Build

Welcome to the mioty Developer Page!

In this section you will find everything you need for your first steps with mioty, to build protoypes and setup your own mioty system. From sensor nodes to the base station to the backend. Even complete tutorials and guides.

OVERVIEW

 

Mioty is an efficient LPWAN protocol for IoT. Four main components are required for operating an IoT chain: a sensor node (end-point), a base station, a backend system and an IoT platform. Sensor nodes collect data via sensors and send it to the base station using mioty. These further relay the data to the backend for processing and an IoT platform for data management and visualization.

Multiple approaches exist for building an IoT chain. The following sections provide an overview of different hard- and software as well as step-by-step guides to constructing such a chain.

Mioty sensor nodes collect and transmit data. They can be built with modules, implemented via a software stack, or purchased as ready-made solutions.
Base stations receive data from sensor nodes. They can be built with SDRs, purchased as commercial units, or as standalone systems with integrated backends.
The mioty backend receives and decodes data from base stations, acting as a lightweight bridge to external systems without the complexity of full IoT platforms.
IoT platforms build on the mioty backend to enable data visualization, analysis, and integration with cloud services or applications.

Guides & Projects

Get hands-on with mioty through practical guides and real-world projects. Whether you’re just starting out or building advanced solutions, this section offers step-by-step instructions, tips, and inspiration to help you bring your ideas to life.

1 END POINT

The mioty end points serve as the initial point in the data transmission chain and are deployed in the field. Typically, they are equipped with sensors to capture and log vital data for analysis and monitoring, which can subsequently undergo further processing and visualization. A mioty end point of classes A, B or C can also be bi-directional, allowing to get commands from the backend.

Depending on your needs, there are several ways to build or acquire these nodes: by using dedicated modules, implementing a software stack on standard hardware, or purchasing ready-made commercial solutions. Each approach offers distinct benefits in terms of flexibility, customization, and performance—making it easy to find the right fit for your specific use case.

1.1 Pick an Evaluation Board

Evaluation boards provide a convenient way to explore and test mioty® on specific hardware platforms before starting a custom hardware design. They typically combine a supported microcontroller, sub-GHz radio, and example firmware, allowing developers to quickly evaluate the mioty® stack and begin application development. Since evaluation boards are usually readily available and easy to set up, they offer a fast entry point into prototyping and experimentation. For the best results, developers should select an evaluation board based on the hardware platform they plan to use later in their final product design.

ST NUCLEO-WL33CC1 (STM32WL3)

  • mioty Evaluation stack for the ST NUCLEO

  • Demo for Class Z and Class A (Bidirectional communication)

  • Demo Application with buttons & LED

  • AT-Modem functionality included

  • Also available for Silicon Labs DK2600A

  • Also available for TI LAUNCHXL-CC1352R1

Radiocrafts mioty Modules

  • 2 Development Boards with RC1882CEF-MIOTY1 modules
  • Breakout of all I/O pins for easy prototyping
  • 2 antennas
  • FDTI chip for USB to UART interface
  • 2 USB cables

mioty M3B Makerboard

  • With application Controller
  • Arduino IDE
  • Temperature, Humidity SHT31A
  • Barometer MS5637
  • 3-axis acceleration ADXL363
  • Ambient brightness Si1141-A11-G

Solder your own demo board

  • For Raspberry Pi Pico + HopeRF module

  • 2x button, 2x Grove connector

  • Open Hardware

  • Order from PCB manufacturer and solder by yourself

  • For Open Source stack solution below

1.2 Build your Sensor Node with a software stack

Instead of using a dedicated module, mioty® can also be integrated directly through a software stack running on standard sub-GHz radio hardware. Since mioty® is a software-defined radio technology, the protocol is largely independent of the underlying chipset and can be ported to a wide range of compatible RF transceivers. This approach provides maximum flexibility for hardware design and typically results in the most cost-effective solution, especially in large-scale production. Compared to the module approach, integration is more complex because the host MCU must coordinate timing and scheduling of the mioty® transmission bursts together with the radio hardware. To reduce development effort and speed up certification, commercially available and pre-certified mioty® stacks can also be licensed from specialized stack providers.

STACKFORCE mioty Protocol Stack for Endpoints

  • STACKFORCE Multi-Stack API (possibility to enhance the stack with other protocol stacks, such as LoRaWAN, Sigfox or wM-Bus / OMS)
  • provided as a library for integration, but includes serial interface for modem operation.
  • easy commissioning and configuration
  • customizable at any time

FRAUNHOFER Support for Endpoint Development

  • reference software
  • reference hardware designs
  • user and development guidelines
  • support for proof of concept
  • support for prototype assembly
  • support for product development

Open Source stack solution

  • Raspberry Pi Pico + RFM69W

  • Academic and non-commercial use

  • Class Z unidirectional-only

  • Software provided by Fraunhofer

  • individual sensor technology, e.g. bme sensor

1.3 Build your Sensor Node with a Module

Using a dedicated mioty® module is a practical option for getting started quickly, especially for small production quantities, prototypes, or custom projects. The module already contains the radio hardware and mioty® communication stack, allowing developers to focus on the application itself instead of low-level wireless implementation details. Communication with the module is typically handled through simple AT commands over UART or SPI, while the module takes care of the complete mioty® protocol handling in the background. Another advantage is flexibility in product design: manufacturers can create one common hardware platform and decide later whether to equip a specific product variant with mioty® connectivity or not.

SWISSPHONE mioty Module

  • mioty“ready” Cat. 1 modem module
  • up to +18 dBm output power
  • Class A or Z mode (bidi- / unidirectional)
  • selectable UART or SPI interface
  • U.FL or PCB RF connection

RADIOCRAFTS Module RC1882CEF-MIOTY1

  • ultra narrowband, high performance radio
  • high sensitivity and high selectivity (-129 dBm)
  • high blocking properties
  • completely shielded module
  • ultra low power modes for extended battery operation

1.4 Use Commercial Sensor Nodes

Commercial mioty sensor nodes are ideal for projects that require fast, reliable deployment without the need for custom hardware development. These ready-to-use devices are optimized for performance, power efficiency, and ease of integration. Whether for environmental monitoring, industrial applications, or smart city use cases, there’s a broad selection of sensors available. To explore the full range of compatible and proven devices, visit the mioty alliance homepage, where member companies showcase their latest sensor solutions.

2 BASE STATION

Base stations are the central hubs in a mioty network, receiving data from sensor nodes and forwarding it for further processing. Depending on your needs, you can build your own using software-defined radios, purchase a commercial unit, or opt for a standalone solution with an integrated backend. Each approach offers different levels of flexibility, complexity, and deployment speed to suit various project scales and requirements.

2.1 Build your own Base Station

Setting up your own base station involves the use of standard software defined radio (SDR) receivers such as USRP or SDR-play, or a professional front-end design in conjunction with a CPU. The entry-level SDR approach provides a customizable and cost-effective solution for setting up a base station for first test installations. On the other hand, reference designs for frontends are available for a commercial base station.

mioty Go

  • works with generic, widely available, cheap radio frontends (SDR receivers).

  • supports Class Z (unidirectional) End Points (EPs).

  • connects to all mioty service centers implementing the BSSCI interface specification.

  • supports all unidirectional EPs’ Development Kits.

  • supports all currently specified radio profiles for the European EU0, EU1, EU2 868MHz and US0 915MHz license free bands as well as for future new frequency bands.

FRAUNHOFER Support for Base Station Development & Software Implementation

  • manufacturer independent
  • universally applicable
  • adaption to different technological requirements

MIROMICO miro EdgeCard mioty

  • The miro EdgeCard mioty® is a Mini PCIe base station card designed for long-range, low-power wireless networks based on the mioty® standard.

  • USB 2.0 interface: Communicates with host processors via a USB Communication Device Class (CDC).
  • On-card decoding: All mioty® telegram decoding is performed directly on the card, reducing host processor load.

2.2 Use commercial Base Stations

Using a preconfigured base station offers an easy and fast way to establish a MIOTY chain. These commercially available base stations provide a convenient solution for setting up the infrastructure, eliminating the need for building base stations from scratch. This accelerates the deployment of a MIOTY network and offers a reliable and robust solution.

2.3 Standalone Base Stations

Standalone mioty base stations come with an integrated backend, offering a complete, ready-to-use solution for data reception, processing, and forwarding. Ideal for quick deployments, they eliminate the need for external servers or complex setups, making them perfect for field use or rapid prototyping.

WEPTECH AVA mioty gateway

  • Input frequency range (EU): 868 – 870 MHz

  • Input frequency range (US): 915 – 917 MHz

  • Tx power: 14 dBm

  • Sensitivity (EU1): < -135 dBm

  • Input Voltage: 5 V DC (USB-C)

3 BACKEND

The mioty backend handles the core tasks of data reception, decoding, and management within the mioty network—acting as the bridge between base stations and higher-level applications. Unlike full IoT platforms, the backend focuses purely on collecting and organizing data from the network, providing a clean interface for further processing or integration with external systems.

3.1 Use Commercial Backend

The backend acts as a central hub, receiving data from various sources. Device management with the registration of sensor nodes with EUIs and keys is also handled here.

Loriot Hummingbird Logo

LORIOT hybrid Network Management System

  • Multiprotocol approach, operate LoRaWAN and mioty from one network management solution

  • Cloud or standalone on-premise mode is available

  • Various protocol & IoT platform integrations, to easily forward your captured IoT data to your endpoints

  • Up to 99.99% Service Level Agreement

  • Tailored pricing models, free testversion available

Pallax overview

PALLAX Data- & IoT-Platform

  • Native mioty Service Center & mioty Application Center integration

  • Full end-to-end mioty stack: from radio telegram to application data

  • Multi-tenant architecture with strict tenant isolation

  • Digital-sovereign Data & IoT platform with DE/EU-first hosting and worldwide global deployment capability

  • Blueprint-based payload decoding and data normalization

4 IOT PLATFORM

IoT platforms provide the tools to store, analyze, visualize, and act on data collected from Mioty networks. They connect to the backend and offer advanced features like dashboards, alerts, device management, and cloud integration—turning raw data into meaningful insights and actions.

4.1 Set up your IoT-Platform

Finally, the IoT platform provides a graphical interface for data processing and visualization, enabling to analyze and interpret the collected information. Together these components form the backend infrastructure and ensure efficient data management, processing, and visualization. No mioty specific actions take place in the IoT platform, so any application can be selected that can process data from the mioty backend via an interface such as MQTT.

IoT-Dashboard with ThingsBoard and mioty

  • Create your own IoT-Dashboard

  • Display your sensor values in a simple and clear way

  • MQTT reception of mioty telegrams

IoT-Dashboard from Grafana

  • Unify your data, not your database

  • Dashboards that anyone can use

  • Data everyone can see

  • Flexibility and versatility

AKENZA IoT platform

  • LPWAN Integration: Supports mioty and other LPWAN technologies, providing flexible connectivity management.
  • No-Code: Enables users to connect their device to the cloud without coding.
  • Centralized Device Management: Manage all IoT devices, connectivity, and data streams in one platform.

SENTINUM My.sentinum Smart Asset Management Webapp

  • Map integration
  • E-Mail reporting when limit values are exceeded
  • Available on any internet-enabled device
  • No intervention in the IT infrastructure necessary
  • Archiving and documentation of the values

SENTINUM My.sentinum Air Quality Monitor Webapp

  • Compatible with the Febris sensor
  • E-Mail reporting when limit values are exceeded
  • Available on any internet-enabled device
  • No intervention in the IT infrastructure necessary
  • Archiving and documentation of the values

PAESSLER Paessler Building Monitor

  • Vendor agnostic monitoring tool, customizable to your needs.
  • The cloud-native SaaS is fully managed by Paessler and runs on common cloud providers.
  • Secure integration and connectivity of IoT devices.

5 LICENSING AND CERTIFICATION

Licensing mioty® technology is straightforward and transparent. Apart from potential commercial licenses for selected software stacks, cloud services, or backend solutions, the required intellectual property rights for the mioty® radio technology itself are covered through the Sisvel patent pool. The licensing program is based on FRAND principles, meaning fair, reasonable, and non-discriminatory terms with publicly available conditions and pricing. License fees are typically paid once per sold device by the manufacturer of the finished end point or base station product, simplifying the licensing process across the supply chain.

The mioty® certification process is designed to be developer-friendly. Certification is currently based on a self-certification approach, meaning that manufacturers can perform the required measurements in their own laboratory or work together with an external test house. After completing the tests, the resulting test report is submitted to the mioty Alliance for review, granting the right to use the mioty® certified logo on approved products. The official mioty® test specification is publicly available and defines the most important interoperability and performance tests for mioty® devices, making it a valuable reference throughout the entire development process. In addition, further testing tools, integration support, and verification services are available through members of the mioty Alliance ecosystem.

GUIDES AND PROJECTS

Documentation and example projects provide invaluable resources for developers, offering detailed and user-friendly tutorials. These resources cover a wide range of topics, from building and programming sensor nodes to setting up an IoT platform. These guides provide step-by-step instructions and comprehensive explanations to enable individuals an easy and quick entry to mioty.

OPEN SOURCE PROJECTS

The number of open-source initiatives for mioty is constantly growing, and we aim to collect them all. mioty is a key standard for industrial and massive IoT. To accelerate development and lower the barrier to entry, this page serves as a central hub for all relevant open-source projects, libraries, and code examples.

 

Project Name Description Notes
Open Source mioty Stack for Arduino Implementation of the TS-UNB-Lib for the Arduino plattform based on the ATmega328p  
Open Source mioty Stack for Raspberry Pi Implementation of the TS-UNB-Lib for the Raspberry Pi Pico based on the RP2040 chip  
Open Source mioty Stack for STM32 Implementation of the TS-UNB-Lib for the Arduino plattform based on the ATmega328p  
Open Source mioty Service Center This is a basic implementation of the mioty BSSCI protocol. Non-commercial license only
Open Source mioty Base Station (miotyGO) miotyGO project developed by Loriot provides the user the capability to implement a development mioty Base Station for testing purposes, users will be able to run up to 10 mioty endpoints with miotyGO Base Station. By Loriot
M3B Demo Board for Arduino This repo contains example code for configuring the m3b Demo Board with Arduino IDE.  
M3B Demo Board Examples This repository provides various code examples based on arduino for the M3B Demo Board with the Swissphone mioty module m.YON. By Swissphone
Open Source mioty Demo-Kit PCB Breakout Board PCB for the Raspberry Pi Pico & HopeRF module example Open Hardware
End Point Example with RPi Pico RP2040 & C++ Modular Architecture Showcase for the Open Source TS-UNB-Lib including Payload and Blueprint example  
Home Assistant Addon for mioty A complete Home Assistant Add-on solution for managing mioty IoT sensors via MQTT integration with an automated payload decoding system and a web-based management interface.  
mioty Heat Mapper for network coverage tests Tool to record signal quality in mioty networks and create heat maps of quality metrics like RSSI, SNR, etc. Forked from WiFi Heat mapper
Open Source BSSCI This is a basic implementation of the mioty BSSCI protocol. Apache License

SUPPORT

Get Expert mioty® Support

Need help with mioty® implementation? Micha Burger, our dedicated technical specialist, is here to assist you.

With extensive knowledge and practical experience, Micha can guide you through any technical challenge. Feel free to reach out to him directly or book an online call to ensure your mioty® projects are a success.

Micha Burger

IoT Solutions Engineer