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The BBC micro:bit is a popular development kit often used to teach kids how fun programming can be. Lets see how we can hook it up to the cloud!

async/await within Rust is a convenient way to gain parallelism, even on an embedded device where we ostensibly have exactly one userland thread by default.

Minikube is a convenient tool for developing cloud services on your laptop, but how can you access them from your IoT device? In this article, we'll walk through deploying the drogue-cloud project on minikube and then use some drogue crates to post data to its knative endpoint via an ESP8266 WiFi module.

Exchanging messages with devices is great. As I tried to explain in the last blog post about the cloud side of things, having a modular system, and normalizing the transport protocol can make things a lot easier. However, exchanging messages is only the first step towards an IoT application.

Up until now, we have focused on "Rust on embedded devices", at least when it comes to writing blog posts. Let's change that.

Non-technical post -- Hey, we have a new logo!

While the S in IoT stands for "security", the T stands for "things", and things move. Wouldn't it be nice to know how they move, exactly?

Routinely we have to deal with recognizing patterns within text or byte streams. While LL(k) and LALR are common types of parsers, the nom crate brings parser combinators to the embedded Rust world.

There's a lot of variety in the embedded world. While we've implemented the ESP8266 WiFi-offload board over USART last time, now we're doing the Inventek eS-WiFi over the SPI bus. Let's explore some of the differences.

In the embedded world, quite often you don't have a wall clock sort of clock. You may have something that can reckon the passage of time, though. The various current solutions for managing time within embedded Rust has yet to be completely abstracted. We leverage some up-and-coming libraries to help paper over the differences.