Abstract: A wearable device is disclosed. The wearable device may include a display, a lens, an illuminator, an image sensor, and at least one processor. The display may be configured to present images. The lens may be configured to provide a view of the display to an eye of a user. The illuminator may be configured to illuminate the eye. The image sensor may be configured to detect illumination reflected by the eye. The at least one processor may be configured to cause the display to present an image, receive data from the image sensor, determine a gaze direction of the eye based at least in part on the data from the image sensor, and cause at least one of the display or the lens to be moved until the gaze direction is directed toward the image.

Abstract: A housing assembly is provided. The housing assembly includes a first housing, a second housing and a connecting module. The connecting module is coupled between the first housing and the second housing. The first housing is rotatable with respect to the second housing by the connecting module. The connecting module includes a damping mechanism configured for providing a damping force to the first housing and the second housing during rotating the first housing with respect to the second housing. An electronic device is also provided.

Abstract: A pivoting mechanism is pivotally connected to a first body and a second body, and includes a rotating shaft, a linkage rod, a cover, a limiting element, a limiting slider, and a bracket. A central region of a pivoting portion of the linkage rod deviates from an axis of the rotating shaft. The limiting element is assembled to the cover and includes a protruding portion located in a first slide groove of the limiting slider and a second slide groove of the bracket. A second side of the linkage rod is connected to the limiting slider and the bracket. A shape of the first slide groove is different from that of the second slide groove. When the rotating shaft rotates, the limiting slider is driven via the linkage rod, so as to drive the protruding portion of the limiting element sliding in the first slide groove and the second slide groove, such that the cover is movable between a deployed position and a closed position.

Abstract: In one implementation, a system for a tool-less multipoint latching mechanism includes a number of adjustable cams of a bracket to interact with a number of corresponding cam surfaces located on a computing board, a number of locking locations to couple a printed circuit assembly (PCA) to the bracket, and a number of pin-in-slot joints of the bracket that interact with the number of adjustable cams to vertically lower the coupled PCA into a number of receiving connectors on the computing board.

Abstract: A hard disk drive mounting assembly that includes a disk drive assembly having a base structure that includes a screw hole and a damping insert at least partially surrounding the screw hole. The disk drive assembly further includes a threaded insert positioned in the screw hole of the damping insert.

Abstract: A system for testing load-bearing and durability of a sliding rail includes a chassis, a sliding rail mounted on the chassis, a sliding member installed on the sliding rail, and a reciprocating driving device. The reciprocating driving device includes a control unit, a reversing unit, and a driving unit connected to the reversing unit. The driving unit drives the sliding member and the control unit outputs control signals to the reversing unit to periodically reverse driving direction of the driving unit, according to the control signals. The reciprocating driving device is also disclosed.

Abstract: A data storage sled is provided. The data storage sled includes a circuit card assembly comprising connectors for coupling to drive modules and a host connector for coupling the data storage sled to an external connector, an enclosure comprising apertures in the enclosure through which individual ones of the drive modules can be inserted into an associated connector on the circuit card assembly. The data storage sled also includes drive module mounting assembles configured to hold the individual ones of the drive modules into the associated connector by at least including movable mounting features to accommodate varying lengths among the individual ones of the drive modules.

Abstract: A cover plate for locking a chassis includes a first cover section provided on top of the chassis, a second cover section provided on top of the chassis and having a positioning pin, and a resilient lock defining a through hole corresponding to the positioning pin. When the resilient lock is in a first position, the positioning pin is latched in the through hole, one end of the first cover section abuts against one end of the second cover section, and the cover plate is locked. When the resilient lock is in a second position, the positioning pin is removed from the through hole, the first cover section is slid toward the second cover section, and the cover plate is unlocked.

Abstract: A heat dissipation system includes a motherboard, at least two chips, at least two heat sinks and at least two air guide covers. Every two chips of the at least two chips constitute a chipset, the chips in each chipset are installed on the motherboard in sequence along an airflow direction, each of the at least heat sinks is installed on a surface of the chip corresponding to the heat sink, and every two air guide covers of the at least two air guide covers constitute an air guide group. In the air guide group, a first air guide cover is arranged on a first side of a first chip, and a second air guide cover is arranged on a second side of a second chip. A heat dissipation method based on the system is also provided. The solution ensures a relatively uniform heat dissipation between the chips.

Abstract: Systems and methods that may be implemented to provide supplemental cooling air for a portable information handling system from one or more mechanically-adjustable cooling air supply outlets that may be positioned and/or repositioned at multiple different locations relative to a portable information handling system, such as notebook computer or laptop computer. In one example, the disclosed systems and methods may be implemented to have one or more mechanically-adjustable cooling air supply outlets that may be positioned and/or repositioned to align with differing geometries of cooling air inlet opening locations that correspond to different portable information handling system sizes and/or designs.

Abstract: A head-mounted display (HMD) device includes a printed circuit board having one or more processors. A heat transfer plate having a heat-generating component facing surface is thermally coupled to the printed circuit board. The HMD exterior-facing surface of the heat transfer plate opposite from the heat-generating component facing surface is thermally coupled to a heat pipe. The heat pipe is thermally coupled to a heat transfer shell, which is configured as a heat sink to receive heat from the heat pipe. In operation, heat flows from the heat-generating components of the HMD (e.g., the HMD's processor and other electronic components) to the heat transfer plate. Thermal energy removed from the heat-generating components is transferred to the heat transfer shell via the heat pipe, which in turn transfers the heat to the external surface of the HMD to be dissipated into ambient room temperature of the surrounding environment.

Abstract: An electronic and/or computer device of the computer server type includes: circuit boards and a power supply unit which provides electrical power to various elements of the electronic device. The power supply unit has a fluidtight enclosure, filled with dielectric fluid capable of collecting heat from various components of the power supply unit in order to release it to a heat exchange wall, and is removable. The device includes a two-phase heat transfer circuit with capillary pumped loop having an evaporator thermally coupled to the heat exchange wall of the power supply unit, and a condenser located at a distance from the power supply unit and thermally coupled to a general thermal collector, such that, when in the working position, the heat exchange zone is pressed against the evaporator.

Abstract: An apparatus is presented. The apparatus includes a first circuit configured to predict temperatures of a location for a plurality of time instances based on measured temperatures and a second circuit configured to schedule a thermal mitigation function based on the predicted temperatures. A method of operating an apparatus is presented. The method includes measuring temperatures on an integrated circuit, predicting temperatures of a location for a plurality of time instances based on the measured temperatures, and scheduling a thermal mitigation function based on the predicted temperatures. An apparatus is presented. The apparatus includes means for measuring temperatures on an integrated circuit, means for predicting temperatures of a location for a plurality of time instances based on measured temperatures, and means for scheduling a thermal mitigation function based on the predicted temperatures.

Abstract: A method for adjusting a pull resistor on a contact terminal of an electronic module arranged on a printed circuit board, in particular an ASIC, after initiating a restart of the electronic module which, during a run-up process, moves the electronic module from a switched-off state into a switched-on state, wherein after initiating a restart during the run-up process from a partial circuit arranged on the electronic module and operationally ready during the run-up process, adjustment information relating to a desired adjustment of the pull resistor is retrieved from a storage unit arranged on the printed circuit board outside of the electronic module and transmitted via a contact line between the electronic module and the storage unit, where the run-up process of the electronic module is only completed after successful adjustment of the respective pull resistor based on basis the retrieved adjustment information.

Abstract: The present disclosure relates to a shift register unit, a driving method and a driving apparatus thereof, and a gate driving circuit, wherein the shift register unit comprises an auxiliary output module which can generate a pulse at a first level which is synchronous with the scan pulse to be added to the scan pulse when the valid level corresponding to the auxiliary output module is input to the temperature control voltage terminal, which is beneficial to improve the load capacity of the scan pulse output by the scan pulse output terminal, thereby enhancing the driving capability of the shift register unit.

Abstract: In some examples, a method includes detecting, based at least in part on sampling a first set (122) of a plurality of sensors of a computing device (110) at a first rate, an indication that the user has initiated a fitness activity (112B), wherein the computing device (110) stores pre-defined identifiers of non-fitness and fitness activities in a set of pre-defined indications of activities; responsive to detecting the indication that the user has initiated the fitness activity, sampling, at a second rate that is greater than the first rate, a second set (120) of the plurality of sensors to determine a probability that the user is engaged in the fitness activity (112B); and responsive to determining that the probability satisfies a threshold, collecting, sensor data for the fitness activity using a particular set of the plurality of sensors that corresponds to a pre-defined identifier for the fitness activity (112B).

Abstract: A fixed electronic terminal including at least one location intended to reversibly receive an electronic autonomy management system of the terminal.

Abstract: Methods and devices are described for charging a smart battery in a computing device. The methods and devices may include determining, by a battery management controller, a charging configuration for managing one or more battery modules of the smart battery and transmitting a charging configuration signal to one or more battery modules of the smart battery. The methods and devices may include receiving, by at least one of a plurality of charging coils, power from a wireless signal based on the wireless signal coupling energy to at least one of the plurality of charging coils at a frequency as the at least one of the plurality of charging coils and charging at least one battery module connected to a respective one of the plurality of battery control boards in response to a respective one of the plurality of charging coils receiving the power from the wireless signal.

Abstract: A power supply system includes two first power paths for supplying electric power to a first device, and two second power paths for supplying electric power to a second device. One of the first power paths is configured to be able to supply power to the second device, and one of the second power paths is configured to be able to supply power to the first device.

Abstract: A data processing apparatus includes: a plurality of power supplies; a nonvolatile logic configured to be driven with power output from the plurality of power supplies; and a plurality of detection parts configured to detect output states of the plurality of power supplies, wherein the nonvolatile logic performs data processing based on a result of the detection of the plurality of detection parts.

Abstract: A portable electronic device having a user interface for displaying battery usage of the device over a given time period, with the battery usage from various subsystems. The various subsystems including at least one hardware subsystem and the battery usage attributed to a plurality of software applications based on activity of the plurality of software applications, while battery usage of the various subsystems was monitored.

Abstract: Methods, devices and systems are described that relate to an energy optimal computing control system, where clock rates and supply voltage are control knobs to adjust the total energy consumption of an electronic circuit. An ultra-wide voltage range, such as from near-threshold voltage to the device maximum voltage, is used to maximize the performance and to minimize the energy consumption. One example device includes a processor that receives or determines the temperature of the electronic circuit, and determines the optimum voltage levels and clock rates for the electronic circuit at the operating temperature. This information is provided to a voltage regulator and a clock generator to adjust the supply voltage and clock frequency accordingly.

Abstract: A technique for dynamically adjusting power use of an input/output (I/O) interface of an electronic device is provided. The electronic device includes an input/output (I/O) interface that facilitates electronic communications with a receiving electronic device, at a particular transmission rate that is dynamically changeable by the electronic device. Transmission power and transmission rate adjustment circuitry determines whether a step-down in a transmission power used for signal transmission at the particular transmission rate is desirable. When desirable, the transmission power is dynamically adjusted down one step, such that less power is used by the I/O interface during the electronic communications.

Abstract: A method and apparatus for controlling an operation mode in a mobile terminal provides the mobile terminal to determine whether a predetermined time has elapsed, after a lapse of which it enters a first power-saving mode, and drive a camera module if the predetermined time has elapsed. Meanwhile, the mobile terminal determines whether a predetermined subject is recognized by the camera module, and then delays changing to the first power-saving mode if the predetermined subject is recognized, and enters the first power-saving mode if the predetermined subject is not recognized.

Abstract: A temperature control device (e.g., a thermostat) may be configured to control an internal heat-generating electrical load so as to accurately measure a present temperature in a space around the temperature control device. The temperature control device may comprise a temperature sensing circuit configured to generate a temperature control signal indicating the present temperature in the space, and a control circuit configured to receive the temperature control signal and to control the internal electrical load. The control circuit may be configured to energize the internal electrical load in an awake state and to cause the internal electrical load to consume less power in an idle state. The control circuit may be configured to control the internal electrical load to a first energy level (e.g., a first intensity) during the awake state and to a second energy level (e.g., second intensity) that is less than the first during the idle state.

Abstract: Disclosed is a method and apparatus for power-efficiently processing sensor data. In one embodiment, the operations implemented include: configuring a sensor fusion engine and a peripheral controller with a general purpose processor; placing the general purpose processor into a low-power sleep mode; reading data from a sensor and storing the data into a companion memory with the peripheral controller; processing the data in the companion memory with the sensor fusion engine; and awaking the general purpose processor from the low-power sleep mode.

Abstract: A power saving mode control method and device for multiple operating systems include: setting corresponding power saving modes for each of the multiple operating systems in advance; and determining an operating system of which a power saving mode is triggered, and causing the operating system of which the power saving mode is triggered to enter the corresponding power saving mode.

Abstract: In one embodiment, a system includes a number of application-specific integrated circuits (ASICs). The system also includes one or more processors coupled to the ASICs including instructions executable by the processors. The processors being operable when executing the instructions to configure the plurality of ASICs to route data packets using a standard protocol; configure the ASICs to set up a tunnel, using the standard protocol, for moving data packets from one ASIC to another of the number of ASICs; and implement a software overlay to facilitate interaction between the number of ASICs through the tunnel for moving the data packets.

Abstract: The time remaining until a charge-based event occurs on a computing device can be determined and notification provided to the user in order to prevent a shutdown due to loss of charge, extend the lifetime of the battery, and prevent a device lockout, among other such advantages. The current charge and information about the battery and device can be used to calculate various time periods, such as the time until a 0% state of charge (SOC) whereby a user will be unable to use the device until charging, as well as the time until a 0V lockout, whereby the device will become unusable. The time period and a charge-by date can be displayed on the device at the appropriate time(s), and notifications can be generated when the device is nearing a critical state. Such information also indicates to warehouses when devices become unsellable or at least require charging.

Abstract: A modular floor with active tiles that utilize numerous friction or contact disks each with a raised segment or portion on their edges that together provide a planar contact surface for the active tile. Each disk is oriented at a fixed tilt angle to define which part of the disk's outer surfaces act as the raised portion, and each disk is oriented to position where the raised surface is located so as to define the direction that a supported object is moved over the modular floor. The drive system typically includes, for each disk assembly, a disk orienting mechanism along with a disk rotation mechanism to rotate the disk at a rotation rate about its central axis. The controller of the motion system operates the disk orienting mechanism to orient the disk so that a particular location on the disk behaves as the raised portion where an object is contacted.

Abstract: A system having sensor modules and a computing device. Each sensor module has an inertial measurement unit attached to a portion of a user to generate motion data identifying a sequence of orientations of the portion. The sensor modules include a first subset and a second subset that share a common sensor module. The computing device provides orientation measurements generated by the first subset as input to a first artificial neural network to obtain at least one first orientation measurement of the common module, provides orientation measurements generated by the second subset as input to a second artificial neural network to obtain at least one second orientation measurement of the common module, and generates, a predicted orientation measurement of the common module by combining the at least one first orientation measurement of the common module and the at least one second orientation measurement of the common module.

Abstract: An apparatus for creating movement in a virtual reality for a user includes a computer includes a virtual reality headset in communication with the computer that is worn on the head of the user so the user sees the virtual reality shown by the headset and produced by the computer in the headset. The apparatus includes a foot controller in communication with the computer against which the user moves at least one of his feet to create control signals with the foot to cause movement in the virtual reality. A method for creating movement in a virtual reality for a user having the steps of the user seeing the virtual reality shown by a virtual headset and produced by a computer in the headset, a virtual reality headset in communication with the computer that is worn on the head of the user.

Abstract: The invention relates to a telepresence system comprising a plurality of cameras, a head mounted display device, a processing system and a first orientation sensor, wherein the cameras are positioned at different viewpoints that are aligned so that each camera's field of view at least partly overlaps with those of an adjacent camera, wherein the processing system is arranged to receive image data from each one of the plurality of cameras, to receive orientation information from the orientation sensor, to select one or two cameras, the selection of the one or two cameras depending on the received orientation information, to send image data received from currently selected cameras to the head mounted display device, and if newly received orientation information indicates an orientation change across a predefined threshold, switch from the currently selected cameras to one or two newly selected cameras located at other viewpoints.

Abstract: In an information processing apparatus, a posture data acquiring section acquires output values from a motion sensor of a head-mounted display. Effective rates of acceleration are then obtained by correcting the output values based on correction formulas. A posture is calculated in reference to the axes of the motion sensor based on the acquired rates of acceleration. Thereafter, the posture of the head-mounted display is calculated by performing rotation correction based on previously acquired angle errors, the calculated posture being output to an information processing section. A correction data updating section acquires posture information based on markers of the head-mounted display imaged in a captured image, and updates correction data for use in acquiring the posture from the sensor output values through comparison with the marker-based posture information.

Abstract: An embodiment provides a method, including: detecting, using a gaze tracking system of a device, a position of user gaze with respect to a display; sending, through a display interface, display information including an added visual element associated with the position of user gaze; tracking, using the gaze tracking system, change in the position of user gaze with respect to the display; and moving, using a processor, the added visual element responsive to change in the position of user gaze with respect to the display. Other aspects are described and claimed.

Abstract: A head mounted display (HMD) device operating in a real world physical environment is configured with a sensor package that enables determination of an intersection of a device user's projected gaze with a location in a virtual reality environment so that virtual objects can be placed into the environment with high precision. Surface reconstruction of the physical environment can be applied using data from the sensor package to determine the user's view position in the virtual world. A gaze ray originating from the view position is projected outward and a cursor or similar indicator is rendered on the HMD display at the ray's closest intersection with the virtual world such as a virtual object, floor/ground, etc. In response to user input, such as a gesture, voice interaction, or control manipulation, a virtual object is placed at the point of intersection between the projected gaze ray and the virtual reality environment.

Abstract: A zoom operation in an eye tracking based graphical user interface, where the zoom operation, as initiated by a scroll wheel etc. takes place with respect to the focus of the user's attention as determined on the basis of eye tracking data. Mechanisms for determining the point of attention based on a sliding window recording point of regard and subject to a variety of weighting functions are proposed.

Abstract: A beam steering backlight unit provides a hologram image to multiple viewing positions and a holographic display apparatus includes the beam steering backlight unit. The backlight unit includes a light source array comprising a plurality of two-dimensionally arranged light sources and a micro lens array arranged to face the light source array and comprising a plurality of two-dimensionally arranged micro lenses. The light source array includes a plurality of light source blocks each corresponding to a respective one of the plurality of micro lenses, wherein a plurality of the light sources are arranged in each of the plurality of light source blocks. The light source array is configured to select and turn on only those light sources of the plurality of light sources respectively disposed in a same position in each of the plurality of light source blocks and turn off the other light sources.

Abstract: Methods, systems, and devices are disclosed for optical sensing and tracking of eye movement. In one aspect, a device for obtaining a user's eye dynamics data includes a display screen to present at least one content. The device includes an eye sensing module to obtain the user's eye dynamics data including the user's eye movement while presenting to the user the at least one content on the display screen. The device includes a processor in communication with the eye sensing module. The processor can determine the user's reaction to the at least one content presented on the display screen based at least partly on the obtained user's eye dynamics data.

Abstract: The invention relates to a method for operating an eye tracking device (10) for multi-user eye tracking, wherein images (24) of a predefined capturing area (14) of the eye tracking device (10) are captured by means of an imaging device (12) of the eye tracking device (10) and the captured images (24) are processed by means of a processing unit (16) of the eye tracking device (10). If a first user (26a) and a second user (26b) are present in the predefined capturing area (14) of the eye tracking device (10), a first information relating to the first user (26a) and a second information relating to the second user (26b) are determined on the basis of the captured images (24) by processing the images (24). Furthermore the images (24) are captured successively in a predeterminable time sequence.

Abstract: An embodiment combines the concepts of image enhancement and pointing to enhance the experience of viewing images by tracking where the viewer is pointing. The result is to make the viewing experience more like viewing the original scene, or to enhance the viewing experience in new ways beyond the original experience, either automatically, or by interacting with a photographer's previously specified intentions for what should happen when the viewer points at a particular portion of an image or images taken by that photographer.

Abstract: A head-mounted display (HMD) includes an electronic display configured to emit image light, an optical assembly that provides optical correction to the image light, an eye tracking system, and a varifocal module. The optical assembly includes a back optical element configured to receive the image light from the electronic display, and a coupling assembly configured to couple a front optical element to a location within the optical assembly such that the front optical element receives light transmitted by the back optical element. The optical correction is determined in part by an optical characteristic of the front optical element that is replaceable. The eye tracking system determines eye tracking information for a first eye of a user of the HMD. A varifocal module adjusts focus of images displayed on the electronic display, based on the eye tracking information and the optical correction.

Abstract: A haptic information presentation system uses a human sensory characteristic or illusion to suitably control a physical quantity, and causes a person to feel a force which cannot exist physically, or a haptic sensory physical characteristic.

Abstract: A bi-functional apparatus for sensing touch and delivering a haptic signal. The bi-functional apparatus comprises first and second electrodes. The first electrode provides a haptic interface for delivering an electrostatic force and has a top surface and a bottom surface. A dielectric insulator covers the top surface of the first electrode. A sensor is positioned between the bottom surface of the first electrode and the second electrode. The sensor selectively provides electrical conductivity between the first and second electrodes in response to at least a threshold amount of pressure exerted against the dielectric insulator. A method of sensing touch and delivering a haptic signal with a single device.

Abstract: A computing system including a head mounted display device with a processor and an associated display is provided. A sensor in communication with the processor is configured to detect a movable body part of a user. A plurality of physical haptic feedback structures are configured to be contacted by the movable body part. The processor is configured to operate the display device, receive data from the sensor, and determine an intended virtual target of the movable body part and a target physical structure having haptic characteristics corresponding to the intended virtual target. Also, the processor is configured to compute a path in real three-dimensional space from the movable body part to the target physical structure, compute a spatial warping pattern, and display via the display the virtual space and the virtual reality representation according to the spatial warping pattern.

Abstract: A system that controls a haptic effect experienced at a trigger is provided. The system receives a haptic effect definition including haptic data. The system further receives trigger data including at least one of: a position of a trigger of a peripheral device; or a range of the trigger of the peripheral device. The system further determines whether a trigger condition is reached based on the received trigger data. The system further sends a haptic instruction and the haptic effect definition to the peripheral device when the trigger condition is reached. The system further causes a haptic output device (or multiple haptic output devices) to produce haptic effects that are based on the haptic effect definition at the peripheral device in response to the haptic instruction.

Abstract: A haptic output system configured to generate haptic effects, through a user input surface, by varying one or more haptic output characteristics of one or more haptic elements (e.g., vibrating elements, electrostatic elements, thermal elements, and so on) based on substantially real-time touch input and/or force input information. In this manner, the haptic output system effectively simulates the presence of a physical object (e.g., having textures, edges, features, mechanical responses, and so on) on the user input surface.

Abstract: An electronic device that is operable to provide electrical haptic output includes a touch surface and multiple haptic cells disposed on the touch surface. The multiple haptic cells include capacitors that are operable to store charges independently of each other and independently provide haptic output when touched by a body by discharging the stored charge to create a current. In this way, a wide variety of dynamically configurable haptic outputs can be provided without moving parts and without consuming the space and/or power used for haptic actuators that vibrate and/or otherwise move a mass.

Abstract: A touch sensitive device comprising a touch surface, a force exciter coupled to the touch surface to excite vibration in the surface in response to a signal sent to the exciter, with the touch surface and exciter together forming a coupled system and a signal generator to generate the signal, with the signal generator generating a carrier wave signal at frequencies within the frequency bandwidth of the coupled system and modulating the carrier wave signal with a complex modulation where the modulated carrier wave signal has a time response comparable to that of a low frequency signal which produces a desired haptic sensation whereby a user touching the touch surface excited by the exciter in response to the modulated carrier wave signal experiences the desired haptic sensation which is perceived at a frequency below the frequency bandwidth of the coupled system.

Abstract: A system is provided that automatically converts an input into one or more haptic effects in near real-time. The system senses the input in near real-time. The system automatically converts the sensed input into one or more haptic signals in near real-time. The system generates the one or more haptic effects based on the one or more haptic signals.