Abstract: Systems and methods may include a processor to receive time-series presence data from at least one presence sensing device associated with an area, including instances of presence detected in the area, and times associated with the instances. The processor may determine an occupancy metric in each time slot of the area based on the instances of presence and the times. The processor may generate an occupancy schedule for the area based on: the occupancy metric in each time slot and a history of occupancy metrics. The occupancy schedule represents a prediction of a level of occupancy of the area during each subsequent time slot in subsequent weeks. The processor determines a comfort system actuator in the area and communicates the occupancy schedule to the comfort system actuator to cause the comfort system actuator to actuate based on the prediction of the level of occupancy of the area.

Abstract: Method to operate a hot water storage device (10) comprising a tank (11), a heating unit (15), at least one temperature sensor (19, 20), and a controller (21) to control the heating unit (15). The method comprises the following steps: Determine from a water temperature measurement signal provided by the at least one temperature sensor (19, 20) a water usage profile, said water usage profile providing for defined time intervals of a day and/or for defined days of a week a nominal temperature and a nominal volume of the heated water to be stored within the tank. Operate the heating unit (15) in such a manner that for each defined time interval of a day and/or for each defined day of a week the actual temperature and the actual volume of the heated water stored withing the tank corresponds automatically to the respective nominal value of the water usage profile.

Abstract: Disclosed are systems and methods that provide a novel framework for personalized location management and control via integrated large language model (LLM) capabilities within the location's control system(s). The framework operates to predict certain events within and/or around a location, and maximize the capabilities of an implemented control system to leverage such predictions via mechanisms to understand the current and/or future needs of a user(s) within such location. Such mechanisms can involve the implementation of AI, ML and/or LLMs, such that predicted events as well as currently detected data related to current and/or ongoing events can be fed to the disclosed framework, whereby adaptive, personalized and/or customized responses can be output.

Abstract: A method may measure a respective temperature at a respective remote location or at the respective water pipe with the respective temperature sensor. A method may determine from the respective temperature measured by the respective temperature sensor a water usage event at the respective remote location. A method may determine during a determined water usage event a temperature profile from the temperature measured by the respective temperature sensor. A method may determine from the temperature profile determined during the water usage event a risk factor of microbiological growth at the respective remote location or of microbiological growth within the respective water pipe. A method may execute a disinfection cycle for the respective remote location or the respective water pipe if the respective risk factor of microbiological growth is above a respective risk threshold.

Abstract: A system includes a controller, a heating, ventilation, and air conditioning (HVAC) unit, first and second dampers, and first and second pressure sensors. The first damper is positioned at a first air duct that supplies air from an exterior of a premises. The second damper is positioned at a second air duct that supplies air from an interior of the premises. The first pressure sensor is configured to detect an air pressure exterior to the premises. The second pressure sensor is configured to detect an air pressure within the premises. The controller is configured to receive the detected exterior air pressure and the detected interior air pressure, and the controller is configured to change the air pressure within the premises by adjusting at least one of the first damper and the second damper based on the detected exterior and interior air pressures.

Abstract: A system includes a controller, a heating, ventilation, and air conditioning (HVAC) unit, first and second dampers, and first and second pressure sensors. The first damper is positioned at a first air duct that supplies air from an exterior of a premises. The second damper is positioned at a second air duct that supplies air from an interior of the premises. The first pressure sensor is configured to detect an air pressure exterior to the premises. The second pressure sensor is configured to detect an air pressure within the premises. The controller is configured to receive the detected exterior air pressure and the detected interior air pressure, and the controller is configured to change the air pressure within the premises by adjusting at least one of the first damper and the second damper based on the detected exterior and interior air pressures.

Abstract: Systems and methods for leveraging Internet-of-Things devices in security systems are provided. Such systems and methods can include receiving an alarm signal from a first IoT device responsive to the first IoT device detecting a sound indicative of an intrusion, requesting data from a second device responsive to receiving the alarm signal from the first IoT device, determining whether the data from the second device confirms the intrusion, and triggering an alarm responsive to the data from the second device confirming the intrusion.

Abstract: Systems and methods of augmented reality alarm system installation are provided. Methods can include capturing an image of a first piece of information displayed on a first user interface, identifying and retrieving a second piece of information associated with the first piece of information, and displaying the second piece of information on a second user interface.

Abstract: Systems and methods of power-safe control panel installation are provided. Some systems can include a control panel that includes a programmable processor and executable control software stored on a non-transitory computer readable medium, wherein the programmable processor and the executable control software can transmit a signal to selectively remove power from at least one portion of the control panel.

Abstract: A security system including a wireless alarm sensor that detects a threat within a secured geographic area, a cloud application that monitors the alarm sensor and reports threats detected by the alarm sensor within the secured area to a human user of the secured area and a wireless publically accessible communication system defined by a plurality of relatively low power communication devices and a local base station, the alarm sensor detects a nearby one of the plurality of low power communication devices and wirelessly connects to the cloud application through the nearby one low power communication device and local base station.

Abstract: Systems and methods for increasing robustness of a system with a remote server are provided. Some methods can include a first system remotely controlling a second system, detecting a failure in the first system or in a communication link between the first system and the second system, and temporarily removing control of the second system from the first system.

Abstract: Systems and methods of communicating data from an alarm system to emergency services personnel are provided. Some methods can include receiving information from a monitoring system in a monitored region via a first communications link, where the information relates to a detected event in the monitored region. Upon receiving the information, some methods can also include transmitting the information to a communications module via a second, different communications link.

Abstract: A security system including devices generating persistent data, a local control system (LCS) including a microprocessor and non-volatile memory and receiving persistent data from the devices, and a server remote from the LCS. The remote server is in communication with the LCS microprocessor which periodically transmits logical portions of persistent data (each including a timestamp) to the remote server where it is saved. The microprocessor also periodically saves the persistent data portions in LCS non-volatile memory less frequently than the persistent data portions are periodically saved in the remote data storage, and saves the timestamp in the local data storage for each persistent data portion saved only at the remote server. When rebooting the LCS, the microprocessor retrieves from the remote data storage only the persistent data portions having timestamps subsequent to the timestamp saved in the local data control system non-volatile memory.

Abstract: A monitoring system is continuously coupled to and in communication with a selected network. The system monitors characteristics of the network and characteristics of assets of the network. Removal of assets can be detected and alarm indicating messages can be generated locally at the monitoring system or at a wireless communication device.

Abstract: Systems and methods that use cloud-hosted control system back-up processing to replace the functionality of a failed control panel are provided. Systems can include a remote monitoring station, a remote control panel device, and a local control system installed in a region, the local control system including a local control panel and at least one device. When operating in a normal mode, the at least one device can communicate with the local control panel, the local control panel can communicate with the remote monitoring station, and the remote control panel device can be inactive. When operating in a back-up mode, the remote control panel device can be active, the at least one device can communicate with the remote control panel device, the remote control panel device can communicate with the remote monitoring station, and the local control panel can be inactive.

Abstract: A door access control system associates a unique passive identifier with each one of a plurality of doors for which controlled access is desired. Each of the identifiers can be attached to a location adjacent to each respective door. A smart phone with a predetermined scanning application can scan or read a respective identifier of a door for which access is desired. A representation of the door identifier along with an identifier of the smart phone can be transmitted to an access control unit. A data base of the access control unit can be interrogated to determine if that smart phone identifier is authorized to open the designated door. If authorized, then an access command can be transmitted to a local access control module that can release a locking mechanism for the respective door.

Abstract: Systems and methods of power-safe control panel installation are provided. Some systems can include a control panel that includes a programmable processor and executable control software stored on a non-transitory computer readable medium, wherein the programmable processor and the executable control software can transmit a signal to selectively remove power from at least one portion of the control panel.

Abstract: A security system including a wireless alarm sensor that detects a threat within a secured geographic area, a cloud application that monitors the alarm sensor and reports threats detected by the alarm sensor within the secured area to a human user of the secured area and a wireless publically accessible communication system defined by a plurality of relatively low power communication devices and a local base station, the alarm sensor detects a nearby one of the plurality of low power communication devices and wirelessly connects to the cloud application through the nearby one low power communication device and local base station.

Abstract: Systems and methods for increasing robustness of a system with a remote server are provided. Some methods can include a first system remotely controlling a second system, detecting a failure in the first system or in a communication link between the first system and the second system, and temporarily removing control of the second system from the first system.

Abstract: A monitoring system is continuously coupled to and in communication with a selected network. The system monitors characteristics of the network, and also characteristics of assets of the network. Removal of assets can be detected and alarm indicating messages generated locally at the monitoring system, or at a wireless communication device.