Abstract: An airbed system, connectable to an air mattress chamber of an air mattress, includes: a pressure sensor, configured to obtain pressure measurements corresponding to the air mattress chamber; and a control unit, configured to operate a pump and valves of the airbed system to inflate and deflate the air mattress chamber, and to determine first and second constants corresponding to inflation of the air mattress chamber and third and fourth constants corresponding to deflation of the air mattress chamber.

Abstract: An airbed system includes: an air mattress comprising one or more air chambers; an adjustable base comprising one or more articulation points; and a pump connected to the one or more air chambers of the air mattress; and a control system, wherein the control system is configured to: control the adjustable base to perform an articulation operation; and while the articulation operation is ongoing, control the pump to inflate or deflate the one or more air chambers of the air mattress based on the articulation operation being performed.

Abstract: Efficient systems and methods for inflating, deflating, or simultaneously inflating and deflating air mattress chambers using various pump and pump housing configurations are provided. Examples of the various pump and pump housing configurations include: boundary-layer pumps having single disk array or multiple disk array layouts, different disk geometries, different pressure recovery chamber geometries, adjustable components for switching between filling and powered dumping operations, and reversible and non-reversible motors; and pump housings having one or more dump channels for manifold-driven powered dumping, multiple sides or stages for pressure and/or flow compounding, various manifold chamber configurations for robust connectivity with air mattresses having multiple chambers, and various valve configurations for flexible control over filling, powered dumping, and simultaneous filling and powered dumping operations.

Abstract: An airbed system is provided. The airbed system includes: an air mattress having at least one air mattress chamber; a boundary-layer pump connected to the at least one air mattress, configured to fill the at least one air mattress with gas; and a control unit, configured to receive user input corresponding to increasing or decreasing the pressure in the at least one air mattress chamber and to control the boundary-layer pump based on the received user input. The boundary-layer pump includes: a pressure recovery chamber housing including a pressure recovery chamber, a pump inlet, and a pump outlet; a plurality of disks within the pressure recovery chamber; and a motor attached to the plurality of disks, configured to rotate the plurality of disks so as to expel gas passing through the pump inlet radially outwards along the disks and out through the pump outlet.

Abstract: A foam-air mattress includes a mattress housing, including a top layer and a bottom layer; a plurality of air chambers, disposed between the top layer and the bottom layer, wherein the plurality of air chambers are configured to be connected to a pumping system via a tubing assembly; and a plurality of compartments formed by the mattress housing and the plurality of air chambers, configured to accept foam inserts. The plurality of air chambers, when inflated by the pumping system, are configured to compress foam inserts disposed within the plurality of compartments so as to increase the density of the foam inserts. This arrangement has applications in both the consumer and medical airbed contexts, as well as in other support system contexts, such as seat cushions for chairs.

Abstract: Efficient systems and methods for inflating, deflating, or simultaneously inflating and deflating air mattress chambers using various pump and pump housing configurations are provided. Examples of the various pump and pump housing configurations include: boundary-layer pumps having single disk array or multiple disk array layouts, different disk geometries, different pressure recovery chamber geometries, adjustable components for switching between filling and powered dumping operations, and reversible and non-reversible motors; and pump housings having one or more dump channels for manifold-driven powered dumping, multiple sides or stages for pressure and/or flow compounding, various manifold chamber configurations for robust connectivity with air mattresses having multiple chambers, and various valve configurations for flexible control over filling, powered dumping, and simultaneous filling and powered dumping operations.

Abstract: An airbed system, connectable to an air mattress chamber of an air mattress, includes: a pressure sensor, configured to obtain pressure measurements corresponding to the air mattress chamber; and a control unit, configured to operate a pump and valves of the airbed system to inflate and deflate the air mattress chamber, and to determine first and second constants corresponding to inflation of the air mattress chamber and third and fourth constants corresponding to deflation of the air mattress chamber.

Abstract: A foam-air mattress includes a mattress housing, including a top layer and a bottom layer; a plurality of air chambers, disposed between the top layer and the bottom layer, wherein the plurality of air chambers are configured to be connected to a pumping system via a tubing assembly; and a plurality of compartments formed by the mattress housing and the plurality of air chambers, configured to accept foam inserts. The plurality of air chambers, when inflated by the pumping system, are configured to compress foam inserts disposed within the plurality of compartments so as to increase the density of the foam inserts. This arrangement has applications in both the consumer and medical airbed contexts, as well as in other support system contexts, such as seat cushions for chairs.

Abstract: The described system and method allows for the control of inflation and deflation of air mattresses such that fast and accurate deflate times and satisfaction of consumer expectations may be achieved. A combination of empirically-derived deflate profiles, corrected dynamic measurements, and static measurements may be used to achieve fast and accurate deflation to user-defined target pressures. Additionally, a marketing routine that invokes simulated deflation or simulated inflation when deflation or inflation is not necessary but a user is expecting deflation or inflation, respectively, may be used to better satisfy the user's expectations.

Abstract: The described system and method allows for the control of inflation and deflation of air mattresses such that fast and accurate deflate times and satisfaction of consumer expectations may be achieved. A combination of empirically-derived deflate profiles, corrected dynamic measurements, and static measurements may be used to achieve fast and accurate deflation to user-defined target pressures. Additionally, a marketing routine that invokes simulated deflation or simulated inflation when deflation or inflation is not necessary but a user is expecting deflation or inflation, respectively, may be used to better satisfy the user's expectations.

Abstract: Efficient systems and methods for inflating, deflating, or simultaneously inflating and deflating air mattress chambers using various pump and pump housing configurations are provided. Examples of the various pump and pump housing configurations include: boundary-layer pumps having single disk array or multiple disk array layouts, different disk geometries, different pressure recovery chamber geometries, adjustable components for switching between filling and powered dumping operations, and reversible and non-reversible motors; and pump housings having one or more dump channels for manifold-driven powered dumping, multiple sides or stages for pressure and/or flow compounding, various manifold chamber configurations for robust connectivity with air mattresses having multiple chambers, and various valve configurations for flexible control over filling, powered dumping, and simultaneous filling and powered dumping operations.

Abstract: An airbed system is provided. The airbed system includes: an air mattress having at least one air mattress chamber; a boundary-layer pump connected to the at least one air mattress, configured to fill the at least one air mattress with gas; and a control unit, configured to receive user input corresponding to increasing or decreasing the pressure in the at least one air mattress chamber and to control the boundary-layer pump based on the received user input. The boundary-layer pump includes: a pressure recovery chamber housing including a pressure recovery chamber, a pump inlet, and a pump outlet; a plurality of disks within the pressure recovery chamber; and a motor attached to the plurality of disks, configured to rotate the plurality of disks so as to expel gas passing through the pump inlet radially outwards along the disks and out through the pump outlet.

Abstract: A multiple configuration air mattress pump system is disclosed. The pump system includes a number of standard components with a few inexpensive varied components to allow for easy and less expensive use of the pump with mattresses having varying numbers of inflatable zones. An improved sealed manifold is also disclosed.

Abstract: A lighting assembly has an elongated housing which contains a plurality of light emitting diodes that send light from one side of the housing. Connectors at the ends of the housing are provided to connect the lighting assembly into standard sockets of a fluorescent light fixture that has been modified to power the light emitting diodes. At least one of the connectors has a releasable holding mechanism that allows the housing to be rotated with respect to the sockets to aim the light is a desired direction and then hold the housing in that orientation.