Abstract: A mount assembly for vibration isolation or an engine includes a housing having first and second fluid chambers that are selectively connected through an elongated, first path, and a shorter, second path. A decoupler is received in the housing, and an inductive sensor assembly senses a position of the decoupler. An associated method of inductively sensing a decoupler position to improve switchable mount performance is provided. Metallic particles or a metal inserts are provided in the decoupler to cooperate with an induction coil mounted adjacent the decoupler.

Abstract: An engine mount assembly includes a housing, an inertia track received in the housing and an elongated fluid damped first path that is adapted to communicate with an associated first fluid chamber on a first side and an associated second fluid chamber on a second side. A non-damped second path is adapted to communicate with the associated first and second fluid chambers. A decoupler is received in the housing, an idle diaphragm in the housing that selectively controls communication between the first and second fluid chambers to selectively alter the damping. First and second ports in the housing communicate with the decoupler and the idle diaphragm, respectively. A first solenoid selectively controls fluid flow through the first port and a second solenoid selectively controls fluid flow through the second port.

Abstract: A mount assembly for vibration isolation or an engine includes a housing having first and second fluid chambers that are selectively connected through an elongated, first path, and a shorter, second path. A decoupler is received in the housing, and an inductive sensor assembly senses a position of the decoupler. An associated method of inductively sensing a decoupler position to improve switchable mount performance is provided. Metallic particles or a metal inserts are provided in the decoupler to cooperate with an induction coil mounted adjacent the decoupler.

Abstract: An engine mount assembly includes a housing, an inertia track received in the housing and an elongated fluid damped first path that is adapted to communicate with an associated first fluid chamber on a first side and an associated second fluid chamber on a second side. A non-damped second path is adapted to communicate with the associated first and second fluid chambers. A decoupler is received in the housing, an idle diaphragm in the housing that selectively controls communication between the first and second fluid chambers to selectively alter the damping. First and second ports in the housing communicate with the decoupler and the idle diaphragm, respectively. A first solenoid selectively controls fluid flow through the first port and a second solenoid selectively controls fluid flow through the second port.

Abstract: The invention provides apparatus for controlling a search lamp using a wireless transmitter and receiver. The transmitter responds to user inputs by providing a wireless digitally encoded modulation signal containing information indicating at least one operation in a set of operations the search lamp is able to perform. The receiver responds to the wireless digitally encoded modulation signal by providing a control signal for controlling the functionality of the search lamp. The functionality may include, for example, moving the search lamp left/right and/or up/down, a sweep on/off @ +/?45 degrees; X/Y/Z movement (Z when motors run simultaneously); Diagonal sweep (motors run simultaneously); Fast/Slow sweep (50%/100%). The transmitter and receiver are programmable to communicate on a unique 16 bit digital code setting that provides about 65K different code settings, which may also include a random code setting.

Abstract: The present invention provides a multichannel active sensing and switching device featuring a multiple sensing and switching module configured to respond to operational conditions of different load types and provide load type sensor signals containing information about the operational conditions of the different load types, and also configured to respond to controller signals for controlling the operation of the different load types in two or more different protection configurations; and a controller module configured to respond to the load type sensor signals and provide the controller signals in order to control the operation of the different load types in the two or more different protection configurations. The controller module may be programmable and configured to provide a default circuit breaker configuration and a device specific configuration using active intelligence (AI).

Abstract: An appliance controller is provided featuring one or more modules configured for providing power to an appliance that receives fluid from a fluid supply system, for receiving a fluid supply system signal indicating that the fluid is not being provided to the appliance and for disconnecting the power to the appliance. The one or more modules may take the form of an appliance controller circuit having a first circuit part configured for providing power to an appliance that receives fluid from a fluid supply system; and a second circuit part configured for receiving a fluid supply system signal indicating that the fluid is not being provided to the appliance and disconnecting the power to the appliance. The appliance controller may form part of an appliance controller system having appliances, appliance controllers and the fluid supply system.

Abstract: The present invention provides a multichannel active sensing and switching device featuring a multiple sensing and switching module configured to respond to operational conditions of different load types and provide load type sensor signals containing information about the operational conditions of the different load types, and also configured to respond to controller signals for controlling the operation of the different load types in two or more different protection configurations; and a controller module configured to respond to the load type sensor signals and provide the controller signals in order to control the operation of the different load types in the two or more different protection configurations. The controller module may be programmable and configured to provide a default circuit breaker configuration and a device specific configuration using active intelligence (AI).

Abstract: An appliance controller is provided featuring one or more modules configured for providing power to an appliance that receives fluid from a fluid supply system, for receiving a fluid supply system signal indicating that the fluid is not being provided to the appliance and for disconnecting the power to the appliance. The one or more modules may take the form of an appliance controller circuit having a first circuit part configured for providing power to an appliance that receives fluid from a fluid supply system; and a second circuit part configured for receiving a fluid supply system signal indicating that the fluid is not being provided to the appliance and disconnecting the power to the appliance. The appliance controller may form part of an appliance controller system having appliances, appliance controllers and the fluid supply system.

Abstract: Method and apparatus are provided for warning a user or operator about a malfunction in a pump and/or engine of a marine vessel or another suitable device or equipment, featuring steps of: comparing a sensed pressure differential at a sensed RPM when the pump/engine is running to a learned database having a pressure differential versus RPM curve; and providing an indication to the operator when there is a change in the relationship that exceeds a predetermined relationship. The apparatus may include an active intelligence unit or module for making the comparison and providing the indication according to the invention.

Abstract: An active sensing and switching device for use in controlling current to a load, comprising a controller means (U1) for disconnecting the load from a power source by providing a switch-open control signal based on a signal indicating a sensed value of electrical current to the load, characterized in that the controller means (U1) determines a nominal value for the electrical current to the load based on monitoring the signal indicating the sensed value of electrical current to the load. A load control system is also provided, including a single ASSD adapted to receive signals indicating sensed values of electrical current to a plurality of respective loads, and further comprising a plurality of load control modules adapted so as to be disposed in proximity to respective loads or a main power line, wherein the load control modules provide respective signals indicating sensed values of electrical currents to the respective loads.

Abstract: A hose separation transmitter system includes a shock sensor and a transmitter that are secured to the delivery hose. If the hose becomes disconnected, the shock sensor will generate a shock signal when the hose falls to the ground and the transmitter will respond to the shock signal by generating an encoded RF signal. A receiver at the vehicle receives the RF signal from the transmitter, determines that a hose disconnect has occurred, and automatically disables a fluid pump or closes a valve to stop the flow of fluid. The shock sensor preferably uses a strip of piezoelectric material. Related methods are also disclosed. For quick connect and disconnect, the shock sensor and transmitter are preferably secured to the hose by a hook and loop fabric material. The transmitter is immune to normal ambient vibration levels. Related methods are also disclosed.

Abstract: An active sensing and switching device for use in controlling current to a load, comprising a controller means (U1) for disconnecting the load from a power source by providing a switch-open control signal based on a signal indicating a sensed value of electrical current to the load, characterized in that the controller means (U1) determines a nominal value for the electrical current to the load based on monitoring the signal indicating the sensed value of electrical current to the load. A load control system is also provided, including a single ASSD adapted to receive signals indicating sensed values of electrical current to a plurality of respective loads, and further comprising a plurality of load control modules adapted so as to be disposed in proximity to respective loads or a main power line, wherein the load control modules provide respective signals indicating sensed values of electrical currents to the respective loads.

Abstract: A safety circuit for use with a spa system includes a pressure sensor which generates a signal representative of the pressure in the system. The safety circuit provides a constant current to the pressure sensor. A microcontroller is coupled to receive the signal from the sensor and is configured to store a first pressure level. The microprocessor compares the first pressure level with the subsequently measured pressure level and generates a control signal if the comparison indicates a change in pressure which exceeds a predetermined amount. The control signal is sent to a spa control circuit. An electronically controlled switch is coupled to receive the control signal from the microcontroller and turn electrical power to the pump off in response thereto.

Abstract: A control circuit for use with a spa system includes a pressure sensor which generates a signal representative of the pressure in the system. A microcontroller is coupled to receive the signal from the sensor and is configured to store a first pressure level. The microprocessor compares the first pressure level with the subsequently measured pressure level and generates a control signal if the comparison indicates a change in pressure which exceeds a predetermined amount. An electronically controlled switch is coupled to receive the control signal from the microcontroller and turn electrical power to the pump off in response thereto.

Abstract: A control system for a device powered by an AC power source is presented. The control system includes a fixed controller adapted to be wall-mounted and powered by the AC power source. The fixed controller is also adapted to transmit control signals to the device. The control system further includes at least one movable controller adapted to be powered by a DC power source and transmit control signals to the device. In one embodiment, both movable controller and the fixed controller are adapted to transmit to the receiver via the same transmission medium, such as RF or infrared. The electronic device to be controlled may, for example, comprise a ceiling fan and associated light fixtures.

Abstract: A heater assembly for use with spas, hot tubs and the like, includes a control circuit which controls the application of electrical power to the heater. A control circuit controls application of power to the heater in response to a thermostat setting, the flow of water in the spa system and in response to a high limit temperature. When the high limit temperature is exceeded, electrical power to the heater is removed. Electrical power to the heater cannot be restored until power to the entire system is turned off and then back on. The control circuit is mounted on the heater and includes spring-loaded standoffs which maintain the temperature sensors in good thermal contact with the body of the heater.

Abstract: A control unit for a combined ceiling fan and light fixture (ceiling unit) is coupled to a temperature sensor monitoring the temperature of the room containing the ceiling unit, has manual entry keys for controlling fan energization, speed and direction and light energization and intensity and for selecting a mode of operation, and has a first microprocessor for controlling a radio transmitter to transmit a command bit sequence. The transmitted signal is received by the ceiling unit where a second microprocessor responds to the command bit sequence to control the firing of one of several triacs controlling fan energization, speed and direction and to control light energization and intensity. In an "auto-speed" mode, fan speed responds to changes in room temperature. In a "winter mode", the fan blows upwardly at a slow speed, the speed being momentarily increased periodically to break up stratification.

Abstract: Apparatus responsive to the operation of a nearby telephone for selectively muting the sound output of a television set, including a ring detection circuit and an off-hook detection circuit coupled in parallel and responsive to either a ringing signal or an off-hook condition of the telephone for delivering an activating signal to a common output, remote-control circuitry selectively operable for muting the sound output of a television set, a controller circuit coupled between the common output and an input of the remote-control circuitry, and manually operated selection switches for providing four different modes of operation.

Abstract: A control unit for a combined ceiling fan and light fixture (ceiling unit) is coupled to a temperature sensor monitoring the temperature of the room containing the ceiling unit, has manual entry keys for controlling fan energization, speed and direction and light energization and intensity and for selecting a mode of operation, and has a first microprocessor for controlling a radio transmitter to transmit a command bit sequence. The transmitted signal is received by the ceiling unit where a second microprocessor responds to the command bit sequence to control the firing of one of several triacs controlling fan energization, speed and direction and to control light energization and intensity. In an "auto-speed" mode, fan speed responds to changes in room temperature. In a "winter mode", the fan blows upwardly at a slow speed, the speed being momentarily increased periodically to break up stratification.