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🚀 WasmEdge 0.10.0 is released!
In version 0.10.0, WasmEdge provides a brand new plug-in mechanism to make native extensions easier to develop and install, improves compatibility with LLVM 14, and supports new WebAssembly specs, proposals, and features. New plug-in system for native host functions Many enhancements to the WasmEdge socket API (e.g., microservices and web service clients in WasmEdge) Support for new WebAssembly proposals and specs WasmEdge C API enhancements Other features and bug fixes New plug-in system for native Host Functions The host funtion is the bridge that allows WebAssembly programs to access functionalities and features provided by native libraries.…
ProductWasmEdgeWebAssemblyRustServerlesscloud computingSocketCNCF
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😎 WasmEdge 0.9.1 is released! Better networking support, Android support, better developer experience, and more.
WasmEdge 0.9.1 is released! This release features integrated high-performance networking, JavaScript streaming SSR and Fetch API support, a new bindgen framework, Android and OpenHarmony OS support, expanded Kubernetes support, and improved memory management. WebAssembly extensions Streaming SSR functions Android and OpenHarmony Kubernetes Bug fixes and performance enhancements WebAssembly extensions WasmEdge aims to support all standard and optional standard WebAssembly extension proposals. It also supports non-standard and experimental extensions that are important to cloud-native use cases, such as networking and data passing.…
ProductWasmEdgeWebAssemblyRustServerlesscloud computingSocketCNCF
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Containerization on the edge
This work is supported by Second State and FutureWei based on Open Source projects WasmEdge and seL4. Application containers, such as Docker, are a key driving force behind the growth of Cloud Native applications. However, while the Cloud-Native development paradigm has proven very popular, it is difficult to expand the Cloud-Native infrastructure beyond large data centers since application containers require significant amounts of computing resources. For example, Docker does not support real-time operating systems (RTOS) and only works on POSIX systems.…
ProductWasmEdgeRTOSWebAssemblyRTOSseL4cloud computingEdge computing
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😎 WasmEdge 0.8.2 is released. Networking support, Rust SDK, better compatibility and more.
WasmEdge 0.8.2 is finally released. Better cross-platform compatibility. Run WasmEdge applications on Mac OS X (Intel & M1), Windows 10, as well as IoT devices with ARM 32-bit chips. Networking support. Make network requests and run an HTTP server from your WasmEdge application. New and improved APIs. Embed WasmEdge functions in C, Rust, and Golang applications. Generic binary output for WasmEdge’s AoT compiler. Take advantage of AOT performance enhancements in cloud native platforms.…
ProductWasmEdgeWebAssemblyRustServerlesscloud computingSocketCNCF
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Serverless AI functions on Tencent Cloud
Tencent is a leading serverless infrastructure provider in the public cloud. With the WasmEdge custom runtime for Tencent Serverless Cloud Function (SCF), you can write a few lines of simple code to turn any Tensorflow model into a serverless function and then offer it as a web service. A template project containing source code and configuration files is available here. Out of the box, you can deploy the template to Tencent Cloud and have a working web app for image classification.…
RustJavaScriptWebAssemblyTencent CloudServerless Cloud FunctionServerless FrameworkFaaSRust FaaSServerlesscloud computing
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Access commands and programs in the host operating system
WASI enables WebAssembly programs to call standard library functions in the host operating system. It does so through a fine-grained security model known as “capability-based security”. The WebAssembly VM owner can grant access to host system resources when the VM starts up. The program cannot access any resources (e.g., file folders) that are not explicitly allowed. Now, why limit ourselves to standard library functions? The same approach can be used to call just any host functions from WebAssembly.…
RustJavaScriptWebAssemblyNode.jscloud computingWASIcommandprocess
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A WASI-like extension for Tensorflow
AI inference is a computationally intensive task that could benefit greatly from the speed of Rust and WebAssembly. However, the standard WebAssembly sandbox provides very limited access to the native OS and hardware, such as multi-core CPUs, GPU and specialized AI inference chips. It is not ideal for the AI workload. The popular WebAssembly System Interface (WASI) provides a design pattern for sandboxed WebAssembly programs to securely access native host functions.…
RustJavaScriptWebAssemblyNode.jsGolangDaprVercelNetlifyAWSTencentFaaSRust FaaSServerlesscloud computingAITensorflow
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AI as A Service on WebAssembly
AI inference is an ideal use case for Function as a Service (FaaS). The inference operation is transactional, often happens on the edge, need to scale up and down quickly, and integrates with other network services for input and output. However, the inference is also ill-suited for today's FaaS infrastructure. Inference is computationally intensive and time sensitive. FaaS today has long cold start time, and poor runtime performance due to the heavy runtime software stack and inefficient programming languages.…
RustJavaScriptWebAssemblyNode.jsFaaSRust FaaSServerlesscloud computingAI
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AI as a Service: Face Detection Using MTCNN
The MTCNN is a class of Multi-task Cascaded Convolutional Network models. They are very good at detection faces and facial features. You can train (or retrain) MTCNN models with your own faces dataset so that it can accurately detect faces for your application. Second State FaaS provides a Rust API to run Tensorflow-based MTCNN models at native speeds. In this article, we will use the original MTCNN model trained in the FaceNet dataset as an example.…
RustJavaScriptWebAssemblyNode.jsFaaSRust FaaSServerlesscloud computingAI
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AI as a Service: Image Classification Using MobileNet
MobileNet is a class of Convolutional Neural Networks (CNN) models for computer vision applications. The most common application for MobileNet models is image classification. You can train (or retrain) a MobileNet model to recognize objects that are interesting to your application (e.g., to classify birds in a bird watching application). Second State FaaS provides a Rust API to run Tensorflow-based MobileNet models at native speeds. In this article, we will use a MobileNet model trained from the ImageNet dataset as an example.…
RustJavaScriptWebAssemblyNode.jsFaaSRust FaaSServerlesscloud computing