Abstract: According to one embodiment, an electronic device includes: a display; a touch panel provided on the display; a lock controller configured to shift the electronic device to a locked state and configured to cancel the locked state when a touch input in a predetermined position of the touch panel is detected; and an unlock screen display controller configured to generate an image as a reference of the position of the touch input for cancellation of the locked state, display the image on the display, and control a display form of the image so that the display form corresponding to a first timing is different from the display form corresponding to a second timing.

Abstract: According to one embodiment, an electronic apparatus includes a display, a touch panel, a detector, and a controller. The touch panel is provided on the display. The detector detects motion of the electronic apparatus. The controller changes a display position of an image displayed on the display when the motion is detected.

Abstract: In one embodiment, a method includes arranging a touch sensor over a first side of a display. The touch sensor comprising a first portion and a second portion. The first portion comprising a plurality of electrodes. The second portion comprising a plurality of tracks and a first plurality of connection pads. The method further includes folding the touch sensor around the display such that the second portion of the touch sensor is situated on a second side of the display. The second side of the display different than the first side of the display. Also, the method includes electrically coupling the first plurality of connection pads to a second plurality of connection pads. The second plurality of connection pads configured to be electrically coupled to a controller.

Abstract: According to one embodiment, an electronic device includes a first housing for a touch-screen display, a second housing for a touchpad, the first housing being slidably connected to the second housing, a detector, and a change module. The detector is configured to detect an input operation on the touchpad, when the touchpad is exposed. The change controller is configured to change a direction of a content displayed on the touch-screen display based on detection of the input operation.

Abstract: An electronic device includes a display and a touch input disposed over the display. The touch input receives touch inputs from a user and detects location of the user's hand relative to the display including location of the user's hand in front of and not touching the touch input. A controller controls the display of content, including determining an obstructed area of the display that is obstructed from viewing by the user's hand as indicated by the detection made by the touch input; determining that a default location for the display of a new graphical user interface (GUI) element that should be added to the display overlaps with the obstructed area by at least a predetermined amount, and changing a manner in which the new GUI element is displayed so that the new GUI element is not obstructed by the user's hand.

Abstract: A method and apparatus for performing interaction between electronic papers is provided. A first electronic paper recognizes installation of a binder on the first electronic paper. The first electronic paper sets an interaction mode according to the installation of the binder on the first electronic paper. The first electronic paper establishes a communication connection with a second electronic paper on which the binder is also installed. The first electronic paper performs data communication with the second electronic paper according to the interaction mode.

Abstract: A processor-implemented method, system, and/or computer program product detects and handles an unintentional touching of a touch screen in order to prevent unintentional inputs to the touch screen. An unintentional touching of touch screen, as determined by one or more predefined events, causes a predetermined region of the touch screen to be disabled.

Abstract: A triggering method and a wireless handheld device provided in embodiments of the present invention relate to the field of electronic technologies. The touchscreen triggering method includes: detecting an input combination that is of a click frequency and/or click intensity and is received when a touchscreen is in a locked state; and when it is detected that the input combination that is of the click frequency and/or the click intensity and is received when the touchscreen is in the locked state matches a pre-stored input combination of a click frequency and/or click intensity, wherein the pre-stored input combination of the click frequency and/or the click intensity is corresponding to an operation, executing the operation corresponding to the matched pre-stored input combination of the click frequency and/or the click intensity.

Abstract: A portable information terminal that is connected to an in-vehicle device comprises: a first display unit; a display control unit that generates a first screen image for display upon the first display unit, and a second screen image for display upon a second display unit that is comprised in the in-vehicle device; and a screen image output unit that outputs the second screen image to the in-vehicle device.

Abstract: The present invention is to allow change of the area in which information as a display target is not displayed in a display according to a detected position by a touch sensor disposed opposed to a touch sensor that is so disposed as to be overlapped on the display. An information processing device (1) includes a touch panel (12) that is so configured as to include a display and a front touch sensor that is so disposed as to be overlapped on the display and detects the position of an object on a detection surface, a back touch sensor (18) that is disposed opposed to the front touch sensor and detects the position of an object on a detection surface, and a control section. The control section identifies, as a prohibited area, one of two areas that each occupy part of the display and are disposed on the left and right sides based on at least one detected position by the back touch sensor (18), and causes information as a display target to be displayed in an area outside the prohibited area in the display.

Abstract: The purpose of the invention is to provide a touch-control method, apparatus and an electronic device. The touch-control method is applied to an electronic device which has a touch surface and a sensor. The touch-control method includes determining a first contact-area and a second contact-area based on the data acquired by the sensor, the first contact-area and the second contact-area being the area of the contact regions of the touch surface in contact with a pointing object at different time moments; based on the first contact-area and the second contact-area, determining a first instruction-determination-parameter associated with an area-variation amount; based on a pre-stored first correspondence-relationship between an instruction-determination-parameter interval and an instruction-sequence, determining and executing a first instruction-sequence which corresponds to the instruction-determination-parameter interval where the first instruction-determination-parameter locates.

Abstract: A readout device for a capacitive sense matrix includes a computer readable storage medium configured to store capacitance data. The capacitance data represents capacitance values of the capacitive sense matrix. The readout device also includes a readout circuit configured to receive a signal from the capacitive sense matrix, the readout circuit being configured based upon the capacitance data. Also described are a readout method and a method of compensating for variations in capacitance.

Abstract: Embodiments of the present invention generally provide a processing system for an input device including a sensor module having sensor circuitry. The sensor module may be coupled to transmitter electrodes, receiver electrodes, and a shield electrode. The sensor module may be configured for transmitting transmitter signals with the transmitter electrodes, receiving resulting signals with the receiver electrodes, and transitioning the shield electrode from a first voltage to a second voltage during a non-sensing time period. The resulting signals may include effects which correspond to the transmitter signals. The input device may further include a determination module configured for determining positional information for an input object based at least in part on the resulting signals.

Abstract: Detecting force and touch using FTIR and capacitive location. FTIR determines applied force by the user's finger within infrared transmit lines on a touch device. A pattern of such lines determine optical coupling with the touch device. Capacitive sensing can determine (A) where the finger actually touches, so the touch device more accurately infers applied force; (B) whether finger touches shadow each other; (C) as a baseline for applied force; or (D) whether attenuated reflection is due to a current optical coupling, or is due to an earlier optical coupling, such as a smudge on the cover glass. If there is attenuated reflection without actual touching, the touch device can reset a baseline for applied force for the area in which that smudge remains. Infrared transmitters and receivers are positioned where they are not visible to a user, such as below a frame or mask for the cover glass.

Abstract: A display screen is configured to display information with a selectable one of many information display orientations. A touch screen panel of a touch screen system is positioned to overlie the display screen. The touch screen system operates to make a proximate touch detection, for example by a body part or stylus. A controller receives the proximate touch information from the capacitive touch screen system and interprets the proximate touch information to determine an indication from a user of a selection of an information display orientation for the display screen. The controller then controls the display screen to present information in accordance with the user selected information display orientation. The user selected information display orientation via the proximate touch detection will over-ride any other selected information display orientation such as a selection made in response to an orientation identified by an accelerometer or other gravity influenced sensor.

Abstract: A touch screen system is configured to sense a proximate or actual touch made to a touch screen panel. In response thereto, an RF transmitter is actuated to emit RF energy. A stylus receives the emitted RF energy and includes an RF energy harvesting circuit that powers an enable circuit. The enable circuit generates an enable signal. The stylus responds to the enable signal by performing a sensing operation. The information collected in the sensing operation is then communicated over an RF communications link back to the touch screen system. The sensing operation preferably is a pressure sensing operation for detecting an applied pressure at an end of the stylus resulting from contact with the touch screen panel.

Abstract: An apparatus including a shaft configured to be gripped by a user to provide input to a touch input panel; and a tip located at an interacting end of the apparatus for interacting with the touch input panel, the tip including an electrically conductive element and an electrically insulating material, the electrically insulating material configured to capacitively decouple the electrically conductive element from the shaft and/or user, wherein the electrically conductive element is configured to couple capacitively to an electrotactile electrode of the touch input panel when the electrically conductive element is in proximity to the electrotactile electrode, capacitive coupling between the electrically conductive element and the electrotactile electrode creates vibrations in the tip to cause a variation in the frictional force between the tip and the touch input panel as perceived by a user gripping the shaft during relative lateral movement of the tip and touch input panel.

Abstract: The touch apparatus includes a touch panel, a signal generation unit for generating a driving signal, an inductor, and a detection unit. The touch panel has touch areas. The inductor is coupled between the touch panel and the signal generation unit and transmits the driving signal to the touch areas. The detection unit is coupled to the touch panel and the signal generation unit, receives touch signals from the touch areas, and calculates capacitance variances of the touch areas according to the touch signals and an output timing of the driving signal, so as to detect a touch point of the touch panel. A frequency of the driving signal is equal to a resonant frequency of a reference capacitance of the touch panel and an inductance of the inductor.

Abstract: A multi-dimensional scroll wheel is disclosed. Scroll wheel circuitry is provided to detect input gestures that traverse the center of the scroll wheel and to detect multi-touch input. The scroll wheel can include a first plurality of sensor elements arranged in a first closed loop and a second plurality of sensor elements arranged in a second closed loop, the first and second closed loops being concentrically arranged about the center of the scroll wheel.

Abstract: An electronic device includes a main body and at least one wireless touch panel. Each wireless touch panel includes a touch-sensitive module, a processing module, a wireless energy receiving module, and a first wireless communication module. The wireless energy receiving module receives electromagnetic energy from the main body and converts the received electromagnetic energy into electric energy to power other function modules of the wireless touch panel. The touch-sensitive module produces touch signals in response to a user's touch operations, and the first wireless communication module sends the touch signals to the main body to activate corresponding functions of the electronic device. The first wireless communication module also receives wireless control signals from the main body, and the processing module activates functions of the wireless touch panel in response to the wireless control signals.

Abstract: A touch sensing device capable of accurately detecting a touched position on a touch panel includes a touch panel and a calculation unit. The touch panel having a plurality of horizontal sensing lines and vertical sensing lines generates a plurality of horizontal and vertical sensing signals in response to a touch on the touch panel. The calculation unit determines a touched position on the touch panel according to the horizontal and vertical sensing signals. A touch sensing method is also provided.

Abstract: A touch panel includes a cover layer including a number of key areas, a circuit board, a touch-sensing layer arranged between the cover layer and the circuit board, and a number of button members corresponding to the key areas one by one. Each button member includes a post and a sensing portion. The touch-sensing layer generates a first signal to indicate a location of a user's touch when the touch panel is in a touch mode. The sensing portion generates a second signal when a corresponding key area is pressed when the touch panel is in a button mode.

Abstract: It becomes possible to use drive pulses having different pulse widths for one kind of drive pulse signal period. Therefore, even if a voltage acting on a crossing part of drive and detection electrodes is periodically changed through a stray capacitance attributed to an external object such as a finger in an undesired manner, the pulse width of the drive pulse is never fixed with respect to the period, and the periodic buildup of a certain voltage on a detection signal, which would make appreciable noise, is suppressed. Thus, the reduction of detection signals can be suppressed in quantity without switching the pulse signal frequency of the drive pulse of a touch panel.

Abstract: A driving device includes a base and a conductive pattern portion provided on a surface of the base. The conductive pattern portion has a finger touch portion, touching portions and conductive connecting portions connecting the finger touch portion and each of the touching portions. When a surface of the base is contacted with a multi-touch display of an information processor, each of the touching portions activates a corresponding touching area of the multi-touch display. Thus, a predetermined action is executed by the information processor.

Abstract: A sensor panel device that can generate and use a stimulus signal having multiple different waveforms for detecting events on or near the sensor panel is disclosed. Among other things, such a stimulus signal can be used to reject environmental noise present in the device. In some embodiments, the stimulus signal has multiple waveforms having different frequencies. Logic circuitry can generate representative values from output of the different waveforms applied to one or more sensing nodes in the sensor panel device. From the representative values, a final value can be generated that represents whether an event occurred at or near the one or more sensing nodes.

Abstract: Electronic devices may use touch pads that have touch sensor arrays, force sensors, and actuators for providing tactile feedback. A touch pad may be mounted in a computer housing. The touch pad may have a rectangular planar touch pad member that has a glass layer covered with ink and contains a capacitive touch sensor array. Force sensors may be mounted under each of the four corners of the rectangular planar touch pad member. The force sensors may be used to measure how much force is applied to the surface of the planar touch pad member by a user. Processed force sensor signals may indicate the presence of button activity such as press and release events. In response to detected button activity or other activity in the device, actuator drive signals may be generated for controlling the actuator. The user may supply settings to adjust signal processing and tactile feedback parameters.

Abstract: Gloves are disclosed that are worn by a user while manipulating an electronic device equipped with a capacitive touchscreen. The gloves allow the wearer to manipulate the capacitive touchscreen device without removing the gloves, which is very advantageous in cold environments. The gloves enable full hand functionality allowing the user to type, swipe, squeeze, pinch, and select on the capacitive touchscreen device as if they were using their bare hand. The gloves are made with a low resistant yarn knit or woven into a comfortable fabric that connects the body's bioelectricity through the glove to a capacitive touchscreen. Ordinary gloves will not work with a capacitive touchscreen. In the manufacturing process, the low resistant yarn is first twisted around at least one other yarn having a specific performance property, such as thermal resistance. This twisting assists in uniform knitting and improves the consistent resistivity of the finished glove.

Abstract: This relates to an architecture of a receive channel circuit used during both a spectrum analysis phase and a touch panel detection phase. Various components of the receive channel can be used during both the spectrum analysis phase and the touch panel detection phase. For example, a plurality of digital signal mixers used in the receive channel circuit can be used to demodulate signals during both a spectrum analysis phase and a touch sensor panel detection phase. In addition, the number of digital mixers needed in the receive channel can be reduced by dividing groups of signals to be demodulated into multiple sets of signals and demodulating each set at different times. Furthermore, the size of a sine look-up table (LUT) used to generate sine waveforms can be reduced by taking advantage of the symmetry of the sine waveform. For example, a quarter of a sine waveform can be saved in the LUT and the remaining quadrants of the waveform can be derived based on the symmetry of the sine wave.

Abstract: The disclosure discloses an information processing method for an electronic device with a touch screen. The method includes: touch with a touch screen is detected; an information pickup area is set on the touch screen according to the touch; and information in the information pickup area is picked up according to an information pickup command and the picked-up information is stored. In the disclosure, existing information, such as an image or a signature, is picked up via an information processing device, such as a stylus, on a touch screen of an electronic device; and a user can autonomously control its image, signature and other information to display on the touch screen of the electronic device when needed. Therefore, great convenience is brought to users using a portable electronic device such as a tablet PC and a smart phone, and their personalized application can also be met to a great extent.

Abstract: An optical touch panel includes a light source unit and a processing unit, wherein the processing unit is for executing a brightness control method. The brightness control method includes steps below. The light source unit emits at a first intensity in a touch control mode. Responding to a switching condition, the touch panel is switched into a scan mode, and the light source unit emits at a second intensity in the scan mode.

Abstract: In one embodiment, a method includes receiving at a device first data transmitted from a stylus by near-field communication. The device determines a hover distance of the stylus in reference to the device based at least in part on the first data. The device is operated based at least in part on the hover distance of the stylus.

Abstract: A liquid crystal display (LCD) device and method of driving an LCD device are provided. The LCD device includes: a panel, including: a plurality of gate lines, and a plurality of data lines, an image-sticking removal apparatus configured to, when an interlaced input video is received from an external system: generate an FRC pattern to be added into the input video and a polarity pattern used to output the input video to form one group, and generate at least two or more the groups formed in parallel to the gate lines during one frame, and a data driver configured to: convert image data inputted from the image-sticking removal apparatus into data voltages, invert a polarity of each of the data voltages on the basis of the polarity pattern, and output the polarity-inverted data voltages to the respective data lines.

Abstract: A three-dimensional (3D) television (TV) dimming system includes a TV control board, a light bar load controlled by the TV control board, and a power board that supplies power to the light bar load. The TV control board is directly coupled with the power board, and the TV control board feeds back the 3D signal to the power board when the TV control board outputs a 3D signal.

Abstract: A bistable liquid crystal display (LCD) including a display panel, a plurality of column data drivers, and a plurality of row data drivers is provided. Each column data diver receives a plurality of phase control signals, a first high driving voltage, a first low driving voltage, and a display data, selects one of the phase control signals according to the display data, and alternately outputs the first high driving voltage and the first low driving voltage according to the selected phase control signal to form a column driving signal for the display panel. Each row data diver receives one of the phase control signals, a second high driving voltage, and a second low driving voltage and alternately outputs the second high driving voltage and the second low driving voltage according to the received phase control signal to form a row driving signal for the display panel.

Abstract: A display device includes a display panel, and a driving unit that generates driving signals for driving the display panel. The display panel receives the driving signals and outputs the driving signals as test driving signals. The driving unit includes an analog-digital converter to which the test driving signals are input, and includes a register that stores signal levels detected by the analog-digital converter.

Abstract: Disclosed herein is a liquid crystal display device having first and second substrates disposed to face each other so as to hold a liquid crystal layer therebetween, and a gate potential creating circuit for outputting a selection potential and a non-selection potential, scanning lines, signal lines, thin film transistors formed so as to correspond to intersection portions between the scanning lines and the signal lines, respectively, pixel electrodes electrically connected to the thin film transistors, respectively, and a gate control circuit for switching the selection potential and the non-selection potential supplied from the gate potential creating circuit over to each other, thereby supplying one of the selection potential and the non-selection potential to corresponding ones of the thin film transistors through corresponding one of the scanning lines being formed on the first substrate, and a common electrode being formed either on the first substrate or the second substrate.

Abstract: A DC-DC converter control circuit with enhanced driving efficiency while securing circuit stability during light-load driving of the DC-DC converter through variation of an on/off duty ratio of a burst mode according to load. The control circuit includes a detection unit for detecting an amount of current and a voltage at an output stage of a DC-DC converter, and generating and outputting a differential voltage according to a level of the detected voltage, a comparison unit for comparing the differential voltage with a reference voltage having a triangle or sawtooth waveform, thereby generating a duty signal, and a converter controller for generating an on/off control signal corresponding to a duty ratio of the duty signal, and supplying the on/off control signal to the DC-DC converter, to control on/off of the DC-DC converter.

Abstract: Disclosed an organic light-emitting diode display device in which the number of signal lines is minimized by sharing a predetermined signal line between adjacent pixels in a display panel having a plurality of signal lines formed therein, thereby improving an aperture ratio. The organic light-emitting diode display device includes a display panel defining pixels, a gate driver, a data driver, a multiplexer (MUX) electrically connecting an output terminal of the data driver and the pixels into a 1:1, 1:N (N is a natural number) or N:N structure, and a timing controller. Accordingly, the MUX is provided between the data driver and the pixels, and each pixel and signal lines are selectively connected through the MUX, so that it is possible to reduce the number of Integrated chips (ICs) provided by allowing a compensation circuit built in the data driver.

Abstract: There is provided a driving method of a liquid crystal display device that is driven by an inversion method, including: calculating a total sum of changed amounts of data voltages between an (n?1)-th row line and an n-th row line, using image data of the (n?1)-th row line and image data of the n-th row line; generating common voltage data according to the total sum of the changed amounts of the data voltages; compensating for the common voltage data using a characteristic parameter of a liquid crystal panel; and generating a common voltage according to the compensated common voltage data, and outputting the common voltage to the liquid crystal panel.

Abstract: A display device includes a display area including a gate line and a data line and a gate driver connected to an end of the gate line, the gate driver including at least one stages integrated on a substrate configured to output a gate voltage, in which the stage includes an inverter unit and an output unit, in which the output unit includes a first transistor and a first capacitor. The first transistor includes an input terminal applied with a clock signal, a control terminal connected to the node Q, and an output terminal connected to a gate voltage output terminal through which the gate voltage is output. An inverter voltage output from the inverter is lower than the low voltage of the gate voltage output by the output unit.

Abstract: The present disclosure provides a Thin Film Transistor Array Substrate and a Liquid Crystal Display apparatus thereof, and relates to the technical field of liquid crystal displaying. The Thin Film Transistor Array Substrate of the present disclosure includes a plurality of gate lines and a plurality of data lines, wherein regions surrounded by the gate lines and the data lines are pixel regions, and wherein a high level common voltage line being used when signal on the data line is at a low level and a low level common voltage lines being used when signal on the data line is at a high level are also arranged in parallel to the gate lines in each of the pixel regions. With the Thin Film Transistor Array Substrate of the present disclosure, the Greenish phenomenon in the existing liquid crystal display apparatus may be effectively solved.

Abstract: According to an aspect, a display device includes a liquid crystal layer, a transparent electrode, a reflective electrode, a drive circuit, and a controller. The controller is configured to switch a mode between a first mode for driving the drive circuit at a liquid-crystal inversion frequency of a first frequency so that screen display using light reflected by the reflective electrode is performed and a second mode for driving the drive circuit at a liquid-crystal inversion frequency of a second frequency higher than the first frequency so that screen display using light passing through the opening of the reflective electrode is performed.

Abstract: A driving method of a liquid crystal display (LCD) device includes a step A and a step B. In the step A, using frequency conversion on a received source image signal when a type of the received source image signal is different from a preset target frequency, and converting a display frequency of the received source image signal into a target frequency, generating a target image signal based on the target frequency. In the step B, performing an overvoltage drive output using an overvoltage driving table matching with the target frequency of the target image signal.

Abstract: An LCD device according to an embodiment includes a liquid crystal display panel in which n gate lines are formed; a timing controller to generate first to sixth clock signals; a first gate driver to apply a high gate voltage to one ends of the (2k?1)th gate lines in response to the first, third and fifth clock signals; a second gate driver to apply the high gate voltage to one ends of the (2k)th gate lines in response to the second, fourth and sixth clock signals; left discharge circuits each to apply a low gate voltage to the other end of the (2k?1)th gate line according to a voltage level on (2k+1)th gate line; and right discharge circuits each to apply the low gate voltage to the other end of the (2k)th gate line according to the voltage level on (2k+2)th gate line.

Abstract: Methods and apparatus to implement a remote terminal unit network are disclosed. An example method involves allocating, via a processor of a first remote terminal unit, a first time slot of a first frame of a first transmission schedule to the first remote terminal unit, the first remote terminal unit to be in communication with a second remote terminal unit in a network associated with a process control system and to be in communication with a host of the process control system, the first remote terminal unit to communicate first data over the network during the first time slot, and allocating, via the processor, a second time slot of the first frame to the second remote terminal unit, the second remote terminal unit to communicate second data over the network during the second time slot.

Abstract: Webpage display methods and apparatus are provided herein. In an exemplary method, a webpage to be displayed can be obtained. The webpage can be sectioned into a plurality of sub-blocks. Sub-blocks corresponding to a first current screen can be rendered and displayed. A render-display operation can be performed. The render-display operation includes rendering sub-blocks adjacent to the first current screen and storing the rendered sub-blocks adjacent to the first current screen in a buffer. The render-display operation also includes reading and displaying rendered sub-blocks in the buffer corresponding to a second current screen when a screen moves. The render-display operation can be repeatedly performed.

Abstract: An electronic device having a 3-D image projection mechanism is provided. The electronic device comprises a display panel, a processing module, a projection screen and at least two micro projectors. The display panel is formed on a main body of the electronic device to display a 2-D display frame. The processing module determines whether a 3-D display request is received and generates a 3-D display command when the 3-D display request is received. The projection screen is formed according to the 3-D display command and is substantially vertical to the display panel, in which a light refractive rate of the projection screen is different from that of the air around the projection screen. The micro projectors are disposed in a circumference of the display panel and project image on the projection screen according to the 3-D display command such that a 3-D display frame is formed thereon.

Abstract: A viewpoint position determination unit is configured to determine whether a viewpoint indicated by a viewpoint array signal is closer to a left-eye viewpoint or a right-eye viewpoint. A coefficient generation unit is configured to generate a coefficient based on the viewpoint array signal. A first selector is configured to select either a left-eye viewpoint image signal or a right-eye viewpoint image signal. A second selector is configured to select either a left-eye viewpoint depth value or a right-eye viewpoint depth value. A multiplier is configured to multiply the left-eye viewpoint depth value or the right-eye viewpoint depth value by the coefficient. A pixel shift unit is configured to carry out a pixel shift on the left-eye viewpoint image signal and the right-eye viewpoint image signal according to the depth value output from the multiplier, so as to generate a multi-viewpoint image signal.

Abstract: Aspects of the present disclosure describe a software based emulator of a graphics processing unit (GPU) that is configured to operate over a cloud-based network. A virtual image containing graphics primitives is divided into a plurality of tiles. A load balancer assigns tiles to rasterization threads in order to evenly distribute the processing load. The rasterization threads then rasterize their assigned tiles and deliver rendered pixels to a frame buffer. The frame buffer builds a frame from the rendered pixels and then delivers the frame over the network to a client device platform. It is emphasized that this abstract is provided to comply with the rules requiring an abstract that will allow a searcher or other reader to quickly ascertain the subject matter of the technical disclosure. It is submitted with the understanding that it will not be used to interpret or limit the scope or meaning of the claims.

Abstract: A three-dimensional view that includes a plurality of systems engineering models may be provided. A first systems engineering model and a second systems engineering model of the plurality of systems engineering models may be received. The three-dimensional view that includes the first systems engineering model and the second systems engineering model may be generated. The first systems engineering model may be projected onto a first plane of a three-dimensional coordinate system. The second systems engineering model may be projected onto a second plane of the three-dimensional coordinate system. The second plane is different than the first plane. The three-dimensional view may be displayed.