A lidar trigger device and method of operating a lidar trigger device that includes: a controller having a processor and memory, the memory storing computer instructions; a wireless communications device; a lidar unit having a light emitter and light detector; an electronic display; and a housing that surrounds the controller, the wireless communications device, the lidar unit, and the electronic display. When the computer instructions are executed by the processor, the lidar trigger device is configured to: cause light to be transmitted from the light emitter of the lidar unit; cause reflected light that is received at the light detector to be processed; determine whether the lidar unit was triggered based on processing of the reflected light; in response to determining that the lidar unit was triggered, generate a trigger reporting message; and send the trigger reporting message to a remote device via the wireless communications device.

A lidar trigger device and method of operating a lidar trigger device that includes: a controller having a processor and memory, the memory storing computer instructions; a wireless communications device; a lidar unit having a light emitter and light detector; an electronic display; and a housing that surrounds the controller, the wireless communications device, the lidar unit, and the electronic display. When the computer instructions are executed by the processor, the lidar trigger device is configured to: cause light to be transmitted from the light emitter of the lidar unit; cause reflected light that is received at the light detector to be processed; determine whether the lidar unit was triggered based on processing of the reflected light; in response to determining that the lidar unit was triggered, generate a trigger reporting message; and send the trigger reporting message to a remote device via the wireless communications device.

An electronic device that establishes a second connection is described. After determining its location, the electronic device may provide information that specifies the location to a cellular-telephone network using a first connection to the cellular-telephone network. In response, the electronic device may receive mapping information. When the mapping information indicates that there are available channels in associated bands of frequencies at the location, the electronic device may: perform a scan of the available channels in the associated bands of frequencies; and establish the second connection with a radio node based on scan results. Alternatively, when the mapping information indicates that there are no available channels in associated frequency bands at the location, the electronic device may establish a third connection with the radio node in a licensed band of frequencies.

Systems and methods are provided for weapon monitoring, including a weapon measurement system with one or more sensors that record longitudinal operational information of a plurality of weapons and are used to produce a plurality of signals, a connection point that receives the plurality of signals within a deployment location, a server device running application software that uses the plurality of signals received from the plurality of weapons to detect and store longitudinal situational state data of each weapon of the plurality of weapons, and a machine learning system that uses the longitudinal situational state data to calculate a weapon system failure state.

The present disclosure described herein, in general, relates to a system 500 for controlling headlamps of a vehicle. The system 500 may comprise a signal processing unit 509, a relay circuit 401, a switch 302 and a user device 407. The user device 407 comprises a GPS tracker 408-A, an output unit 409, a processor 408-B and a memory 408-C. The system comprises comparing one or more parameters with the predefined threshold value, notifying information based upon the one or more parameters, instructing the user to change the status of the headlamp using the switch 302 based upon the comparison of the one or more parameters with the predefined threshold value and controlling the status of the headlamps upon receiving command by the user based upon the instructions or automatically operating the relay circuit 401 based upon the received signals.

The present disclosure described herein, in general, relates to a system 500 for controlling headlamps of a vehicle. The system 500 may comprise a signal processing unit 509, a relay circuit 401, a switch 302 and a user device 407. The user device 407 comprises a GPS tracker 408-A, an output unit 409, a processor 408-B and a memory 408-C. The system comprises comparing one or more parameters with the predefined threshold value, notifying information based upon the one or more parameters, instructing the user to change the status of the headlamp using the switch 302 based upon the comparison of the one or more parameters with the predefined threshold value and controlling the status of the headlamps upon receiving command by the user based upon the instructions or automatically operating the relay circuit 401 based upon the received signals.

The present invention generally relates to an attachment for a firearm that communicates with remote device or person such as emergency services. One embodiment of the present invention is selectively interconnected to a picatinny rail, weaver rail, or other mounting means, and the embodiment includes a button that allows a user to initiate communication with emergency services without removing his or her hands from the firearm.

The present invention generally relates to an attachment for a firearm that communicates with remote device or person such as emergency services. One embodiment of the present invention is selectively interconnected to a picatinny rail, weaver rail, or other mounting means, and the embodiment includes a button that allows a user to initiate communication with emergency services without removing his or her hands from the firearm.

The disclosure is related to monitoring integrity of cargo in a container on a trans-oceanic voyage and cargo on truck or trains. The method includes determining, by a trigger from at least one remote processor, that the system is activated by a change associated with a bio-element of at least one tag on cargo in a shipping process. At least one environment camera is activated to provide an environment media. At least one data retrieving component is activated to retrieve and to provide data associated with a tracking marker of cargo associated with the container. At least one satellite receiver is activated to receive location information for the at least one local processor. One or more of the environment media, the data, and the location information is packaged for a bit stream. The bit stream is communicated to a remote device.

The disclosure is related to monitoring integrity of cargo in a container on a trans-oceanic voyage and cargo on truck or trains. The method includes determining, by a trigger from at least one remote processor, that the system is activated by a change associated with a bio-element of at least one tag on cargo in a shipping process. At least one environment camera is activated to provide an environment media. At least one data retrieving component is activated to retrieve and to provide data associated with a tracking marker of cargo associated with the container. At least one satellite receiver is activated to receive location information for the at least one local processor. One or more of the environment media, the data, and the location information is packaged for a bit stream. The bit stream is communicated to a remote device.