Workerサーバであり、オープンソースとして公開さ
The JavaScript Promise Integration (JSPI) API allows WebAssembly applications that were written assuming synchronous access to external functionality to operate smoothly in an environment where the functionality is actually asynchronous. This note outlines what the core capabilities of the JSPI API are, how to access it, how to develop software for it and offers some examples to try out. What is ‘
WebAssemblyで、JITコンパイラに迫る高速なJavaScriptエンジンを実装へ。Bytecode Allianceが技術解説。JavaScript以外の言語でも 「Bytecode Alliance」は、WebAssemblyをWebブラウザだけでなく、デスクトップPCやサーバ、IoTデバイスなどあらゆる環境で、セキュアに実行することを目指している団体です。 Fastly、Mozilla、Arm、Google、マイクロソフト、インテルをはじめとする企業や団体が名前を連ねています。 参考:WebAssemblyをあらゆるプラットフォームでセキュアに実行できるようにする「Bytecode Alliance」発足。インテル、Mozilla、Red Hatなど 同団体は「WASI」と呼ばれる、どのOSやホストシステムでWebAssemblyモジュールが実行されたとしても、安全かつ透過的
Welcome! SpiderMonkey is Mozilla’s JavaScript and WebAssembly Engine, used in Firefox, Servo and various other projects. It is written in C++, Rust and JavaScript. You can embed it into C++ and Rust projects, and it can be run as a stand-alone shell. It can also be compiled to WASI; see our online demo. What's New Read more in the SpiderMonkey Blog SpiderMonkey Internals Understanding the engine O
or #v86 on irc.libera.chat v86 emulates an x86-compatible CPU and hardware. Machine code is translated to WebAssembly modules at runtime in order to achieve decent performance. Here's a list of emulated hardware: An x86-compatible CPU. The instruction set is around Pentium 4 level, including full SSE3 support. Some features are missing, in particular: Task gates, far calls in protected mode Some 1
Iodide: an experimental tool for scientific communication and exploration on the web In the last 10 years, there has been an explosion of interest in “scientific computing” and “data science”: that is, the application of computation to answer questions and analyze data in the natural and social sciences. To address these needs, we’ve seen a renaissance in programming languages, tools, and techniqu
At Mozilla, we want WebAssembly to be as fast as it can be. This started with its design, which gives it great throughput. Then we improved load times with a streaming baseline compiler. With this, we compile code faster than it comes over the network. So what’s next? One of our big priorities is making it easy to combine JS and WebAssembly. But function calls between the two languages haven’t alw
Recently we’ve seen how WebAssembly is incredibly fast to compile, speeding up JS libraries, and generating even smaller binaries. We’ve even got a high-level plan for better interoperability between the Rust and JavaScript communities, as well as other web programming languages. As alluded to in that previous post, I’d like to dive into more detail about a specific component, wasm-bindgen. Today
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