The present disclosure provides details of a system and method for a communication device for guards in a controlled environment. The communication device is established based on a wireless infrastructure in the controlled environment, receiving wireless positioning signals to calculate and determine the real-time location of personnel carrying the device. The indoor wireless positioning can be combined with other available positioning methods to provide highly accurate positioning information of the personnel. The communication device detects and records activities of the personnel during a period of time, and is controlled by the control center. The status of personnel is monitored by control center. Meanwhile, the communication device has AR functions that allow physical objects and augmented reality element to be displayed to the personnel at the same time. The personnel can thus have improved awareness of the surrounding environment and can respond to various potential dangers more effectively.

An alert system has a first device configured to be secured to a first person, a second device associated with a second person, and a computing system. The computing system is configured to determine when the first device has breached a first geofence associated with the second device and, upon determining the first device has breached the first geofence, alert the first device, the second device, and a third device. The first device is configured to, upon receiving an alert indicating the first geofence has been breached, emit an alert signal on the first device. The second device is configured to, upon receiving an alert indicating the first geofence has been breached, emit an alert signal on the second device.

An alert system has a first device configured to be secured to a first person, a second device associated with a second person, and a computing system. The computing system is configured to determine when the first device has breached a first geofence associated with the second device and, upon determining the first device has breached the first geofence, alert the first device, the second device, and a third device. The first device is configured to, upon receiving an alert indicating the first geofence has been breached, emit an alert signal on the first device. The second device is configured to, upon receiving an alert indicating the first geofence has been breached, emit an alert signal on the second device.

A security ecosystem, device and method for distributing physical resources based on workflow interactions is provided. A computing device determines that a trigger, of a safety-workflow, has occurred, comprising: determining, from distribution-tracking data, that distribution of physical resources in a region meets a suboptimal-distribution condition. In response, the computing device implement a first responsive action, of the safety-workflow, comprising generating an indication of the distribution of the physical resources in the region at an electronic map. The computing device implements an analysis component, of the safety-workflow, comprising: determining whether the distribution of the physical resources meeting the suboptimal-distribution condition meets a predetermined exemption condition. In response to the predetermined exemption condition not being met, the computing device implements a second responsive action, of the safety workflow, comprising: providing an alert to one or more notification devices identifying that the distribution of the physical resources meets the suboptimal-distribution condition.

A security ecosystem, device and method for distributing physical resources based on workflow interactions is provided. A computing device determines that a trigger, of a safety-workflow, has occurred, comprising: determining, from distribution-tracking data, that distribution of physical resources in a region meets a suboptimal-distribution condition. In response, the computing device implement a first responsive action, of the safety-workflow, comprising generating an indication of the distribution of the physical resources in the region at an electronic map. The computing device implements an analysis component, of the safety-workflow, comprising: determining whether the distribution of the physical resources meeting the suboptimal-distribution condition meets a predetermined exemption condition. In response to the predetermined exemption condition not being met, the computing device implements a second responsive action, of the safety workflow, comprising: providing an alert to one or more notification devices identifying that the distribution of the physical resources meets the suboptimal-distribution condition.

Medication management and reporting technology, in which output from at least one sensor configured to sense physical activity in a building in which medication of a patient is located is monitored and a determination is made to capture one or more images of the medication based on the monitoring. A camera is used to capture an image of the medication and the captured image is analyzed to detect a state of the medication. Information regarding a schedule by which the medication should be taken by the patient is accessed and an expected state of the medication is determined. The detected state is compared with the expected state and a determination is made that the patient has departed from the schedule based on the comparison revealing that the detected state does not match the expected state. A message indicating the departure from the schedule is sent based on the determination.

Medication management and reporting technology, in which output from at least one sensor configured to sense physical activity in a building in which medication of a patient is located is monitored and a determination is made to capture one or more images of the medication based on the monitoring. A camera is used to capture an image of the medication and the captured image is analyzed to detect a state of the medication. Information regarding a schedule by which the medication should be taken by the patient is accessed and an expected state of the medication is determined. The detected state is compared with the expected state and a determination is made that the patient has departed from the schedule based on the comparison revealing that the detected state does not match the expected state. A message indicating the departure from the schedule is sent based on the determination.

A noise monitoring device and a method of monitoring a location are disclosed. In one example, the noise monitoring device includes: (1) a microphone configured to detect noise proximate the noise monitoring device and derive raw data therefrom, and (2) a processor configured to determine when at least a portion of the raw data exceeds a threshold during a time period. In one example, the method of monitoring a location includes: (1) deriving raw data from noise proximate a noise monitoring device at the location, (2) comparing, for a designated period of time, at least a portion of the raw data to a threshold, and (3) determining an occurrence of an event at the location based on the comparing.

A noise monitoring device and a method of monitoring a location are disclosed. In one example, the noise monitoring device includes: (1) a microphone configured to detect noise proximate the noise monitoring device and derive raw data therefrom, and (2) a processor configured to determine when at least a portion of the raw data exceeds a threshold during a time period. In one example, the method of monitoring a location includes: (1) deriving raw data from noise proximate a noise monitoring device at the location, (2) comparing, for a designated period of time, at least a portion of the raw data to a threshold, and (3) determining an occurrence of an event at the location based on the comparing.

The present disclosure provides a network architecture and verification platform for analyzing the various modules of a Unified Extensible Firmware Interface (UEFI) firmware image. In one embodiment, the disclosed network architecture and verification platform obtains various UEFI firmware images, such as UEFI firmware image residing on a client device or a UEFI firmware image hosted by a hardware manufacturer. The network architecture and verification platform may then segregate the various UEFI firmware modules that make up the UEFI firmware image, and subject the modules to different types of analysis. By analyzing the UEFI firmware modules individually, the network architecture and verification platform builds a repository of Globally Unique Identifiers (GUIDs) referenced by a given UEFI firmware module, which may then be referenced in future analyses to determine whether any changes, and the extent of such changes, have been made to an updated version of the given UEFI firmware module.