The invention relates to an electric motor furniture drive for sleeping or reclining furniture, comprising a number of adjusting motors (7, 8) for moving at least one movable furniture component relative to an additional furniture component by means of an electric motor and comprising a manual operation unit (10) for operating the adjusting motors (7, 8). The electric motor furniture drive is characterized in that at least one sensor (12) is provided for detecting vibrations and/or sound, said sensor being coupleable to the sleeping furniture, and an analyzing unit is provided which is connected to the at least one sensor (12). The analyzing unit is designed to process and analyze the signals of the at least one sensor (12) and detect physiological parameters of a person using the sleeping or reclining furniture.

A system for positioning a patient on a support structure having a support surface includes a sheet configured to be positioned on the support surface, the sheet comprising a first fastening element, and a roll strap comprising a top edge and a bottom edge. The roll strap further comprising at least one connection end configured to engage with a portion of the support structure to maintain the patient positioned on the sheet and the roll strap in an angled position relative to the support surface, where at least one of the top edge or the bottom edge of the roll strap comprises a second fastening element that is configured to removably couple with the first fastening element.

A surgical table for supporting a patient over a floor and including a base assembly, a support column assembly and a patient support structure. The base assembly supported on the floor and including a first end, a second end opposite the first end, and a member extending along a base longitudinal axis between the first and second ends. The support column assembly moveably coupled with the base assembly and configured to translate between the first and second ends of the base assembly along the member extending therebetween, the support column assembly being the only support column assembly coupled with the base assembly. The patient support structure including a first end, a second end opposite the first end, and a longitudinal axis extending between the first and second ends, the second end of the patient support structure supported off of the support column assembly in a cantilevered fashion.

A patient positioning system for positioning a patient in preparation for an anterior cervical spinal procedure includes a base section, an upper body support attachable to a superior portion of the base section and a lower body support attachable to an inferior portion of the base section. The upper body support is configured to support the head and upper torso of the patient in a manner that aids in opening cervical spine disk space. The lower body support is configured to comfortably lift and support the legs of the patient. A traction strap assembly is attachable to the base section and configured to extend from the base section up around the shoulders of the patient and along the anterior side of the patient to a lower terminal end to enable intermittent traction of the patient's shoulders.

A patient transfer package for laterally transferring a supine patient between adjoining horizontal surfaces includes: (a) a first nonwoven sheet having a top and a bottom surface for which the coefficient of friction of the top surface is less than 50% of the coefficient of friction of the bottom surface, (b) a second nonwoven sheet that is similarly constructed as the first sheet but which is not as wide, (c) assembling these sheets into a package with the second sheet turned upside down and laid on top of the first sheet whose top surface is facing upward, (d) a specified percentage of the first sheet's side portions extends beyond the edges of the second sheet and turn upwards and over upon the bottom surface of the second sheet, and (f) a means for temporarily and releasably attaching the first sheet's edges to the bottom surface of the second sheet.

A soft-walled inflatable cradle (10) has a seat section (14), a back-support section (16), and a pair of opposed side panel sections (18, 20) extending between respective sides of the back-support and the seat. The cradle is positioned about a patient in an un-inflated condition and inflated to define a self-supporting seat structure. The cradle may be formed in at least two separable parts which can be positioned about a patient and connected together prior to inflation. The cradle may be used in co-operation with apparatus which include rollers over which the inflated cradle is moved. Methods of handling a patient using the cradle are also disclosed.

A system and a method of treatment using a universal cage creating a coordinate method of exercise. Physical therapy or fitness exercises are provided to a patient through a system of cords, blocks and belts disposed on a plurality of grid panels through a plurality of mounting devices. Placement of the mounting devices on the grid panel is determined by which muscle groups are receiving therapy and the type of movement required. Once the placement for each movement is determined, the coordinates of the mounting device are captured so that the mounting devices can be preset consistently for each therapy session.

A method of increasing blood flow to the head includes causing an individual's blood to circulate while the individual's heart and head are at a first elevation position, elevating the individual's heart and head to a second elevation position that is above the first elevation position, and causing the individual's blood to circulate while the individual's heart and head are at the second elevation position.

Devices, systems and methods for patient stabilization are disclosed.

Introduced here are pressure-mitigation apparatuses able to mitigate the pressure applied to a human body by the surface of an object. A controller device can be fluidically coupled to a pressure-mitigation device that includes a series of selectively inflatable chambers. When a pressure-mitigation device is placed between a human body and a surface, the controller device can continuously, intelligently, and autonomously circulate air through the chambers of the pressure-mitigation device. As further discussed below, the controller device may cause the chambers to be selectively inflated, deflated, or any combination thereof. Such an approach is useful in a variety of contexts. For example, pressure-mitigation apparatuses may be used to improve treatment of patients suffering from respiratory illnesses and patients who are partially or completely immobilized for extended durations (e.g., as part of a medical procedure).