A patient support structure includes a cushion layer. A microclimate structure is integrated atop the cushion layer. The microclimate structure includes an upper layer having a vapor and liquid permeable therapeutic region, an air permeable middle layer, and a liquid impermeable lower layer. A first plurality of perforations extends through the upper layer of the microclimate structure in a seat section of the microclimate structure. A second plurality of perforations extends through the upper layer of the microclimate structure in a head section of the microclimate structure. When the microclimate structure is in a first position, air is supplied through the first plurality of perforations and the second plurality of perforations. When the microclimate structure is in a second position, air is supplied through the first plurality of perforations and air flow through the second plurality of perforations is limited.

A stabilization system configured to be arranged on a floor comprising a table having generally flat surface having a longitudinal axis for receiving a human body having a first hole, a second hole, and third hole within the flat surface, each hole having a hole shape with a generally vertical inner surface and configured to receive a bolster connector, a bolster comprising a bolster connector having an outer shape corresponding to the hole shape, the bolster connector configured to be reversibly engaged by one of the holes, a generally flat surface generally perpendicular to the table surface when the bolster connector is engaged by one of the holes.

A hospital bed may include a support structure, a controller, a pressure source coupled to the controller, and a hospital bed mattress carried by the support structure. The hospital bed mattress is carried by the support structure and has first and second ends, and first and second sides extending between the first and second ends. The hospital bed mattress may include a base foam layer, and transverse bladder pairs extending over the base foam layer and being coupled to the pressure source. The transverse bladder pairs may extend between the first and second sides and may be configured to provide longitudinal pressure differential and lateral pressure differential. The hospital bed mattress may have a multi-layer removable encasement surrounding the base foam layer and the transverse bladder pairs.

An enclosed patient suite may include a plurality of suite walls, a patient bed positioned in a patient area defined within the plurality of suite walls, a plurality of medical systems with at least some of the plurality of medical systems mounted to the plurality of suite walls, a plurality of support members coupled to the plurality of suite walls, a plurality of wheels with a particular wheel of the plurality of wheels coupled to a corresponding support member of the plurality of support members, a rail brake configured to engage a floor-mounted rail in a floor of at least one of a cargo hold or a cabin of an aircraft, and a controller coupled to the plurality of medical systems and configured to receive data from and transmit data to the plurality of medical systems. The enclosed patient suite may be dimensioned to fit within the aircraft.

Some embodiments provide for an inspiratory limb for a breathing circuit that includes a first segment that comprises a first heater wire circuit and a second segment that comprises a second heater wire circuit. The inspiratory limb can include an intermediate connector that includes a connection circuit that electrically couples the first heater wire circuit to the second heater wire circuit. The inspiratory limb can be configured to operate in two modes wherein, in a first mode, electrical power passes through the first electrical connection to provide power to the first heater wire circuit without providing power to the second heater wire circuit, and in a second mode, electrical power pass through the first electrical connection to provide power to both the first heater wire circuit and the second heater wire circuit.

A patient support includes a cover defining an interior region, an air permeable first layer located in the interior region, at least one air supply coupled to the first layer to provide air flow through the first layer, a support layer located beneath the air permeable first layer, a pressure sensing layer located underneath the support layer, and a controller coupled to the air supply and to the pressure sensing layer. The controller controls air flow through the first layer in response to a signal from the pressure sensing layer.

This patent pertains to patient contact compensating wheelchairs. One implementation includes a motorized base that includes a battery and a seat positioned above the base. In one instance, the seat can include a moisture permeable structure configured to support a patient and a fan configured to move air below the moisture permeable structure to carry moisture from the patient away from the moisture permeable structure. Another implementation includes a set of patient contact objects configured to alternatively contact first and then second portions of an underside of the moisture permeable structure so that at a first time more of the patient's weight is supported at the first portion than at the second portion and at a second time more of the patient's weight is supported at the second portion than at the first portion, to relieve contact pressure of the patient.

Introduced are methods and systems for monitoring a person's sleeping patterns, and detecting episodes of sleeping disorders such as snoring and sleep apnea. In one embodiment, a sensor strip attached to the mattress monitors the user's breathing, and detects signature frequencies corresponding to snoring and sleep apnea. Once a sleeping disorder is detected, a notification can be sent to a device associated with the user, or the user's bed can be automatically adjusted to alleviate the sleeping disorder.

A patient support includes a cover defining an interior region, an air permeable first layer located in the interior region within the cover, a first air supply coupled to the first layer to provide air flow through the first layer, air bladders including a head zone and a seat zone located beneath the first layer, a first sensing assembly located beneath the head zone, a second air supply coupled to the air bladders to selectively inflate and deflate the air bladders, and a controller. The controller is coupled to the first and second air supplies to control inflation and deflation of the air bladders and to control air flow through the permeable layer. The controller also receives a signal from the first sensing assembly, determines whether the patient support is occupied, and adjusts air flow through the first layer based on the signal from the first sensing assembly.

Devices, systems and methods for patient stabilization are disclosed.