A method of detecting shift of a rotatable interface is disclosed. The rotatable interface has a fixed base with a conductive region on a bottom surface, the fixed base attached to a display screen of an input device. The method includes providing, during a first time period, a reference signal to first and second sets of electrodes of the input device that are each capacitively coupled to the conductive region. The method further includes, during a second time period, providing the reference signal to the first set of electrodes, providing a sensing signal to the second set of electrodes, and receiving, during the second time period, a resulting signal on the second set of electrodes. The method still further includes determining a translation of the rotatable interface relative to the display screen based, at least in part, on the resulting signal values received during the second time period.

An operation device includes a housing provided with a through hole; a cylinder-shaped lever inserted into the housing through the through hole of the housing, that can be operated to be tilted; an actuator contained in a cylinder-shaped opening of the lever; and an elastic member provided between the actuator and the lever. A step is provided in the opening of the lever on one side of the elastic member. A step is provided in the actuator on another side of the elastic member. A surface of the step of the actuator is inclined with respect to a surface of the step in the opening of the lever.

An infinite switch includes a front cover, a back cover, and a base secured between the front cover and the back cover. A floating shaft extending through the front cover and the base. A cam fixed to the base and slidingly receiving an end of the floating shaft. The floating shaft is moveable in an axial direction extending parallel to a longitudinal axis of the floating shaft and the cam is fixed to prevent movement in the axial direction.

A switch device includes a case serving as a base portion and a knob attached to a fitting portion provided in the vicinity of an upper end of a cylindrical portion, in which the knob rotates in a seesaw-like manner around a rotary shaft member provided in the fitting portion, the knob includes an operation portion capable of being pulled up, the operation portion being provided on the front end side defined using the rotary shaft member as a boundary, and an abutment portion provided on the rear end side defined using the rotary shaft member as the boundary, the case includes a stopper portion configured to contact the abutment portion when the operation portion is pulled up, and the knob includes an extending portion extending toward the rear end side, the abutment portion being provided in the extending portion.

There is provided audio equipment that enables power supply and signal connection to a rotary operation unit in a non-contact manner. The audio equipment includes: the rotary operation unit rotatably supported in relation to an equipment body; an operation detecting section provided for the rotary operation unit and in which an electric load changes in response to a pressing operation; a power supplying section provided for the equipment body and configured to supply power to the operation detecting section in a non-contact manner; and a monitoring section configured to monitor the power supplied by the power supplying section to detect the user's operation from a change in the power.

An operating device includes a control knob, an actuator, a first switch, a second switch, and a holder. An accommodating space of the holder is defined by a first accommodating portion extending in a first direction. A first arm is accommodated in a first accommodating portion. A second arm is accommodated in a second accommodating portion. The first arm or the first accommodating portion includes an allowance portion that allows for tilting of the actuator in the second direction, without interference between the first arm and the first accommodating portion. The second arm or the second accommodating portion includes an allowance portion that allows for tilting of the actuator in the first direction, without interference between the second arm and the second accommodating portion.

A control device capable of providing rotational damping through an elastic force is provided directly at the base of an electronic product and includes an adjusting member and an elastic member. The adjusting member is rotatably provided at the base. The adjusting member has a bottom portion corresponding to a switch provided in the base. The adjusting member further has a head portion outside the base. The elastic member is provided between the adjusting member and the base. The elastic force of the elastic member acts between the head portion of the adjusting member and the base to change the rotational damping to which the adjusting member is subjected.

A remote control device may be configured to be mounted over the toggle actuator of a light switch and to control a load control device. The remote control device may include a mounting assembly and a control unit that is removably attachable to the mounting assembly. The mounting assembly may include a release tab that is configured to be operated from a locking position in which the control unit is secured to the mounting assembly, to a release position in which the control unit may be detached from the mounting assembly. The mounting assembly may include a clamp that is configured to engage with the toggle actuator of a mechanical switch to which the remote control device is mounted.

A multifunctional switch device for operating a plurality of vehicle functions and services including an adjustment member which is a rotary-push-pull actuator; and an upper casing and a lower casing that together enclose a stationary inner body; an inner cover rotatable based on the rotation of the adjustment member; a pin; an electronic card; and an upper dome positioned on an upper surface of the electronic card. The multifunctional switch device further includes a lower dome positioned on a lower surface of the electronic card to generate an actuating signal for performing an assigned function. When the adjustment member and thus the pin are pulled in upwards direction, through the +y direction of the multifunctional switch device, the lower dome is also pulled up and come into contact with the lower surface of the electronic card under an action of an applied pulling force.

A gyral-linear actuator for an encoder comprises an actuator housing having a first end, a second end opposite the first end, and a hollow. A control member extends from the first end of the actuator housing. A spring is positioned within the hollow of the actuator housing. Moreover, a coupler has an encoder connector and an extension that couples the control member to the encoder connector. Under this configuration, when the encoder connector is coupled to a rotary shaft of the encoder, rotation of the control member causes corresponding rotation of the encoder connector so as to turn the rotary shaft of the encoder, and depression of the control member causes corresponding depression of the rotary shaft of the encoder operating a switch function of the rotary encoder.