INGICS, the manufacturer of some of the Bluetooth gateways we supply, has a new open source DemoBoard that can be used to demonstrate and test their gateways.
The software supports M2M (TCP) and MQTT connections.
The dashboard shows the number of messages and beacons:
Clicking on the number of messages shows a log of the received messages:
While AirTags use Bluetooth (and Ultra Wideband UWB), the Bluetooth transmission isn’t in iBeacon format. The advertising is more complex and involves a rotating key scheme for enhanced security.
The Find My mechanism has been reverse engineered (pdf) by the Secure Mobile Networking Lab of Technical University of Darmstadt.
The researchers have an open source framework called OpenHaystack on GitHub that demonstrates how to create your own tracking tags by installing Bluetooth firmware on Linux, ESP32 or Nordic nRF51.
If you are a manufacturer wanting to use the Find My mechanism, you shouldn’t rely on reverse engineering that can change and should instead join Apple’s Find My network accessory program.
MIT App Inventor is a cloud-based tool that allows you to build apps in the web browser. It provides a visual programming block-based environment allowing anyone, even children, to build fully functional apps for smartphones and tablets.
The first 50 registrants are being entered into a raffle to win 10 PIC-IoT boards and vouchers worth €10 and €25 for the Elektor Store.
Beacons provide a significant improvement in the sign in process, reducing administration and providing for a quicker and easier sign in using the Ostara app. 1300 Bluetooth Beacons have been installed that are used by over 10,000 engineers.
There’s a recent open source Python3 Bluetooth device scanner SDL_Pi_iBeaconScanner that reads iBeacon advertisements using a Bluetooth dongle on a Raspberry Pi.
The system consists of two solar powered belisha pedestrian crossing beacons installed by John Sisk and Son Ltd as part of traffic management plan measures.
Each belisha beacon has a Bluetooth transmitter advertising iBeacon. This allows parameters such as the battery voltage, discharge current and the beacon’s unique ID (UID) to be obtained and controlled remotely using an app.
As real, physical events come back after the pandemic, systems like Aventri will become useful once again. Aventri is an app-based event and conference guide that increases engagement and provides real-time event performance insights.
iBeacons can be used to trigger an automated message when a user is in range of a booth or other conference location. They can also be used to implicitly measure foot traffic at particular points. It’s also possible to generate lists of who visited each booth.
The system involves a smart helmet worn by walking workers that picks up Bluetooth beacons attached to heavy equipment, vehicles or placed in dangerous zones. The aim is to prevent collisions between equipment and pedestrians in mines.
The bidirectional proximity warnings provide visual proximity alerts that reduce worker mental effort and stress and help to free the hands of workers to maintain work efficiency.
The system uses an Arduino Uno board with Bluetooth BLE module within the helmet. Visual warnings are provided using LED straps.
The use of Bluetooth for proximity safety warnings isn’t new. We have come across similar concepts in power stations and factories where fixed smart lights and/or apps, rather than smart-helmets, are used to improve proximity safety, particularly near blind corners or hazardous areas. We also have clients re-purposing social distancing beacons to provide for simpler systems that warn workers of proximity to vehicles.
The FSC-BP103 is popular for use on a key ring or lanyard due to its small size (37.8mm x 33.8mm x 7.9 mm).
It’s also relatively inexpensive allowing it to be rolled out to a large number of people. For example, we have London Queen Mary University Barts Cancer Institute using this beacon with BeaconRTLS to audit room occupancy for Covid. The button is also used as an SOS in the case of lone working.