A touch-based control device is operable to detect touch input over an entirety of the control device's exterior, including at regions of an exterior panel that (i) overlay portions of a circuit board where no touch sensors exist, and/or (ii) extend beyond a perimeter of a touch region or circuit board on which touch sensors are provided.

A touch knob includes a knob shell having a three-dimensional contour with a curved joint surface; an ITO touch sensor disposed on the knob shell; an auxiliary conductive unit with extensibility, connected on the touch sensor to form an overlapping area covering the joint surface, and the auxiliary conductive unit in the overlapping area having a conductive pattern corresponding to the touch sensor; and a surface coating layer having a three-dimensional contour corresponding to the knob shell and attached on both the touch sensor and the auxiliary conductive unit. An opaque mask surface is provided on an inner side of the surface coating layer. The mask surface cloaks the overlapping area.

A touch display device includes a printed circuit board and a cover. The printed circuit board has a top surface, a bottom surface and soldering points. The printed circuit board includes a first printed circuit, a light element and a second printed circuit. A part of the first printed circuit is on the top surface or the bottom surface and connected with the corresponding soldering point. The light emitting element is on the top surface and electrically connected to the first printed circuit. On the top surface, the second printed circuit does not overlap with the first printed circuit. The cover covers the printed circuit board. The cover has light transmission areas which are aligned with the light elements. The second printed circuit is configured to provide a capacitance value coupled to a capacitive sensing element coupled between the second printed circuit and the cover.

The present invention provides a display device that can correctly detect the approach of an object to be detected. A display device (10) includes conductors (40a) and (40b) arranged outside a display region (R) on a display substrate so as to extend along the outer periphery of the display region (R). The conductors (40a) and (40b) are configured such that a predetermined voltage is applied thereto and capacitances are formed between the conductors and an object to be detected. The outer periphery of the display region (R) has a corner portion (C) that is at least partially bent. The conductors (40a) and (40b) are adapted such that the capacitance formed between the conductors and the object to be detected at the corner portion (C) is adjusted so as to be approximately equal to the capacitances formed between the conductors and the object to be detected in regions other than the corner portion (C).

The present disclosure provides an optical sensing device, including: a storage circuitry being coupled to a charging circuitry, a photosensitive circuitry, and a voltage-readout circuitry, the storage circuitry storing a voltage value; the charging circuitry being coupled to the storage circuitry for charging the storage circuitry; the photosensitive circuitry being connected to a first terminal for discharging the storage circuitry to the first terminal; and the voltage-readout circuitry being connected to the storage circuitry, for reading the voltage value of the storage circuitry.

A haptic operating element for a household appliance includes a display field which is at least partially configured as a touch-sensitive screen. The household appliance includes at least one haptic operating element and an additional screen fixed relative to the device. The household appliance has, in particular, a control device for operating the display field of the operating element and the screen fixed relative to the device. The haptic operating element can be particularly advantageously used in cooking devices.

A touch panel is provided. The display panel includes a glass substrate, a buffer layer, a gate insulating layer and a second metal layer. The display panel further comprises a flat organic layer, a first dielectric layer, a third metal layer, a second dielectric layer and a bottom ITO (indium tin oxide) layer. In this invention, which is not restrict design and could satisfy requirement of original process windows, decrease rework rate and enhance productivity.

A restocking system includes a first compartment for storing consumable items; a restocking suggestion unit configured to receive restocking suggestions from a remotely located server; an output interface configured to output the restocking suggestions to a user; and a first hardware button located in an interior of the first compartment. The first hardware button is configured to: after a first restocking suggestion is output by the output interface, prompt the user to provide a confirmation input regarding the first restocking suggestion; send a respective confirmation signal to the remotely located server if the first hardware button is activated by the user within a preset time window after the first restocking suggestion is output; and send a respective rejection signal to the remotely located server if the first hardware button is not activated within the preset time window. A corresponding restocking method is also disclosed.

A display device may include: a window disposed on the display panel, including: a window base including a light transmission portion and a light blocking portion; a light blocking layer disposed on the light blocking portion of the window base, the light blocking layer including a touch key pattern portion; a printed circuit board disposed on the light blocking layer; a touch key light source disposed on the printed circuit board; a first light blocking member disposed on the printed circuit board and the touch key light source, including: a first distal end between the touch key light source and the light transmission portion of the window base; and a second distal end between the touch key light source and an edge of the window base; and a second light blocking member disposed between the second distal end of the first light blocking member and the light blocking layer.

A lighting wall controller having a capability to reject user inputs at a surface of the wall controller and/or proximity detection in accordance with sensing signals received at locations on and near the wall controller. Programming configures a processor for proximity detection to detect a presence of a conductive object within a predetermined distance to the wall controller. The processor further determines whether user inputs correspond to touches at locations on the wall controller or user gestures near the wall controller to perform one of a plurality of defined lighting functions for a lighting system. When user inputs do not correspond to defined lighting functions, a number of the non-defined inputs is counted to provide an indicator of activity on the surface of the wall controller to activate a locked mode for a duration of the non-defined inputs.