In this tutorial, we will see how to make an image clustering based AI with the Seeed Wio Terminal and the Grove AI camera. There are different tutorial on this, the main source of this tutorial is located here. The purpose of this is to have a step by-step approach for my student to realize this in a limited time they have.
This is based on SeeedStudio K1100 development kit.
The Arduino board MKR1310 is the new revision of the MKR1300 board dedicated to LoRaWan. This board is a SAMD21 Arduino board with a Murata ABZ module based on a STM32 with an SX1276 transceiver. Basically a bit outdated and expensive modem now.
After using this board for some teaching project, it’s a good time to make a feedback about it as many things need to be improved on that board to get benefit of it.
The Kineis IoT solution is an IoT network based on satellite’s communications. Thank to it, a device can communicate from any point of Earth with a single technology. Kineis is using an existing fleet of Argos satellites launched during the last 40 years and is already commercially available. This fleet will grow fast in the next two years to offer a communication window up to 4 times per hour.
In this blog post, I’m going to detail my first experience with Kineis for sending frames through the satellites of the fleet. I’ve been using a KIM Arduino Devkit. The on-boarding is quite fast, let’s see this!
My child have a small garden where he has tomatoes, mint, different vegetables and fruits. We want to know when it is the right time to water it.
This was also an opportunity to use my Rak Wisblock kit fro something else than just writing some blog post. I’ve chosen to connect the device over Helium network because I’m making different tests on this network currently but it is also working on TheThingsNetwork the same way. So you can use the network most covering you around.
The data will be displayed on Cayenne Mydevice for getting a quick dashboard for displaying the information. In this blog post I’m going to describe the main steps and the needed hardware to make your own device.
When making IoT development, you need to debug on the Field. I’ve been using some serial logger to store information and analyze them after (I’ll post something about it once a day). But sometime you want to watch it in real time. So you need a small terminal you can easily transport with you. Smartphone could be cool and I’m sure we can hack something fun with a BLE connectivity. By the way, what I had in stock for doing a such thing was a Wio Terminal from Seeed.
This device is an Arduino compatible solution including a LCD screen 320×200, some interesting embedded sensors and a lot of IO to play with. The only bad point for me and the design I want to do is the absence of internal battery so you need to power it a different way.
What I need is just a Serial line to print on the LCD screen all what my IoT device want to share. Let see how I did make it.
I’m teaching processor architecture since about 20 years from now using Arduino (more recently) as a platform for practicing some low level development to understand the architectural principles. This year with Covid-19 I had to give it online and it has been the opportunity to release a new version of the support and recording it.
If you understand French, you can follow this courses online on my Youtube channel
You can also get the slides with the following document:
RAK is a company specialized in IoT hardware, particularly in the LoRaWan domain. They are well known for their LoRaWan concentrators working with raspberryPi.
Since a couple of month they have launched a new family of device, the Wisblock. This is a kind of Arduino solution with a MCU part (running a NRF chip with a LoRa transceiver) and different sensors you can connect to it to make an IoT device. That’s a really simplified way to see the solution as in fact the architecture is really different.
At first, the solution is based on a motherboard where you can plug different type of modules. You can have multiple additional sensors both side of the motherboard. We are also going to see that the way all of this is connected is industrial and can be use for prototypes, medium scale field deployment and finished product. That’s the main difference with a classical Arduino board.
The unit price of a solution with a GPS, MCU, Accelerometer is about $50, nothing really expensive for prototyping, a bit too high for a field experimentation, really high for an end product but apparently you can negotiate that price when you have a certain volume.
In a previous post, I’ve been introduce my home made LoRaWan solar powered outdoor gateway. I’ve been investigating on the minimal hardware to make it running and reach some interesting result in my garden ;). Now it’s time to deploy the gateway on the field (basically on a roof top) and this means I’ll not be able to continue to learn what how it evolves over time.
For this reason, I’ve made a small project to monitor the main elements I want to track about this gateway:
Battery in & out power
5V powering availability
For this I’ve selected a simple and LoRaWan all-included Arduino platform I already detailed in a previous post: the LoRa Radio Node. Let’s detail this project now available on github.
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