The disclosure discloses a softness-adjustable mattress, including an outer lining, an outer lining zipper, and a bottom lining, wherein the bottom lining is positioned on the outer lining, the outer lining zipper is positioned between the outer lining and the bottom lining, a lying-down mechanism is mounted on an inner lower wall face of the outer lining, and an inflation mechanism is mounted on the lying-down mechanism. The beneficial effects of the disclosure is having the characteristic of being quickly mounted and dismounted; through an air cushion the overall comfort degree of the mattress can be enhanced, and can prevent the integral mattress shape from collapsing; the air cushion can be inflated by the inflation controller at all times, thereby ensuring the stability of the air cushion; users can lie down on the wavy cotton, which improves the users' comfort degree and brings convenience to people's life. Moreover, the edges or corners of the air cushion of the disclosure are capable of maintaining a certain shape even under some pressure. Preferably, the air cushion of the disclosure has excellent durability.

The present invention discloses a turning air mattress, a turning air cell, and a control method for a turning air mattress. With structural arrangements of an upper portion and a lower portion of the turning air cell as well as inflation and deflation control, the turning air cell having an upper portion that is wider and a lower portion that is narrower can further assist a patient in body turning, enabling the patient to easily achieve a sufficient body turning angle, further reducing the risk of likeliness to pressure sores caused by the structure of the air mattress pressing against the body of the patient.

The disclosed technology includes an internal support structure for providing structural stability to an inflated airbed. The internal support structure may include an internal support wall connected to side panels by one or more side support beams. The internal support structure may further include corner support walls and a plurality of internal support beams to provide additional support.

A mattress system with at least two inflatable bladders located within a tub compartment of a foam encasement is enclosed. The bladders are surrounded on all sides by foam layers and the bladders are inflated and deflated by a control unit. The control unit is positioned within the tub compartment near the foot of the mattress and centered between the two bladder assemblies. The control unit is adhered to the foam encasement.

A system and a method for adjusting a bed are disclosed. The bed is preset with a plurality of sets of adjustment parameters. An external muscle strength/pressure detection device or method is used to select at least two sets of the adjustment parameters suitable for the user. The corresponding sleep parameters are detected when the user sleeps, and the user-specific adjustment parameters are quickly selected and sent back to the bed for adjustment. Through the method, there is no need for the bed to provide pressure sensors.

The disclosed technology includes an internal support structure for providing structural stability to an inflated airbed. The internal support structure may include an internal support wall connected to side panels by one or more side support beams. The internal support structure may further include corner support walls and a plurality of internal support beams to provide additional support.

The inventive subject matter provides a modular mattress system wherein the mattress surface may be adjusted for positioning of a user's body. The mattress system deploys a number of interconnected mattress cells. The mattress cells may have varying characteristics, and combinations of mattress cells may be interconnected to form a complete mattress. The proximal surface is formed of padding material and collectively form the entire mattress surface when connected. At least one actuator is mechanically coupled to padding material and an actuator controller in communication therewith directs movement of the actuator to position the padding material. A mattress cell communication interface is communicably coupled to the actuator controller and configured to communicably couple with at least one external device.

A mattress system with at least two inflatable bladders located within a tub compartment of a foam encasement is enclosed. The bladders are surrounded on all sides by foam layers and the bladders are inflated and deflated by a control unit. The control unit is positioned within the tub compartment near the foot of the mattress and centered between the two bladder assemblies. The control unit is adhered to the foam encasement.

A system and a method for adjusting a bed are disclosed. The bed is preset with a plurality of sets of adjustment parameters. An external muscle strength/pressure detection device or method is used to select at least two sets of the adjustment parameters suitable for the user. The corresponding sleep parameters are detected when the user sleeps, and the user-specific adjustment parameters are quickly selected and sent back to the bed for adjustment. Through the method, there is no need for the bed to provide pressure sensors.

An overlay mattress includes a foil mattress of plastic material in a surrounding envelope of textile material. The foil mattress has channels and a preferably self-closing valve for filling air into the channels that are also at least partly filled with fibers of so-called ball fiber and/or with foam plastics, at least in such an amount that the plastic material of the foil mattress is mutually separated. The channels extend transversely to the longitudinal direction of the mattress, and the channels are interconnected via air passages. Methods of manufacturing such an overlay mattress are also disclosed.