Abstract: This application provides a display method and a device and relates to the field of communications technologies, so as to display different content on a terminal and an external display apparatus. A specific solution includes: displaying, by the terminal, a first screen, and instructing the external display apparatus to display a first desktop including a first application but not including a second application, where the first screen is different from the first desktop; and displaying, by the terminal in response to a first input of a user on the first screen, a second screen including the first application and the second application on the terminal, and instructing the external display apparatus to display a second desktop including the first application and the second application.

Abstract: Variations in the manufacturing, tolerances, and environmental conditions, for example, of haptic trackpads can cause mechanical properties to vary click-by-click and unit-by-unit. Also, as time goes, mechanical wear or material degradation within each trackpad may change its mechanical properties. All of which may cause the haptic response received by the user to vary across similarly designed trackpads, and also change over time on the same trackpad. This may be interpreted by the user as an indication of low product quality. The following describes in detail haptic trackpads including accelerometers that enable active control and/or calibration. This allows for a more uniform user experience across a manufacturing run of trackpads and/or throughout the projected life of individual trackpads.

Abstract: An information handling system may include a processor; a data storage device; a power management unit (PMU); a spring-back force adjustable pointing device operatively coupled to communication with the processor, including: a pointing device housing; a key plate operatively coupled to the pointing device housing at a key plate hinge; a first magnet operatively coupled to the key plate; and a second magnet operatively coupled to an opposing magnet adjustment device to adjust the position of the second magnet relative to the first magnet, wherein the first magnet and second magnet have repelling poles facing each other to assist spring-back of the key plate when opposing magnets fields interact.

Abstract: A method for calibrating a visual-inertial tracking system is described. A device operates the visual-inertial tracking system without receiving a tracking request from a virtual object display application. In response to operating the visual-inertial tracking system, the device accesses sensor data from sensors at the device. The device identifies, based on the sensor data, a first calibration parameter value of the visual-inertial tracking system and stores the first calibration parameter value. The system detects a tracking request from the virtual object display application. In response to the tracking request, the system accesses the first calibration parameter value and determines a second calibration parameter value from the first calibration parameter value.

Abstract: A controller includes a first control member movable with one or two degree(s) of freedom (DoF) a second control member coupled to the first control member and movable with three independent DoFs and a third control member coupled to the first and the second control members, the third control member movable with one DoF, which is being one of the three DoFs of the second control member in the set, and providing a third control input, wherein the first, the second, and the third control members are configured to be operated by a user's single hand. Further, a forearm brace for attaching to a forearm of a user and a controller is used to support the user's forearm when the user operates the controller. Additionally, the controller includes vibration haptic motors for provide haptic alerts to the user based on position data and/or orientation data associated with a target object.

Abstract: Disclosed is a user interface capable of controlling various functions of a vehicle, and more particularly a vehicle function control system and a control method using a detachable control device. A method of controlling an integrated control unit includes: recognizing a first detachable control device attached to a first attachment position among at least one attachment position provided at an attachment unit; establishing a first data path with the first detachable control device; transmitting information about a first function to be controlled corresponding to the first attachment position to the first detachable control device through the first data path; and when receiving first manipulation information from the first detachable control device, controlling the first function to be controlled based on the first manipulation information.

Abstract: A method includes receiving sensor data from one or more sensors that corresponds to a location of a stylus device and determining that a tip of the stylus device is in contact with a physical surface based on the sensor data. While in contact, the method includes determining a new location of the tip of the stylus device based on the location data, mitigating a tracking error of the determined new location of the tip of the stylus device by translating the new location from a 3D space domain to a 2D space domain that corresponds to the physical surface and adjusting the new location based on a comparison of the new location and historical locations. The stylus device can further ascertain surface characteristics through sensor data and simulate surface characteristics via haptic feedback effects.

Abstract: According certain embodiments of the disclosure, an input device comprises: a touch pad exposed through a first surface of the input device; a sensor circuit configured to sense a movement of the input device; a communication circuit configured to communicate with an external device; and a processor connected to the touch pad, the sensor circuit and the communication circuit, wherein the processor is configured to: when the sensor circuit detects movement of the input device satisfies a specified condition, prompt a user to enter predetermined inputs indicating a reference direction, receive actual user inputs indicating a first direction, and determine the first direction based on the actual user inputs; when a touch input on the touch pad is detected by using the touch pad, determine touch coordinate information for the touch input based on an angle between the reference direction on the touch pad and the first direction; and send the touch coordinate information to the external device through the communica

Abstract: The invention concerns device for a digital writing instrument the device comprising a substrate with a transparent or translucent layer and a pattern layer on the transparent layer. The pattern comprising an active area made with photoluminescent material and an inactive area made with non photoluminescent material. The photoluminescent material comprises a successive alternate of a first layer and a second layer generating photoluminescent structure at the interface of said first layer and said second layer, the pattern layer comprises a series of N points distributed in a plan (X,Y), either said N-points define the active area whereas the inactive area is defined by the area between said N points. The N-points defines the inactive area whereas the active area is defined by the area between said N points. The invention also relates to a method for determining a position, a method for manufacturing, a system and a stylus.

Abstract: A computer mouse includes a housing. The housing includes a non-metallic base and a shell attached to the non-metallic base. The shell is formed of an electrically conductive material. The computer mouse includes a user input device in the housing. The user input device is manually operable by a user to generate a control signal. The computer mouse includes an antenna within the housing. The antenna is configured to receive the control signal from the user input device. The antenna is configured to emit a wireless signal, based on the control signal, to control operations of a computing device.

Abstract: There is provided a computer mouse, in an unibody or modular form, which incorporates IoT capabilities and the flexibility to install and interchange different types of functional apparatuses and accessories, such as a monitor, microphone, sensors, and characters/figurines. This multiple application computer mouse interacts mechanically, electronically, visually and/or orally with the user or third parties. Internal and external structures house additional and/or extended electronic boards and connectors which manage, interface and/or detect the signals obtained from the functional apparatuses and/or characters installed in the hub section of this computer mouse, and receive and/or send signals to an external device, such as a computer, monitor, sensors or other devices or software installed in apparatuses of the internet cloud.

Abstract: A head-mounted display system may include a wearable frame securable to a user's head. The head-mounted display system may also include a mapping subsystem that maps a local environment of the user when the wearable frame is secured to the user's head. Additionally, the head-mounted display system may include a varifocal display apparatus mounted to the wearable frame and configured to direct computer-generated images toward the user's eyes at a variable focal length. Various other apparatuses, systems, and methods are also disclosed.

Abstract: A mouse device includes a housing and a wheel module. The housing includes an outer accommodating slot. The wheel module is detachably disposed in the outer accommodating slot. The wheel module includes a mounting base and a wheel. The mounting base has two opposite side walls, and the mounting base is located at a bottom of the outer accommodating slot. The wheel has two opposite pivots, wherein the two pivots are connected to the two side walls of the mounting base respectively.

Abstract: An optical sensor system that uses focused (not collimated) light optics and produces effective tracking on a variety of surfaces while having looser manufacturing and/or operational tolerances than prior focused optics systems. Embodiments provide an optical sensor system for a mouse moveable on a surface. An LED and a light sensor are coupled to a substrate. An illumination lens directs light at a first angle to the surface, with the light focused on a focal point below the surface. An imaging lens focuses light reflected at an angle generally equal to the first angle on the light sensor. The focal point is sufficiently below the surface so that that the diameter of a produced spot of light on the surface is more than 40% larger than a field of view (FOV) of the light sensor, and less than 400% larger than the FOV of the light sensor.

Abstract: Example virtual reality controller apparatus are disclosed herein. An example controller for use with a virtual reality device implementing a virtual reality environment includes a base and a shaft supported by the base. The shaft includes a first control button associated with a first axis of a coordinate plane. The first control button is in communication with the virtual reality device. Activation of the first control button is to cause restriction of movement a virtual object in the virtual reality environment relative to the first axis. The shaft includes a second control button associated with a second axis of the coordinate plane. The second control button is in communication with the virtual reality device. Activation of the second control button is to cause restriction of movement of the virtual object in the virtual reality environment relative to the second axis.

Abstract: A method of an optical sensor apparatus which is to be used with a controlling device arranged for controlling an object having a long shape and flexible form of a material, includes: using a light emitting circuit to generate and output a light ray to a surface of a portion of the object; sensing the light ray reflected from the surface for multiple times to generate multiple images; detecting at least one motion image in the generated multiple images; and, determining a motion, an offset, or a rotation angle of the object, which is controlled by the thread controlling device, according to the detected at least one motion image.

Abstract: An organic light emitting display device may include a display panel, a power supply, and a display driver. The display panel may comprise a plurality of scan lines, a plurality of data lines, and a plurality of pixels connected to the scan lines and to the data lines. The power supply may supply a first pixel voltage and a second pixel voltage to the pixels. The display driver may control the display panel.

Abstract: An input device for a computer, wherein the input device eliminates the impacts caused by sudden stops during the pressing of a button portion provided on the input device for a computer, and thereby prevents a user's fingers and wrists from being strained.

Abstract: A flexible display device including a touch sensor is disclosed. In one aspect, the display device includes a flexible substrate, a light emission layer formed over the flexible substrate, and an encapsulation layer formed over the light emission layer and comprising a plurality of encapsulating thin films and a touch detecting layer configured to detect a touch input. The encapsulating thin films include at least one inorganic film and at least one organic film and the touch detecting layer is interposed between a selected one of the at least one inorganic film and a selected one of the at least one organic film that are adjacent to each other.

Abstract: A mouse device includes a middle frame, a switch, a button plate, a slidable element and an elastic element. The middle frame includes an opening part and a first hook. The first hook is located beside the opening part. The switch is fixed at a position under the middle frame. The switch includes a triggering part. The button plate is located over the middle frame. The button plate includes a pressing rod. The pressing rod is penetrated downwardly through the opening part. The pressing rod includes a receiving groove and a first sleeve. The receiving groove is located over the first sleeve. The first sleeve includes a perforation. The slidable element includes a second sleeve and a second hook. The second sleeve is installed within the first sleeve. The second hook is engaged with the perforation. The elastic element is disposed within the second sleeve.