An apparatus is disclosed. The apparatus has a base assembly, a movable assembly that is movably supported by the base assembly, a structural assembly that is supported by the movable assembly, a plurality of electrical assemblies that are supported by the structural assembly, an actuating assembly configured to move the movable assembly relative to the base assembly, and a first electrical connector that is electrically connectable to the actuating assembly and the plurality of electrical assemblies. The apparatus also has a second electrical connector that is electrically connectable to a power source, and a switch assembly disposed on the second electrical connector. The first and second electrical connectors are electrically connected via one or more contact members that are movably disposed relative to the base assembly.

A load detection sensor unit 1A includes: a load detection sensor 5 that has a sensor sheet 50 having a pair of resinous insulating sheets 56s and 57s, a first electrode 56e provided on a surface of one insulating sheet 56s, and a second electrode 57e forming a pair with the first electrode 56e, and a metal plate 60 provided in at least a portion overlapping with the first electrode 56e and the second electrode 57e on one surface of the sensor sheet 50; and a pressing member 4 that has a pressing portion 46 disposed on the side of the metal plate 60 opposite to the side of the sensor sheet 50 and pressing the metal plate 60. The pressing portion 46 is harder than the seat cushion SC and the sensor sheet 50 and the metal plate 60 are bonded by an adhesive layer 70.

A load detection sensor unit 1A includes: a load detection sensor 5 that has a sensor sheet 50 having a pair of resinous insulating sheets 56s and 57s, a first electrode 56e provided on a surface of one insulating sheet 56s, and a second electrode 57e forming a pair with the first electrode 56e, and a metal plate 60 provided in at least a portion overlapping with the first electrode 56e and the second electrode 57e on one surface of the sensor sheet 50; and a pressing member 4 that has a pressing portion 46 disposed on the side of the metal plate 60 opposite to the side of the sensor sheet 50 and pressing the metal plate 60. The pressing portion 46 is harder than the seat cushion SC and the sensor sheet 50 and the metal plate 60 are bonded by an adhesive layer 70.

A foot switch (1, 26) for use with a medical device (16, 27, 28) comprises an interface (10) for a communications link between the foot switch (1, 26) and a control unit (12) of the device (16, 27, 28) and comprises at least one pedal (2, 3) for operating the foot switch (1, 26) using a foot. An operation sensor (17) captures an operation of the foot switch (1, 26) for switching a function of the medical device (16, 27, 28). The control unit (12) assigns the function to the pedal (2, 3) via the interface (10) and the assigned function is displayed on the foot switch (1, 26) by a multicolor LED (4, 5).

The present application provides a foot actuation system for controlling one or more medical devices using a foot. The foot actuation system includes a communications unit and a number of actuation units. Each actuation unit includes a user interface for receiving an actuation information item generated by means of a foot, a mechanical connection apparatus for releasable mechanical connection to the communications unit, and a signal transmitter for transmitting a signal representing the actuation information item. The communications unit includes a mechanical connection apparatus for releasable mechanical connection to the actuation units, a signal receiver for receiving the signals representing the actuation information items, and a control signal transmitter for transmitting a control signal to a medical device.

The present application provides a foot actuation system for controlling one or more medical devices using a foot. The foot actuation system includes a communications unit and a number of actuation units. Each actuation unit includes a user interface for receiving an actuation information item generated by means of a foot, a mechanical connection apparatus for releasable mechanical connection to the communications unit, and a signal transmitter for transmitting a signal representing the actuation information item. The communications unit includes a mechanical connection apparatus for releasable mechanical connection to the actuation units, a signal receiver for receiving the signals representing the actuation information items, and a control signal transmitter for transmitting a control signal to a medical device.

A surgical footswitch having elevated auxiliary buttons is provided. In particular embodiments, the surgical footswitch comprises a footswitch base, a treadle mounted on the footswitch base, a first primary button positioned on an upper surface of the footswitch base along a first lateral side of the treadle, a first auxiliary button housing positioned along a lateral side of the first primary button opposite the treadle, and a first auxiliary button mounted on an upper surface of the first auxiliary button housing, wherein an upper surface of the first auxiliary button is elevated in relation to an upper surface of the first primary button. In particular embodiments, the treadle is configured to activate a first function of a surgical console, the first primary button is configured to activate a second function of the surgical console, and the first auxiliary button is configured to activate a third function of the surgical console.

A mobile terminal having a terminal main body including a front case forming an internal area including a submergence area into which water is introduced and a waterproof area into which water is blocked from being introduced, and an internal frame; a first unit including a key module mounted in the terminal main body, and generating a control command when a pressing occurs, the key module being positioned in the submergence area and moving due to an external force; a second unit positioned in the waterproof area, and when the pressing occurs, generates a signal; an elastic deformation layer of which a portion is elastically deformed due to movement of the first unit, so the second unit is pressed by the first unit; and a waterproof layer attaching the elastic deformation layer and the front case so partitioning results in the submergence area and the waterproof area.

An apparatus is disclosed. The apparatus has a base assembly, a movable assembly that is movably supported by the base assembly, a structural assembly that is supported by the movable assembly, a plurality of electrical assemblies that are supported by the structural assembly, an actuating assembly configured to move the movable assembly relative to the base assembly, and a first electrical connector that is electrically connectable to the actuating assembly and the plurality of electrical assemblies. The apparatus also has a second electrical connector that is electrically connectable to a power source, and a switch assembly disposed on the second electrical connector. The first and second electrical connectors are electrically connected via one or more contact members that are movably disposed relative to the base assembly.

Provided is a human body pressure switch, a vehicle seat, a vehicle, and a method for processing a human body pressure switch. The human body pressure switch includes: a pressure switch element, an elastic pressure-contact body provided at the upper side or the lower side of the pressure switch element, in which the elastic pressure-contact body includes a spacing support structure and a force support protrusion, the force support protrusion corresponds to a sensing contact of the pressure switch element, in a state with pressure from an external force, amount of deformation of the spacing support structure is greater than amount of deformation of the force support protrusion, and in a state without pressure from the external force, the spacing support structure plays a supporting role.