Walter Kidde Portable Equipment, Inc.

Carrier Corporation

Walter Kiddle Portable Equipment, Inc.

John J Andres

Travis Silver

Joseph G DeLuca

Anis Zribi

Stan Burnette

Chris R Gilbert

Stephen M Ernst

Larry R Ratzlaff

Matthew J Buchholz

Michael L Richards

Sean Curley

Chris Rovenstine

Michael W Apperson

Jonathon Hughes

Richard Kwor

Craig Kleinberg

John Wurtenberger

Micahel W Apperson

Michael J Birnkrant

Peter R Harris

Jennifer M Alexander

Kenneth J Mott

Bill Chandler

Stanley D Burnette

Dave Bush

Ken Mott

Abhay Nadgir

David A Bush

Barry Stahl

Joseph Deluca

Michael Apperson

Larry Ratzlaff

Stephen Ernst

Matthew J Bucholz

A safety automation system for an occupiable structure includes a computing management system, a first detection device, and a second detection device. The management system includes a computer processor, and a computer readable storage medium configured to run embedded software, The first detection device is adapted to detect a hazard condition and output an associated hazard condition detected signal to the computing management system. The second detection device is adapted to detect the presence of an occupant in the occupiable structure and the occupant's proximity to the first detection device, and output an occupied signal to the computing management system. The computing management system adjusts the sensitivity of the first detection device based on occupancy and proximity of the occupant to the first detection device.

Safety automation system

A safety automation system for an occupiable structure includes a computing management system including a computer processor, and a computer readable storage medium configured to run embedded software and cloud server software. A fire detection device of the automation system is adapted to detect a fire condition and output an associated fire condition detected signal to the computing management system. A condition deterrence device is configured to accept a wireless command signal from the computing management system associated with the fire condition detected signal and for actuating an appliance to at least reduce risk presented by the condition.

An integrated detection and suppression system includes a fiber harness having at least one fiber optic cable for transmitting light defining at least one node arranged to measure one or more conditions. A light source is operably connected to the fiber harness to transmit light along the fiber harness to the at least one node. A control system is operably coupled to the fiber harness such that scattered light associated with the node is transmitted to the control system, wherein the control system analyzes the scattered light to determine at least one of a presence and magnitude of the one or more conditions. At least one suppressant outlet is associated with at least one node and is operably connected to the control system configured to initiate a response for the delivery of a volume of suppressant through a suppressant outlet associated with a particular node.

High sensitivity fiber optic based detection

A safety automation system () for an occupiable structure and method of operation includes a plurality of detection devices () to facilitate the detection of a hazard condition and output a hazard detected signal to a computing management system () that may be a cloud computing system. The management system includes a computer processor (), and a computer readable storage medium () capable of generating various notifications to a mobile user interface device ().

Safety automation system and method of operation

A mounting assembly and method for installing an alarm unit are provided. The mounting assembly includes a backplate having a front face and one or more keys extending from the front face, with the backplate being configured to be secured to a wall. The mounting assembly also includes a receptacle including one or more triggers electrically connected to a power source of the alarm unit, and defining one or more hanger recesses. The receptacle is configured to receive the one or more keys of the backplate in the one or more hanger recesses such that the one or more triggers are actuated by engagement with the one or more keys and relative movement between the backplate and the receptacle. The receptacle is physically secured to the backplate via engagement with the one or more keys.

Mounting assembly with automatic activation for alarm units

A method and apparatus for utilizing a timing component to optimize low battery indication in alarm devices. The method and apparatus may set a timing component based on a condition detected by a alarm device. Upon detection of a low battery condition within the alarm device, the alarm device can delay low battery indication, using the timing component, until a time of day with a higher probably of user suitability.

Systems and methods for optimizing low battery indication in alarms

A life safety device includes a smoke sensor and a carbon monoxide (CO) sensor. Smoke sensitivity of the device is adaptively adjusted based upon the smoke sensor signal and the CO sensor signal.

Alarm with CO and smoke sensors

A life safety device can include a battery monitoring module configured to measure a voltage level of a battery, an alarm module configured to provide an alarm when the voltage level is less than or equal to a low battery threshold, and a silence module configured to silence the alarm for a random time period.

Low battery warning silencing in life safety devices

Presented is a communications protocol for use by interconnected hazardous condition detectors, such as smoke and carbon monoxide detectors for use in dwellings and other structures. This communications protocol provides conventional signaling to indicate the presence of a smoke condition necessitating the generation of a smoke temporal pattern by all interconnected detectors. The protocol further defines a signaling method by which conventional smoke detectors that are incapable of providing temporal patterns other than that required for a smoke alarm condition will not be sent into an alarm mode of operation upon receipt of a signal other than the conventional smoke alarm signal. This communications protocol defines a pulsed signal to indicate a non-smoke alarm condition that is of a duration that will not trigger the conventional smoke alarms. To allow for the transmission of multiple hazardous conditions alarm notifications, as well as the transmission of additional hazardous condition detector control signals, the communications protocol utilizes a multi-bit signal transmitted via the conventional single signal I/O wire of currently existing interconnect wiring. Through the use of an 8 bit alarm signal, multiple hazardous conditions may be signaled as well as operating modes such as test, hush, reset, low battery, etc. Also presented are smoke, carbon monoxide, and combination hazardous condition detectors that utilize the communications protocol presented herein.

Communication protocol for interconnected hazardous condition detectors, and system employing same

A life safety device can include a sensor configured to sense a hazardous condition, an interconnect module configured to communicate the hazardous condition to a wired life safety device using one or more wires, and a transceiver module configured to wirelessly communicate the hazardous condition to a wireless life safety device.

Gateway device to interconnect system including life safety devices

A method of radio frequency communication for a life safety device including a controller, a hazardous condition sensor, an alarm device, and a radio frequency communications device including transmitting and receiving capability. One method includes receiving a test signal using the radio frequency communications device, lowering a voltage to the hazardous condition sensor to simulate a hazardous condition to test the hazardous condition sensor, and emitting an alarm using the alarm device if the hazardous condition sensor passes the test. Another method includes before transmitting a radio frequency signal, turning on the radio frequency communications device for a period of time, and delaying transmission if the radio frequency communications device receives a header, deadtime and startbit. Yet another method includes sending a test signal at a first transmission power level, and sending an alarm signal at a second transmission power level greater than the first transmission power level.

Radio frequency communications scheme in life safety devices

A detector assembly is adapted to be removably secured to a female electrical receptacle connected to a power supply where the female receptacle is mounted at a surface of a structure. The detector apparatus includes a housing and an electrically powered circuit mounted in the housing. The circuit includes components operable to detect an alarm condition (such as carbon monoxide or smoke) and to provide an alarm in response to the detection. A primary power source includes a male electrical connector secured to the housing and extending outwardly there from. A secondary power source includes a battery connector mounted within the housing and adapted to removably receive a battery contained within the housing. The circuit is adapted to draw power from the secondary source in the event of a detected loss of power from the primary source. The apparatus includes a sensor for sensing displacement of the housing from the female electrical receptacle. The circuit is adapted to provide an alarm in response to the displacement of the housing from the mounted surface.

Hazard detector with theft detection

An adapter configured for use between an alarm device and a wire harness. The adapter includes a housing having first and second sides, a circuit board positioned at least partially within the housing, and a first connection configuration associated with the first housing side that includes a plurality of conductive contacts electrically coupled to the circuit board and configured to engage a first device. The adapter also includes a second connection configuration associated with the second housing side and having a plurality of male connection pins electrically coupled to the circuit board and configured to engage a second device. The second connection configuration includes a different connection configuration than the first receiver thereby providing an adaptive connection function between the alarm device and the wire harness.

Adaptor apparatus and method for interchanging smoke alarms

An apparatus for the detection and enunciation of hazardous conditions within an environment comprises at least two detection circuits positioned to sense ambient conditions within a home or business environment. One of the detection circuits senses the presence of smoke, and the other detection circuit senses the presence of carbon monoxide. The apparatus also comprises an alarm circuit which is responsive to each of the detection circuits for generating at least one alarm pattern, and preferably a separate alarm pattern for each different sensed condition. A voice synthesizer circuit is also included, and is responsive to each of the detection circuits for generating at least one voice message. As with the alarm patterns, the voice synthesizer preferably generates separate voice messages for each separate detected condition. The apparatus advantageously also contains an interleaving control circuit. This interleaving control circuit interleaves the alarm patterns and voice messages in a predetermined sequence to reduce confusion in an emergency situation. A method for the detection and enunciation of multiple hazardous condition within an environment is also presented, and comprises the steps of: (a) sensing ambient conditions within the environment to detect at least two hazardous condition; (b) generating an alarm pattern and a voice message in response to sensing the hazardous conditions; (c) interleaving the alarm pattern and the voice message; and (e) enunciating these interleaved alarm patterns and voice.

Growing community of inventors

Colorado Springs, CO, United States of America

John J Andres