A touch sensor includes a substrate, a base layer, and sensor pixels. The base layer has first patterns arranged on the substrate and second patterns coupled between the first patterns. The sensor pixels are disposed on the first patterns and configured to sense a touch of a user depending on a change in capacitance associated with a corresponding sensor pixel. A computer mouse incorporating touch sensors also is disclosed.

A mouse device is provided in the present disclosure. The mouse device includes a housing and a sensor module. An accommodation space is located in the housing. The sensor module includes a plurality of sensors. The sensor module is received in the accommodation space. The arrangement of the sensors of the sensor module in the accommodation space is adjustable.

The present invention relates to a magnetic suspension mouse having a RFID sensor array, comprising a mouse tray and a mouse body. A magnetic coil, a displacement sensor, a microcontroller and a magnetic force controller are fixedly disposed inside a cavity of the mouse tray. The displacement sensor is disposed at a top wall of the cavity of the mouse tray. A RFID sensor array is fixedly disposed on top of the mouse tray. The mouse body is disposed on top of the mouse tray, the mouse body comprising a housing, a hemispherical magnet fixedly disposed inside a cavity of the housing, and a first RFID identifier, a second RFID identifier and a third RFID identifier disposed from top to bottom of a surface of the housing. The mouse has the advantages of having a simple and logical structure, convenient to use and highly smart, and is able to effectively solve the existing problem of the mouse relying on an external surface.

The present invention relates an input controller (100) for interacting with a virtual environment, and more specifically to an input controller comprising a first body (102) and a second body (104) connected to the first body, wherein the first body comprises a first input device (106) and the second body comprises a second input device (108). The first input device provides input control to the virtual environment with a first movement with at least 5 degrees of freedom in the virtual environment, the first movement being a relative movement, and the second input device provides input control to the virtual environment with a second movement with at least 2 degrees of freedom in the virtual environment, the second movement being an absolute movement.

Domed input assemblies for controlling an electronic device and methods for using domed input assemblies for controlling electronic device are provided.

An ambidextrous mouse is disclosed. The ambidextrous mouse is configured for both left and right handed use. The mouse may include right handed buttons on the front side of the mouse and left handed buttons on the back side of the mouse. The user may change the handedness of the mouse by rotating the mouse about a vertical axis of the mouse such that the left hand can use the left hand buttons and the right hand can use the right hand buttons. The mouse may include a handedness selection system for configuring the mouse for right handed or left handed use even though the mouse has the capability for both right and left hands.

A two-dimensional navigation module of a cursor controller includes a top plate, a first rod, a sliding roller sleeved at the first rod, and a first OTS sensor. The top plate has an elongated groove recessed thereon. The first rod is arranged in the groove. Two opposite ends of the first rod are fastened to the top plate. The sliding roller is movable along the first rod between a first position and a second position, and the sliding roller is spinable along the first rod in a range of 0360 degrees. When the sliding roller is moved, a center segment of the first rod keeps touching the sliding roller. The first OTS sensor is arranged under the center segment of the first rod for detecting at least one of a moving distance and a spinning angle of the sliding roller.

The disclosure provides a cheating detection strategy for interactive programs, which detects programmatically-generated motion from actual human-generated motion based on a comparison of actual motion data to inferred motion data. The cheating detection strategy uses visual and input information to ensure that the input matches the output to detect and avoid cheating tools positioned in between the input and the output. In one example, the disclosure provide a method of monitoring cheating in interactive programs that includes: (1) receiving actual motion data from a user input device, wherein the actual motion data corresponds to interacting with the interactive program, (2) receiving image data of the interactive program that includes image sequences of the interactive program to display on a screen, (3) comparing the actual motion data to inferred motion data determined from the image sequences, and (4) determining possible cheating based on the comparing.

A computer input system includes a mouse including a housing having an interior surface defining an internal volume and a sensor assembly disposed in the internal volume. A processor is electrically coupled to the sensor assembly and a memory component having electronic instructions stored thereon that, when executed by the processor, causes the processor to determine an orientation of the mouse relative to a hand based on a touch input from the hand detected by the sensor assembly. The mouse can also have a circular array of touch sensors or lights that detect hand position and provide orientation information to the user.

A computer input device system that includes a finger-wearable input unit that is capable of providing inputs in a two-dimensional plane or in three-dimensional space. The inventive subject matter also includes a mouse frame that receives the finger-wearable unit, allowing a user to quickly transition from the finger-wearable unit to the mouse frame for traditional table-top mouse operation and back. The mouse frame includes features that allow for simple, easy and precise docking and undocking of the finger-wearable unit. The finger-wearable unit can be made up of separable modules and links that allow for reconfiguration of the finger-wearable unit according to a user's needs.