TRBOnet is a 2-way radio dispatch system sold and supported by Motorola. It can use iBeacons to provide for locating where the Motorola radio GPS doesn’t work. This allows radios and hence people to be located indoors or undercover areas such as trees.
TRBOnet Plus will work with any iBeacons. The ones with higher battery capacity tend to be used so that batteries don’t have to be replaced for years.
The i3 is popular for use with TRBOnet as it takes AA batteries that can be easily sourced and the unit has screw tags for permanent mounting. Some sites also use USB beacons that can be powered from the mains via USB power supplies.
If you use the i3, or any beacon using AA batteries, we recommend you use lithium AA batteries rather than alkaline. This will not only provide a longer battery life but will also provide better resilience at lower temperatures.
A new version of TRBOnet has been released. TRBOnet is usually used with Motorola TRBO 2-way radio to provide control room facilities. Beacons can be placed across a site, the 2-radio detects them and TRBOnet plots them onto maps or plans.
This release additionally allows Android and iOS smartphones to be used as personal safety devices sending SOS to the TRBOnet control panel with location information. The app also allows push to talk (PTT) over cellular and sending of pictures to the control centre.
TRBO.SOS includes other advanced personal safety features, such as Man Down, Lone Worker and No Movement
On Android the app also supports the V.ALERT wearable Bluetooth panic button beacon.
TRBOnet is control room software for Motorola MOTOTRBO™ two-way radios. When used with iBeacons, it allows mapping of 2-way radio locations.
The location update rate depends on the degree of radio congestion. The more radios there are the greater the congestion. The use of iBeacons also increases radio congestion as they cause more location packets to be sent. This can become a problem in larger 2-way radio/beacon rollouts.
In cases where a 2-way radio can see more than one beacon, the TRBOnet server uses the relative signal strengths of the beacons to determine the nearest beacon. In the case of radio congestion, the location updates for the two or more beacons might be two far apart, in time, to allow an accurate location to be determined. In congested situations, location updates used for geofencing or man-down might also come in far too late, say 5 minutes late, to provide timely alerts that someone has entered/exited an area or has fallen.
Neocom Software, the authors of TRBOnet, have introduced an Option Board based solution (pdf), that fits in the 2-way radios, that solves these problems. It monitors beacons every 3-5 seconds instead of the standard 30 seconds. It does the comparing of beacon signal strength at the 2-way radio rather than at the server to reduce the number of sent location packets. It intelligently sends location packets as the user changes zone rather than continuously.
The configuration guide (pdf) explains how the option board can be set up to detect events such as man down, geofencing, lone worker (no activity), no movement, crash detection and speed limit.
Are you an established 2-way radio company? Contact us for advice on which beacons we have supplied for use with TRBOnet.
A critical use for beacons is protecting lone workers or those that might experience duress. Lone worker solutions traditionally used RFID that required workers to manually check-in to locations. If workers forgot or were in trouble you only knew their last location. Newer systems such as Motorola TRBONet used with 2-way radios and BeaconRTLS™ used with generic beacons allow continual tracking of location.
Another usecase related to lone working is warning workers when they are about to enter a hazardous area. An example of this is Lone Worker Solutions’ Safe Beacon feature that creates a virtual perimeter. If a control room needs to know someone has entered (or left) a zone, real time locating systems (RTLS) like BeaconRTLS™ can be used to set up zones with alerts.
It’s also possible to have workers press a button on a beacon as a form of SOS when they are under duress. An example of this is HID Global’s new Badge Beacon that addresses the growing need to protect doctors, nurses and other caregivers from threatening situations that arise in the hospital environment. This can also been done in a generic way by using a RTLS and detecting a beacon button press. Simpler solutions are also possible by having a simple app on the worker’s phone detect the beacon button press and send an alert.
Motorola MOTOTRBO range two-way Radios can be used with the Motorola-supplied TRBOnet PLUS (pdf) control room software to show the location of workers with digital radios on maps and plans. The radios contain both GPS and iBeacon detection to allow locating indoors.
There are three places where iBeacons need to be set up in TRBOnet:
In the GPS profile:
Placing beacon on the map:
Are you an established 2-way radio company? Contact us for advice on which beacons we have supplied for use with TRBONet.
When people think about beacons they often imagine them being detected in smartphone apps. This post explores other devices that can also see beacons allowing for different interaction possibilities and new scenarios.
Apps – Apps aren’t limited to just smartphone apps. You can run apps on TV boxes that run Android. Just make sure they have Bluetooth 4.3 or later.
Gateways – Gateways are small single pupose devices that look for beacons and send the information on via MQTT or REST (HTTP) to any server. This allows web servers to see beacons.
Desktops and Laptops – PC/Mac devices with built-in Bluetooth or dongles can see beacons.
Arduino – Arduino boards often have Bluetooth and can do things based on the presence of beacons.
Other Beacons – Some specialist beacons such as the Puck.js can communicate with other beacons.
Pixl.js – The manufacturer of the Puck.js also supplies a device with a screen that can detect and interact with beacons.
Single Board Computers (SBC) have an advantage over gateways in that data can be cached locally when there isn’t an Internet connection. They can also make decisions locally and send out alerts directly rather than having to rely on a server. This is so called ‘IoT Edge’ computing.