A fire protection system according to an embodiment of the inventive concept includes a plurality of sensors having different address values, detecting fire occurrence, generating a fire alarm, and performing Radio Frequency (RF) communication with each other, a first server configured to perform RF communication with each of the plurality of sensors, and a second server configured to receive big data from the outside and communicate with the first server, wherein the second server includes a data collection unit configured to collect sensor data measured from each of the plurality of sensors and the big data, a data extraction unit configured to extract fire data based on information collected by the data collection unit, and a complex event processing unit configured to process complex events based on the fire data.

A fire protection system, which is configured to communicate with a central device of the fire protection system and with at least one user terminal in order to grant the user terminal access to at least part of the system information of the fire protection system, wherein the service device processes the system information for transmission to the at least one user terminal, transmits it to the user terminal and adjusts it in response to user input. A fire protection system configured to communicate with such a service device, a system for operating a fire protection system with such a service device, and a corresponding method for operating the fire protection system is provided.

A sensor walk-test may be streamlined by storing an expected behavior of sensor events. The sensor event data is then compared to the expected behavior of sensor events in order to determine which of the plurality of sensors need a sensor walk-test to verify proper operation of the sensor and which of the plurality of sensors do not need a sensor walk-test. A listing of which of the plurality of sensors are determined to need a sensor walk-test to verify proper operation of the sensor is displayed on a display of a user device. Communication testing may be streamlined in a similar manner.

A sensor walk-test may be streamlined by storing an expected behavior of sensor events. The sensor event data is then compared to the expected behavior of sensor events in order to determine which of the plurality of sensors need a sensor walk-test to verify proper operation of the sensor and which of the plurality of sensors do not need a sensor walk-test. A listing of which of the plurality of sensors are determined to need a sensor walk-test to verify proper operation of the sensor is displayed on a display of a user device. Communication testing may be streamlined in a similar manner.

A method of testing a fire detector, the method including receiving a self-test request at the fire detector; initiating a self-test on the fire detector; emitting a test sound from the fire detector; detecting the test sound using a voice activated assistant device or a thermostat; analyzing the test sound; determining self-test results based on the test sound; and conveying the self-test results to an individual.

Devices, systems, and methods for providing fire events pattern analysis and cross-building data analytics are described herein. One fire system maintenance system, includes a number of fire system detectors, a fire system control panel, and a gateway device all positioned within the facility, the gateway device having instructions to: collect fire system device health data associated with one or more fire or smoke detector devices and to send this fire system device health data to a remote device, the remote device having instructions to: analyze the collected fire system device health data to determine an event type for each device health event recorded in the collected data, predict future device health events, categorize the device health events based on their determined event type, and prioritize the categorized device health events based on the quantity of events categorized in each event type.

Systems and methods for remote monitoring of mechanical fire suppression systems are provided. For example, some embodiments generally provide for a smart fire suppression system with integrated sensors and communication technology to monitor the current state of the fire suppression system and notify various monitoring platforms, service providers, equipment manufacturers and/or others of the current state. In some embodiments, various sensors (e.g., micro switches) can be used to detect and report the status of the cartridge, activation status of the system, and/or the status of the detection line. Additional sensors and actuators may be also be included within the smart fire suppression system to allow monitoring of different states (e.g., temperature) and control the appliance and/or building utilities.

Devices, systems, and methods for controlling insects in a smoke detector device are described herein. One insect controlling smoke detector device, includes a housing having a smoke detecting chamber formed therein, a light source directing a light beam through the smoke detecting chamber, a light sensor to receive a portion of the light beam and analyze the received light beam to determine whether smoke particles are present in the chamber, and an insecticide injecting apparatus to inject insecticide into the chamber.

Methods, devices, and systems for an aspirating smoke detector device operational analysis are described herein. One device includes a memory, and a processor to execute executable instructions stored in the memory to receive operational information associated with an aspirating smoke detector device and generate, using the received operational information, an aspirating smoke detector device operational analysis including a real-time operational parameter associated with the aspirating smoke detector device, and a user interface configured to display the aspirating smoke detector device operational analysis.

A method of operating a sensing component for sensing a magnetic field to determine a state of an access point having a first component and a second component that are separable from each other to create an opening and wherein a magnet is mounted on one of the first or second components of the access point, wherein the method comprises: operating the sensing component to sense a magnetic field in multiple dimensions to produce a sample representation of the sensed magnetic field, wherein the sample representation is a multi-dimensional representation and determining whether the sample representation is in a pre-determined region about a reference representation that is representative of a state of an access point to determine that the sensed magnetic field corresponds to said state of the access point, wherein the pre-determined region comprises a circular cross-section.