Tyco Fire + Security Gmbh

Johnson Controls Tyco IP Holdings Llp

Simplexgrinnell LP

Johnson Controls Fire Protection LP

Johnson Controls Technology Company

Joseph Piccolo, Iii

Craig Evan Trivelpiece

Timothy C Gamroth

David Dahlstrom

Kirk H Drees

Alexandra K Norton

Dennis A McEvoy

Mary Winna Fox

Kirill Alexandrov

Ian Christopher Westmacott

Daniel G Farley

James T Roberts

Gary W Vincent

Nicholas J Schaf

John Bradley Stowell

Maxime Fortin

Mario Boisclair

Juan Antonio Martinez

Richard A Koss

J R Mario Boisclair

Laurent Veilleux

Daniel Lauzon

Jean Claude Dore

A power outlet control device includes at least one electrical outlet and a processing circuit comprising a processor and memory storing instructions that, when executed by the processor, cause the processor to perform operations. The operations include monitoring external power supplied to the power outlet control device, detecting one or more powerline events based on the external power supplied to the power outlet control device, and automatically controlling an amount of power supplied to the at least one electrical outlet based on the one or more powerline events.

Systems and methods for monitoring and controlling outlet power

A method for selectively transmitting audio signals in a fire alarm system includes receiving, by a Notification Appliance Circuit (NAC) selecting device, an audio signal for transmission over a first NAC or a second NAC. Each of the first NAC and the second NAC includes respective groupings of one or more NAC appliances. The NAC selecting device receives a selection signal from a Fire Alarm Control Panel (FACP) electronically connected to the NAC selecting device. The selection signal identifies one or more NAC appliances that should be moved from a first grouping corresponding to the first NAC to a second grouping corresponding to the second NAC. The NAC selecting device selectively transmits the audio signal to one of the first NAC and the second NAC based on the selection signal.

Fire alarm speaker circuits for dual-purpose spaces

A system for controlling air quality of a building space includes HVAC equipment configured to serve the building space, sensors configured to measure a plurality of parameters relating to the building space, and a control system. The control system is configured to receive data from the sensors, determine a feedforward air quality contribution, determine a feedback air quality contribution based on a measured air quality and an air quality setpoint for the building space, combine the feedforward air quality contribution and the feedback air quality contribution to determine a target amount of ventilation or filtration to be provided to the building space by the HVAC equipment, and control the HVAC equipment to provide the target amount of ventilation or filtration.

Building control system with feedback and feedforward total energy flow compensation

A system and method for object location notification in a fire alarm system is disclosed. The fire alarm system includes a fire alarm panel and fire alarm devices deployed within a premises that capture audio and/or image information. The fire alarm panel generates alarm signals and provides notifications of the existence of objects of interest from the audio and/or image information captured by the fire alarm devices. In examples, the fire alarm devices include alarm notification devices that generate an audible and/or visible fire alarm to occupants of the premises such as sirens and strobe lights, and fire sensor devices such as flame sensor devices and smoke sensor devices that monitor for flame and smoke as the indications of fire, respectively. In one embodiment, an analytics system is integrated within the fire alarm devices that determines the existence of the objects of interest from the captured audio and/or image information.

Method and system for object location notification in a fire alarm system

A wireless infrastructure component for integration with a building fire system includes a first mounting interface and a wireless communications interface. The first mounting interface is configured to physically couple to a mounting surface and includes a first power connector that is configured to receive power from the building fire system. The wireless communications interface is electrically coupled to the first power connector and is configured to use the power from the building fire system in order to conduct wireless communications with one or more wireless devices.

Fire alarm system powering a wireless building network

An interface actuator device, an interface actuator system, and a system and method for remotely controlling an interface of a control panel are disclosed. The interface actuator device includes an actuator for controlling the interface of the control panel and an attachment mechanism for mounting the interface actuator device to the control panel. The system can further include a camera for capturing images of the interface and a mobile device for controlling the actuator and viewing the images from the camera.

Interface actuator device and method of use

Aspects of the present disclosure provide addressable detection and alarm systems and methods for controlling a combined circuit by a control panel. In an example, a combined circuit may include one or more addressable initiating devices and one or more non-addressable notification appliances communicatively coupled with paired wires in parallel. The control panel may receive, on the paired wires, an indication of an anomaly from an addressable initiating device and transmit, on the paired wires, the alarm signal to the one or more addressable initiating devices and the one or more non-addressable notification appliances, wherein a first state of the alarm signal activates the one or more non-addressable notification appliances and deactivates the one or more addressable initiating devices, and wherein a second state of the alarm signal deactivates the one or more non-addressable notification appliances and activates the one or more addressable initiating devices.

Systems and methods for controlling addressable combined initiating device and notification appliance circuits

A sensor apparatus for integration with a building fire system includes a first mounting interface configured to physically couple to a mounting surface. This first mounting interface comprises a first power connector configured to receive power from the building fire system. The sensor apparatus further comprises an environmental sensor electrically coupled to the first power connector and configured to use the power from the building fire system to monitor environmental conditions of a building.

Fire notification device with integrated environmental node sensor

Aspects of the present disclosure provide non-addressable detection and alarm systems and methods for controlling a combined circuit by a control panel. In an example, a combined circuit may include paired wires, one or more initiating devices, and one or more notification appliances communicatively coupled with the paired wires in parallel. The control panel may monitor the one or more initiating devices in a standby mode while maintaining the one or more notification appliances in an off state. When the control panel detects an anomaly from one or more initiating devices, the control panel may switch the combined circuit to an alarm mode. In the alarm mode, the control panel may activate the one or more notification appliances and maintain the one or more initiating devices in an off state.

Systems and methods for controlling combined initiating device and notification appliance circuits

The near-universal connection between control panels and monitoring stations is used to transmit status information for non-compatible control panels to connected services systems. In this way, connected services systems can incorporate monitoring and tracking of non-compatible control panels as well as compatible control panels.

Method and system for monitoring fire alarm systems

A system for controlling temperature of a building space includes HVAC equipment configured to serve the building space, a plurality of sensors configured to measure a plurality of parameters relating to the building space, and a control system. The control system is configured to receive data from the plurality of sensors, generate a plurality of disturbance heat flow estimates for the building space based on the data from the plurality of sensors, determine a feedforward heat flow contribution based on the disturbance heat flow estimates, determine a feedback heat flow contribution based on a measured temperature of the building space and a temperature setpoint for the building space, combine the feedforward heat flow contribution and the feedback heat flow contribution to determine a rate of heat flow to be provided to the building space by the HVAC equipment, and control the HVAC equipment to provide the rate of heat flow.

Building temperature control system with feedback and feedforward total energy flow compensation

A temporary building network system for forming a temporary network for a building includes a first network device and a second network device. The first network devices includes an energy storage device configured to power the first network device using stored energy, a wireless radio configured to communicate with the second network device, and an indicator device configured to indicate a wireless radio connection strength to a user. The first network device includes a processing circuit configured to cause the wireless radio to communicate with the second network device via the temporary network, determine the wireless radio connection strength for the wireless connection between the first network device and the second network device based on a communication with the second network device via the temporary network, and cause the indicator device to indicate the determined wireless radio connection strength to the user.

Temporary service and equipment installation network for a building

A number of different approaches are described for minimizing or preventing false alarms. In one case, override panels are used such as locally near or in the protected space or remotely at a security desk, for example. These override panels are used to deactivate or block the generation of a fire alarm signal in the case where the occupants or a management personnel recognizes that the fire alarm signal should not be generated. In this way, an alarm verification step is included. In another aspect, additional, contextual information is used to characterize or adjust when fire alarm signals are generated. This contextual information can be generated from sources that are not typically used in the generation of the fire alarm signal but instead are based on other sources of the information concerning the protected space.

Contextual fire detection and alarm verification method and system

An apparatus and method for verifying voice messages generated by notification devices in an emergency address system includes one or more verification devices and a validation module, which can be part of a control panel or a connected services system. The verification devices can be mobile computing devices or permanently installed devices associated with each notification device in the emergency address system. The verification devices include microphones, network interfaces, and controllers executing speech to text conversion processes. During testing, the notification devices play voice messages and the verification devices detect the messages, convert the messages to text and send the text-converted messages to the validation module, which validates the text-converted messages against the intended messages for each notification device and confirms that the messages were played in the correct locations.

System and method for testing emergency address systems using voice recognition

An augmented reality system for use with security systems comprises an augmented reality engine that provides information concerning devices of a security system and a display device that combines the security system information from the augmented reality engine onto a representation or view of the surrounding physical, real-world environment. The system can be used for inspection, installation and/or servicing, for example. In application, it can be used to facilitate inspection including periodic testing to ensure that a fire detection and alarm system, for example, is in compliance with building and safety codes.

Growing community of inventors

Fitzwilliam, NH, United States of America

Joseph Piccolo, Iii