Abstract: An actuator controlled electric strike for operating in conjunction with a latch of a lockset. The strike comprises a keeper support bracket movable between first and second positions. When the bracket is in the first position a keeper is held in either a locked or unlocked position, and when the bracket is in the second position the keeper is movable to the other position. An actuating mechanism is operatively connected to the bracket and is configured to allow the bracket to move between the first and second positions. First and second biasing mechanisms apply a net force to the bracket. The first biasing mechanism applies a first force to the bracket in the first direction, and the second biasing mechanism applies a second force to the bracket in the second direction. When the bracket is in the first position, the net force of the biasing member is approximately zero.

Abstract: A cabinet lock secures a door panel to a cabinet frame and includes a latching component and an electromechanical component. The latching component has a latch member reciprocally translatable between a locked orientation to secure the door panel to the cabinet frame and an unlocked orientation to free the door panel from the cabinet frame. The electromechanical component includes an actuator and drive member. Powering the actuator causes the drive member to translate the latch member to the unlocked orientation. A drive member position sensor may emit a signal indicative of the position of the latch member. The electromechanical component may be retrofit-able to a latching component of a pre-existing mechanical cabinet lock.

Abstract: A door strike assembly includes a strike housing and latch release assembly. The door strike assembly is used in conjunction with a lockset which includes a door latch moveable from a latched condition when a door is closed and an unlatched condition where the door may be opened. The lockset includes a deadlatch to prevent unauthorized movement of the door latch when the door is closed. The latch release assembly is received within the strike housing and includes a latch ejector which engages the deadlatch when the door is closed. A motor is coupled to the latch ejector where actuation of the motor rotates the latch ejector to disengage the latch ejector from the deadlatch. Further rotation of the latch ejector causes the latch ejector to engage the door latch to move the door latch to the unlatched condition such that the door may be opened.

Abstract: A door strike assembly includes a strike housing and latch release assembly. The door strike assembly is used in conjunction with a lockset which includes a door latch moveable from a latched condition when a door is closed and an unlatched condition where the door may be opened. The lockset includes a deadlatch to prevent unauthorized movement of the door latch when the door is closed. The latch release assembly is received within the strike housing and includes a latch ejector which engages the deadlatch when the door is closed. A motor is coupled to the latch ejector where actuation of the motor rotates the latch ejector to disengage the latch ejector from the deadlatch. Further rotation of the latch ejector causes the latch ejector to engage the door latch to move the door latch to the unlatched condition such that the door may be opened.

Abstract: An actuator controlled electric strike for operating in conjunction with a latch of a lockset. The strike comprises a keeper support bracket movable between first and second positions. When the bracket is in the first position a keeper is held in either a locked or unlocked position, and when the bracket is in the second position the keeper is movable to the other position. An actuating mechanism is operatively connected to the bracket and is configured to allow the bracket to move between the first and second positions. First and second biasing mechanisms apply a net force to the bracket. The first biasing mechanism applies a first force to the bracket in the first direction, and the second biasing mechanism applies a second force to the bracket in the second direction. When the bracket is in the first position, the net force of the biasing member is approximately zero.

Abstract: An actuator controlled electric strike for operating in conjunction with a latch of a lockset. The strike comprises a keeper support bracket movable between blocking and unblocking positions. When the bracket is in the blocking position a keeper is held in a locked position, and when the bracket is in the unblocking position the keeper is movable to the unlocked position. A motor is operatively connected to the bracket and is actionable in first and second directions to move the bracket between the blocking and unblocking positions. A biasing member comprises first and second springs that apply a net force to the bracket. The first spring applies a first force to the bracket in the first direction, and the second spring applies a second force to the bracket in the second direction. When the bracket is in the blocking position, the net force of the biasing member is approximately zero.

Abstract: An electromechanical component for a locking mechanism is provided. The locking mechanism includes a latching component having a latch member reciprocally movable between a locked orientation and an unlocked orientation. The electromechanical component comprises a drive member configured to be coupled to the latch member, an actuator operably coupled to the drive member, a temperature sensor for sensing an ambient temperature associated with the locking mechanism; and a printed circuit board (PCB) in communication with the temperature sensor and the actuator. When the PCB receives a control signal to move the latch member between the locked orientation and the unlocked orientation, and the temperature sensor senses that the ambient temperature is below a predetermined threshold temperature, the PCB is configured to direct a pulsed current signal to the actuator to move the latch member between the locked orientation and the unlocked orientation.

Abstract: A cabinet lock for securing a door panel to a cabinet housing comprising a latching component, an electromechanical component, and a communications module. The latching component has a latch housing and latch member reciprocally translatable between locked and unlocked orientations to selectively secure the door panel to the cabinet housing. The electromechanical component includes an actuator operably coupled to a drive member that is coupled to the latch member whereby powering of the actuator translates the latch member to at least one of the unlocked or locked orientations. The communications module is configured for communication with a remote device of a municipal traffic control agency and/or a utilities worker. The communications module is configured to receive a control signal from the remote device for moving the latch member to the at least one of the unlocked orientation or the locked orientation.

Abstract: An actuator controlled electric strike for operating in conjunction with a latch of a lockset. The strike comprises a keeper support bracket movable between blocking and unblocking positions. When the bracket is in the blocking position a keeper is held in a locked position, and when the bracket is in the unblocking position the keeper is movable to the unlocked position. A motor is operatively connected to the bracket and is actionable in first and second directions to move the bracket between the blocking and unblocking positions. A biasing member comprises first and second springs that apply a net force to the bracket. The first spring applies a first force to the bracket in the first direction, and the second spring applies a second force to the bracket in the second direction. When the bracket is in the blocking position, the net force of the biasing member is approximately zero.

Abstract: A cabinet lock secures a door panel to a cabinet frame and includes a latching component and an electromechanical component. The latching component has a latch member reciprocally translatable between a locked orientation to secure the door panel to the cabinet frame and an unlocked orientation to free the door panel from the cabinet frame. The electromechanical component includes an actuator and drive member. Powering the actuator causes the drive member to translate the latch member to the unlocked orientation. A drive member position sensor may emit a signal indicative of the position of the latch member. The electromechanical component may be retrofit-able to a latching component of a pre-existing mechanical cabinet lock.

Abstract: A door strike assembly includes a strike housing and latch release assembly. The door strike assembly is used in conjunction with a lockset which includes a door latch moveable from a latched condition when a door is closed and an unlatched condition where the door may be opened. The lockset includes a deadlatch to prevent unauthorized movement of the door latch when the door is closed. The latch release assembly is received within the strike housing and includes a latch ejector which engages the deadlatch when the door is closed. A motor is coupled to the latch ejector where actuation of the motor rotates the latch ejector to disengage the latch ejector from the deadlatch. Further rotation of the latch ejector causes the latch ejector to engage the door latch to move the door latch to the unlatched condition such that the door may be opened.

Abstract: A magnetic drain stopper assembly includes an actuating lever in a drain pipe and is movable to allow fluid flow into the drain pipe in an open position and to prevent fluid flow into the drain pipe in a closed position. A magnet on the drain stopper interacts magnetically with the actuating lever or a sleeve on the actuating lever. The magnetic drain stopper is easily removed by simply pulling it out of the drain pipe. Studs on the drain stopper catch objects that fall into the drain pipe for easy retrieval and further catch residue such as hair for easy cleaning.

Abstract: A magnetic drain stopper assembly includes an actuating lever in a drain pipe and is movable to allow fluid flow into the drain pipe in an open position and to prevent fluid flow into the drain pipe in a closed position. A magnet on the drain stopper interacts magnetically with the actuating lever or a sleeve on the actuating lever. The magnetic drain stopper is easily removed by simply pulling it out of the drain pipe. Studs on the drain stopper catch objects that fall into the drain pipe for easy retrieval and further catch residue such as hair for easy cleaning.

Abstract: The present invention provides a system for manipulating a core body temperature of a mammal. The system of the invention includes a chamber for enclosing a body portion of a mammal and a seal in operative association with the chamber for sealing the chamber around the body portion and for inhibiting movement of the body portion relative to the chamber when the system is in operation. A thermal energy exchange system in operative association with the chamber includes an energy element assembly coupled to a flexible membrane assembly. The flexible membrane assembly facilitates an exchange of energy between the energy element assembly and the body portion. A vacuum system is operatively associated with the chamber while the thermal energy exchange system is in operation. The vacuum system generates a sub-atmospheric pressure within the chamber.

Abstract: The present invention provides a system for manipulating a core body temperature of a mammal. The system of the invention includes a chamber for enclosing a body portion of a mammal and a seal in operative association with the chamber for sealing the chamber around the body portion and for inhibiting movement of the body portion relative to the chamber when the system is in operation. A thermal energy exchange system in operative association with the chamber includes an energy element assembly coupled to a flexible membrane assembly. The flexible membrane assembly facilitates an exchange of energy between the energy element assembly and the body portion. A vacuum system is operatively associated with the chamber while the thermal energy exchange system is in operation. The vacuum system generates a sub-atmospheric pressure within the chamber.