Sentrius™ MG100/BT510/BT610 Cumulocity IoT Starter Kit


Includes a free Cumulocity IoT 60 day trial!

Powered by Laird Connectivity's Pinnacle™ 100 Modem, the Sentrius™ MG100 Gateway captures data from Bluetooth 5 long range sensors and sends it to the cloud via a global low power cellular (LTE-M/NB-IoT) connection. Paired with Laird Connectivity’s Sentrius™ BT510 and our latest Sentrius™ BT610 sensors, the starter kit provides a complete hardware solution for monitoring your applications status.

Out-of-box the gateway and sensors have be developed to work with the Software AG Cumulocity IoT platform. Cumulocity IoT gives you very fast visibility and control over your remote assets, be these houses, cars, machines or any other assets that you want to manage.

Kit Contents

  • Sentrius MG100 Gateway
  • 3 x Sentrius BT610 I/O Sensors
  • 3 x Thermistor Sensors
  • 1 x Sentrius BT510 Multi-Sensor
  • 60 day free trial of Cumulocity IoT software

Fully-Featured Development Kit

Configure your data points and set points from Cumulocity IoT for your application. No software development needed. Monitor status, collect historical data, log changes and record the alarms from your equipment. Industrial-strength security with no VPN required. With Cumulocity IoT, you get self-service access to analytics and smart rules for the business user as well as full developer tooling for the more advanced user. Quickly connect hybrid applications and easily configure integrations to update and synchronize data between applications using dozens of pre-built connectors and predefined recipes to get the job done fast. Our MG100/BT510/BT610 Cumulocity IoT Starter Kit also includes a free two months of Cumulocity IoT service.

MG100 - BT510 - BT610 Cumulocity IoT Starter Kit

The Easy Button: View our Joint Webinar with Software AG! 

IoT solutions show measurable return on investments for businesses across a variety of industries by creating efficiencies and enabling new business models. They can, however, be challenging to implement and difficult to scale. From managing devices and configuring connectivity types, to ingesting data and building applications, it can all be a bit overwhelming. Until now.

View the Webinar


Wireless Specification
Bluetooth 5, LTE-M, NB-Iot (MG100)
Bluetooth 5 (BT510 and BT610)
Chipset (Wireless)
Sierra HL7800, Nordic nRF52840 (MG100)
nRF52840 (BT510 and BT610)
Sensor Type
Temperature, Proximity, Door Open / Close, Acceleration (BT510)
Thermistor, AC Current, Ultrasonic, Pressure (BT610)
FCC (USA), ISED (Canada), EU, UKCA,
Cellular approvals PTCRB, GCF
AT&T and Verizon carrier approvals
Form Factor
Molded plastic housing
Cumulocity IoT Platform by Software AG (Two months free)
Additional Description Included Gateway Included Sensor
455-00127 MG100/BT510/BT610 Cumulocity IoT Starter Kit MG100 1x BT510, 3x BT610, 3x Thermistor Cable

Photo Gallery



Name Part Type Last Updated
Product Brief - Sentrius™ MG100/BT510/BT610 Cumulocity IoT Starter Kit All Product Brief 05/18/2022
MG100-BT610 with Cumulocity IoT - Quick Start Guide All Documentation 04/05/2022


How can I measure the performance and health of my Pinnacle 100 / MG100 devices once they're in production?

For analyzing overall performance patterns in your fleet, metrics can easily be collected using our Memfault integration with the Pinnacle 100 and Sentrius MG100. Laird customers get instant access to Memfault for up to 100 devices free forever. 

How can I diagnose and debug crashes and other issues with devices remotely without an FAE on-site?

You can use Memfault to remotely monitor the health of their devices and debug issues in both the Pinnacle 100 and MG100 Gateway designs. Laird customers get instant access to Memfault for up to 100 devices free forever.

How do I get started with Memfault?

Laird customers get instant access to Memfault's device observability platform for up to 100 devices free forever. To get started with Memfault for remote debugging, continuous monitoring, and OTA firmware updates, sign up here.

Can I use a different magnet to trigger the BT510 sensor magnet switch?

Technically any magnet with sufficient field strength and proper field orientation can be used.
The magnet sensor used in the BT510 is a magnetoresistive sensor and hence the sensitive axis is in the sensor plane (other than for hall sensors where the sensitive axis is perpendicular to the sensor plane). Below picture indicates the sensitive axis. The sensor is NOT sensitive to the direction of the field!

MR Magnet Sensor

More information about sensitivity and orientation recommendations from the sensor chip perspective is in the SM351LT data sheet. The below picture summarizes the most important aspects. It also shows the orientation of the sensor chip relative to the BT510 enclosure. The magnet coming with the BT510 is a rod-style magnet with axial magnetization and hence the field lines go from the short sides (top/bottom) of the magnet (more or less parallel) along the long sides of the magnet like indicated in the “magnet movement” section of the picture. This orientation ensures the field lines penetrating the sensor chip mainly along its sensitive axis. One can also see that rotating the magnet by 90° would lead to the field lines penetrating the sensor chip perpendicular to the sensitive axis and hence not generate any signal.

BT510 MR Sensor and Magnet Orientation

When selecting a different magnet than the standard BT510 magnet both field strength and orientation needs to be taken into account. A magnet with higher field strength can cover a larger operating distance to trigger the magnet switch. 

There exist a lot of standard round magnets on the market often used to stick/fix something onto metal surfaces and hence the magnetization is not critical and works for any magnetization type (like axial, vertical, diametrical…). However, often the magnetization type is not even specified for a particular magnet and cheap ones (like used for white boards) sometimes even have several magnetic poles in parallel over the area of the magnet. This actually helps for the common use-case of sticking well to metal surfaces but makes them quite unusable for reliably and reproducibly triggering a sensor chip.

How to best orientate your round magnet to get stable sensor near/far readings would depend on how the magnet is being magnetized and how the magnetic field lines would penetrate the sensor chip when applied. If the magnetization is unknown a magnetic field viewer (aka flux detector/viewer) can be used to "see" the magnetic poles and get the orientation of field lines.
The general advice would be to either use a rod-style magnet with axial magnetization in the above shown orientation or a round magnet with known magnetization type and then positioned in a way so that the field lines penetrate the sensor in its most sensitive axis. To ensure this, the magnetization of the magnet must be known before mounting.

What IDE can I use with Zephyr for development and debug on the Pinnacle 100 or other Nordic-based modules?

We suggest using Visual Studio Code, please see the following for more information:

  • We suggest using Memfault for an out-of-the-box fault debugging and device observability solution. Memfault integrates seamlessly with Zephyr on the Pinnacle 100 and Sentrius MG100. Laird customers get instant access to Memfault for up to 100 devices free forever.