Abstract: A volatile material dispenser includes a housing, a retention mechanism coupled to the housing, a first refill having a wick extending therefrom, and a first adapter removably attached to a portion of the first refill. The retention mechanism non-removably retains the first adapter to the housing when the first refill and the first adapter combination are inserted therein. When the first refill is removed from the dispenser, the first adapter remains in the dispenser such that a second refill with a second adapter removably attached thereto can be inserted into and retained by the first adapter.

Abstract: A volatile material refill includes a container with a volatile material disposed therein, a plug assembly disposed within an opening of the container, a pivotal wick retained in the container by the plug assembly, and a sheath extending around at least a portion of the wick.

Abstract: A volatile material refill includes a container having a volatile material disposed therein, a plug assembly is disposed within an opening, and a wick retained in the container by the plug assembly. The refill further includes a multi-part attachment for connection to a neck portion of the container and adapted to assist in retaining the refill in at least one volatile material dispenser.

Abstract: A volatile material refill includes a container with a volatile material disposed therein, a plug assembly disposed within an opening of the container and adapted to retain a wick extending out of the opening, a sheath covering a portion the wick, and at least one rib extending outwardly from the sheath and adapted to assist in retaining the refill in at least one volatile material dispenser.

Abstract: A method of operating a dispensing unit includes the step of providing a power source to a dispensing unit that includes a housing having an aerosol container disposed therein and an actuator arm. Other steps include activating the dispensing unit in response to a minimum threshold of light being sensed by a light sensor and selecting a sleep period interval between spray operations. Yet another step includes moving the actuator arm after completion of a startup delay period from a pre-actuation position to a discharge position along a path substantially parallel to an axial length of the container to actuate a nozzle of the container to discharge a fluid from the container. The method also includes the step of alternating automatically between the sleep period having a duration commensurate with the selected sleep period interval and a discharge period during which the fluid is dispensed from the container.

Abstract: The present invention relates to melting plate candles that employ heat conductive materials to distribute heat from a burning flame at a wick to a plate for melting a meltable fuel. Such melting plate candles more rapidly liquefy the meltable fuel, such as paraffin wax. Further, such melting plate candles more uniformly and intensely heat the meltable fuel thereby increasing the efficiency of consumption thereof and more rapidly releasing volatile materials contained within the fuel. The heat conductive plate is configured so as to have a capillary recess or a capillary pedestal upon the surface thereof, which cooperatively engages a wick holder assembly comprising a wick and a heat conductive fin that conducts heat from a flame upon the wick to the plate. The wick holder further engages the fuel and the plate so as to cause the flow of liquefied fuel to the wick.

Abstract: A fuel charge for use with a melting plate candle assembly includes an outer shell of fuel material surrounding an inner core of fuel material having different properties than the fuel material of the outer shell. The outer shell is substantially solid and may contain fuel additive that slows capillary flow of liquid fuel to the flame through the wick. The inner core may include liquid fuel, discrete solid fuel particles, or a solid fuel mass. The fuel additive is disposed in the fuel charge so as to slow migration of liquefied fuel to a flame on a wick only after a substantial portion of the fuel charge has been liquefied by heat from the flame.

Abstract: An automatic discharge device comprises a housing adapted to receive a container therein. An actuator arm is attached to the housing and movable between first and second positions. The actuator arm includes a dispensing bore therein. A drive unit is provided for automatically moving the actuator arm into one of the first and second positions in response to a signal from at least one of a timer, a sensor, and a manual switch. The actuator arm is adapted to engage and actuate a nozzle of the container in the first position and allow a fluid disposed in an interior of the container to be dispensed through the nozzle and the dispensing bore of the actuator arm.

Abstract: A method of operating a dispensing unit includes the step of providing a power source to a dispensing unit that includes a housing having an aerosol container disposed therein and an actuator arm. Other steps include activating the dispensing unit in response to a minimum threshold of light being sensed by a light sensor and selecting a sleep period interval between spray operations. Yet another step comprises moving the actuator arm after completion of a startup delay period from a pre-actuation position to a discharge position along a path substantially parallel to an axial length of the container to actuate a nozzle of the container to discharge a fluid from the container. The method also includes the step of alternating automatically between the sleep period having a duration commensurate with the selected sleep period interval and a discharge period during which the fluid is dispensed from the container.

Abstract: A power source is provided to a dispensing unit that includes a housing having an aerosol container disposed therein. A sleep period interval between spray operations is selected and a motion sensor is activated to detect motion within a sensory path of the sensor after completion of the sleep period interval. If no motion is detected by the motion sensor a fluid is automatically discharged from the aerosol container and the sleep interval is reset and if motion is detected by the motion sensor a delay time interval is initiated and fluid is not discharged from the aerosol container. The dispensing unit alternates between activating the sensor to detect motion and resetting the delay time interval until no motion is detected by the motion sensor at the expiration of the delay time interval, which results in the automatic discharge of fluid and a resetting of the sleep period interval.

Abstract: A fuel charge for use with a melting plate candle assembly includes an outer shell of fuel material surrounding an inner core of fuel material having different properties than the fuel material of the outer shell. The outer shell is substantially solid and may contain fuel additive that slows capillary flow of liquid fuel to the flame through the wick. The inner core may include liquid fuel, discrete solid fuel particles, or a solid fuel mass. The fuel additive is disposed in the fuel charge so as to slow migration of liquefied fuel to a flame on a wick only after a substantial portion of the fuel charge has been liquefied by heat from the flame.

Abstract: A candle fuel element includes a wick-holder assembly having a longitudinally disposed wick spaced from a heat-conductive element and a first solid fuel charge disposed between the wick and the heat-conductive element. A second solid fuel charge slidably engages and at least partly surrounds the wick-holder assembly. The heat-conductive element is disposed between the first solid fuel charge and the second solid fuel charge. The heat-conductive element defines a lateral opening adapted to allow fluid communication between the first solid fuel charge and the second solid fuel charge.

Abstract: A candle assembly includes a support base with a melting plate upon which a meltable solid fuel rests and a wick holder to hold a wick and engage the meltable solid fuel, and a control unit having at least one electrical component to control at least one of a sound emitting system or a light emitting system. In another aspect, a candle assembly includes a sensor configured to detect the presence of a flame disposed on the wick and controls the at least one of the sound emitting system or the light emitting system, and a lock and key mechanism. Another candle assembly includes a replaceable container to hold a meltable fuel element with a wick and a first mating surface and a control unit having at least one electrical component to control at least one of a sound emitting system or a light emitting system. In another aspect, the control unit has a second mating surface complimentary to the first mating surface and a sensor configured to detect the presence of a flame disposed on a wick.

Abstract: A candle assembly includes a support base with a melting plate upon which a meltable solid fuel rests and a wick holder to hold a wick and engage the meltable solid fuel. The candle assembly further includes a control unit having at least one electrical component to control a light emitting system.

Abstract: The present invention relates to melting plate candles which employ heat conductive elements to distribute heat from a burning flame at a wick to a support plate for a solid fuel and to the body of said solid fuel, so as to more rapidly liquefy the solid fuel, such as paraffin wax, and to more uniformly and intensely heat such fuels to increase the efficiency of consumption thereof and to more rapidly release volatile materials contained within said fuels. The heat conductive support plate is configured so as to have a capillary pedestal upon the surface thereof, which cooperatively engages a wick holder comprising a preferably consumable wick and heat conductive fins which conduct heat from a flame upon said wick to said support plate, said wick holder further engaging said capillary pedestal in such a locking manner as to resist accidental removal from said pedestal.

Abstract: The present invention relates to melting plate candles which employ heat conductive elements to distribute heat from a burning flame at a wick to a support plate for a solid fuel and to the body of said solid fuel, so as to more rapidly liquefy the solid fuel, such as paraffin wax, and to more uniformly and intensely heat such fuels to increase the efficiency of consumption thereof and to more rapidly release volatile materials contained within said fuels. The heat conductive support plate is configured so as to have a capillary pedestal upon the surface thereof, which cooperatively engages a wick holder comprising a preferably consumable wick and heat conductive fins which conduct heat from a flame upon said wick to said support plate, said wick holder further engaging said capillary pedestal in such a locking manner as to resist accidental removal from said pedestal.

Abstract: A candle fuel element includes a wick-holder assembly including a wick spaced from a heat-conductive element, a first fuel charge surrounding the wick, and a second fuel charge slidably engaging and at least partly surrounding the first fuel charge.