33 results about "Dynamic touch" patented technology

A display component implements a text entry system for a device, such as a cell phone or other handheld device, has various layers that mimic characteristics of a conventional keyboard. A keyboard is displayed on a dynamic touch screen display. When a key is pressed by a user, the surface area of the key on the display depresses, thereby mimicking a conventional keyboard that would typically be used with a desktop or laptop computer. The display component is comprised of various layers or panels. One layer is a compressible touch sensitive or touch screen layer. Adjacent to this layer is a compressible display layer. Another layer is a deformable or cushion layer for supporting a specific weight, such as the weight of user fingers or hands. Adjacent to the deformable layer is a lower touch sensitive layer which has a coordinate system. A user pressing down on a key on the compressible display component at a specific spot creates a downward deformation at that specific spot, thereby providing a more ergonomic feel to the user when entering text into the device.

A dynamic touch interface in which users are able to flick or scroll within the dynamic touch interface such as a dock or carousel and view the contents of their applications and thus provides a touch friendly environment to a personal computer type operating system (i.e., a keyboard / mouse input type operating system). More specifically, the touch input environment implements dynamic icons such that the icons populate content which is viewed or experienced. For example, if a user launches a favorite band in a music application, the carousel is automatically populated with album art or a picture of the band. The next time the user visits the desktop, the music icon is replaced by an image of the band or artist. Also, in certain embodiments, the icon includes a brief description of the content (i.e., number of songs or albums in folder).

A display component implements a text entry system for a device, such as a cell phone or other handheld device, has various layers that mimic characteristics of a conventional keyboard. A keyboard is displayed on a dynamic touch screen display. When a key is pressed by a user, the surface area of the key on the display depresses, thereby mimicking a conventional keyboard that would typically be used with a desktop or laptop computer. The display component is comprised of various layers or panels. One layer is a compressible touch sensitive or touch screen layer. Adjacent to this layer is a compressible display layer. Another layer is a deformable or cushion layer for supporting a specific weight, such as the weight of user fingers or hands. Adjacent to the deformable layer is a lower touch sensitive layer which has a coordinate system. A user pressing down on a key on the compressible display component at a specific spot creates a downward deformation at that specific spot, thereby providing a more ergonomic feel to the user when entering text into the device.

A touch system is described having a method of determining touch of one or more objects on a touch surface of a touch-sensitive apparatus, wherein the method operates in a time sequence of frames, each frame comprising the steps of: for a current frame, processing an output signal of the touch sensitive apparatus to generate one or more touch traces, each touch trace having one or more characteristics; and outputting a confirmed touch signal for each touch trace having a touch trace matching at least one of said one or more characteristics in a first number of frames preceding the current frame, wherein the first number of frames is determined in dependence on said one or more characteristics.

A portable device includes: a communication unit which communicates with an external device; a touch screen which includes a user interface (UI) menu and detects a touch input of a user; a controller which determines whether the user's touch inputs successively detected by the touch screen is a static touch or a dynamic touch according to whether a first position of a touch start and a second position of a touch termination are the same, performs an operation corresponding to the UI menu corresponding to the touch position if the successive touch inputs are the static touch wherein the first and second positions are the same, and controls the communication unit to send the external device a control signal corresponding to the dynamic touch if the successive touch inputs are the dynamic touch wherein the first and second positions are different.

Robust electro-static (ES) device embodiments, with application to energy storage flywheels as an example, are described that provide reliable, high-efficiency operation in the presence of thermal and mechanical perturbations, as well as seismic events. Electro-static generators and motors, when augmented with magnetic bearings, passive three-dimensional stabilization techniques and dynamic touch-down bearings, enable robust performance in the face of these environmental concerns, as well as efficient operation during typical operational sequences, including spin-up and steady-state modalities.

The invention provides a dynamic touching MURA compensation method and an LCD system thereof; the method comprises that: a touching position signal is generated according to a touching position of a touching event of an LCD screen; a signal compensation process of a pixel brightness signal relative to the touching position of an original pixel data is executed according to the touching position, thereby generating a pixel data to be displayed; and the pixel data to be displayed is displayed on the LCD screen. Moreover, the invention discloses an LCD system provided with dynamic touching MURA compensation, which comprises an LCD screen, a touching signal analyzing module, a display data processor, a dynamic MURA compensation unit and a source electrode driver.

A method and apparatus configured to control the level of detailed information displayed for a selected area using a dynamic touch interaction in a mobile terminal including a touch screen, are provided. The apparatus include a memory that stores contents to be output through the touch screen as data, a touch interaction module that analyzes a user's touch input through the touch screen and recognizes a stipulated touch interaction, and a control unit that controls an overall operation of the apparatus according to the user's input through the touch screen. The control unit also controls the level of subordinate detailed information displayed in an area, which is designated by the user through a stipulated touch input, to be displayed when the stipulated touch input is recognized through the touch interaction module, based on the data stored in the memory.

A method and apparatus of controlling a division screen interlocking display using dynamic touch interaction are provided. The method includes recognizing a screen scroll input of a first pattern input through a touch screen, moving contents for each screen section in a scroll direction when the screen scroll input of the first pattern is recognized, and controlling corresponding contents deviated from a corresponding screen section by scrolling to be automatically converted according to a display format of a screen section in which corresponding contents are moved and output to the screen section while moving the deviated contents to an adjacent screen section of the screen in the scroll direction.

The invention relates to a combined solid encapsulated pole and a working principle thereof. The combined solid encapsulated pole comprises an insulating cylinder with an upper cavity and a lower cavity, wherein one end of the insulating cylinder is connected to a seal cover. An outgoing line base is arranged at the left end inside the upper cavity, a pair of static conducting bases which are arranged at intervals and connected with each other are arranged in the middle, and a grounding base is arranged at the right end inside the upper cavity. The static conducting base at the left end is partially embedded in the left end inside the lower cavity. A screw rod for rotary positioning is arranged in the upper cavity, one end of the screw rod extends out of the seal cover, the screw rod is in threaded connection with a dynamic touch sleeve which is in contact match with the outgoing line base, the static conducting bases, and the grounding base and forms three conducting stations. A vacuum arc-extinguishing chamber is arranged in the lower cavity, the static contact of the vacuum arc-extinguishing chamber is connected to the static conducting base at the left end, the outer end of the dynamic contact is provided with soft connection and is fixedly connected with the left end of an insulating pull rod, the soft connection is connected with one end of a lower outgoing line rod fixedly sealed at the lower part of the insulating cylinder, and the right end of the insulating pull rod movably extends out of the seal cover. The combined solid encapsulated pole is small in size and relatively convenient and reliable to mount and use, and is suitable for being used as switch equipment.

The invention relates to a high speed railway subgrade compaction index lossless calculating method. On the premise that a built subgrade is not damaged, compaction indexes including K, K30, EVd and the like inside the subgrade are effectively obtained. The method includes the following steps that (1) heavy dynamic touch testing is developed in the center of a subgrade face layer in the vertical direction, and the hammering number N63.5 at different vertical depths H below the subgrade face layer are measured; (2) the subgrade compaction indexes including K, K30 and EVd are determined according to the following formula, and please see the specification for the formula; and (3) holes formed due to the heavy dynamic touch testing in the step (1) is subject to cement mortar or medium-coarse sand backfill compaction.

A method and apparatus configured to control the level of detailed information displayed for a selected area using a dynamic touch interaction in a mobile terminal including a touch screen, are provided. The apparatus include a memory that stores contents to be output through the touch screen as data, a touch interaction module that analyzes a user's touch input through the touch screen and recognizes a stipulated touch interaction, and a control unit that controls an overall operation of the apparatus according to the user's input through the touch screen. The control unit also controls the level of subordinate detailed information displayed in an area, which is designated by the user through a stipulated touch input, to be displayed when the stipulated touch input is recognized through the touch interaction module, based on the data stored in the memory.

A device, having a touch screen display, performs a mutual capacitance scan of rows and columns of an array of capacitive touch sensors associated with the touch screen display. The device selects a subset of the rows, and a subset of the columns, of the array of capacitive touch sensors, and performs a self capacitance scan of the selected subset of the rows, and the selected subset of the columns, of the array of capacitive touch sensors based on results of the mutual capacitance scan. The device identifies an accidental or false touch input on the touch screen display based on results of the self capacitance scan.

A method, and apparatus are provided for implementing magnification and extension of keypads using a dynamic touch screen. The dynamic touch-screen generating device includes a processor coupled to a projector for generating and projecting an image onto a surface, and a camera for detecting a user activity on the projected image. The dynamic touch-screen generating device identifies a user selection and applies the identified user selection to an associated functional device, such as a cellular phone, PDA, or GPS navigator.

Provided is a touch control device with a dynamic touch sense, comprising a display panel for proving image display function; a first conducting layer arranged on an upper layer of the display panel and including at least one first area; and a second conducting layer arranged on an upper layer of the first conducting layer and including at least one second area corresponding with the first area, wherein the first area and the second area possess potentials with a same polarity so that polarities of the first area and the second area mutually repel to heave upwards and the surface of the touch control device forms dynamic pressure sense.

An intelligent interactive transparent display glass system comprises a dynamic touch control display assembly, a data processing module and a projector. The dynamic touch control display assembly comprises a front-side transport substrate layer, a developing film layer, a light modulation film layer and a back-side transparent substrate layer which are fit successively, the periphery of the layers are fixed by a frame into an integrated structure, the side, close to the front-side transport substrate layer, of the frame is provided with pairs of infrared devices, an infrared network structureis cut to generate an electric signal, the electric signal is converted and then transmitted to the projector, and the project projects data on the back-side transparent substrate layer to realize dynamic projection. Technologies including infrared touch screen induction, perspective imaging and electric control light modulation are used in an integrates manner, and the disadvantages that a traditional projection cloth has a single imaging function, a large screen is expensive, and a present transparent display screen cannot realize interaction or haze adjustment are overcome.

The invention discloses a relay and electromagnetic switch integrated type long-service life combination switch for an automobile, which is in relay and electromagnetic switch two-in-one design and has good performance, low production cost and long service life. The relay and electromagnetic switch integrated type long-service life combination switch comprises a shell, a bakelite cover assembly, relay terminals and electromagnetic switch terminals, wherein the bakelite cover assembly is arranged at the opening part of the shell; the relay terminals are arranged at two sides of the opening part of the shell; the electromagnetic switch terminals are arranged on the bakelite cover assembly; a relay assembly and an electromagnetic switch assembly are respectively arranged at the middle position and the tail position in the shell, and a baffle plate is arranged between the relay assembly and the electromagnetic assembly; the electromagnetic switch assembly comprises electromagnetic coil assemblies fixedly arranged on the inner wall of the shell, a movable iron core assembly movably arranged in an inner ring of the electromagnetic coil assembly and a rod body arranged on the axis of the movable iron core in a penetrating way; one end of the rod body penetrates through the baffle plate and the relay assembly and extends to the bakelite cover assembly, and the end part of the rod body is provided with an electromagnetic dynamic touch plate; the rod body between the movable iron core assembly and the baffle plate is also provided with a reset spring in a sleeving way.

The invention relates to a high speed railway subgrade compaction index lossless calculating method. On the premise that a built subgrade is not damaged, compaction indexes including K, K30, EVd and the like inside the subgrade are effectively obtained. The method includes the following steps that (1) heavy dynamic touch testing is developed in the center of a subgrade face layer in the vertical direction, and the hammering number N63.5 at different vertical depths H below the subgrade face layer are measured; (2) the subgrade compaction indexes including K, K30 and EVd are determined according to the following formula, and please see the specification for the formula; and (3) holes formed due to the heavy dynamic touch testing in the step (1) is subject to cement mortar or medium-coarse sand backfill compaction.

The invention discloses a push-twist type microswitch oiler. The push-twist type microswitch oiler comprises a push-twist type microswitch assembly, a gear set stirring assembly and a feeding device,wherein the gear set stirring assembly is connected with the push-twist type microswitch assembly, the push-twist type microswitch assembly is connected with the feeding device, the push-twist type microswitch assembly comprises a push-twist assembly, a spring assembly and a dynamic touch block, the push-twist assembly is connected with the spring assembly, the spring assembly is connected with the dynamic touch block, the dynamic touch block is connected with the feeding device, the gear set stirring assembly makes the dynamic touch block dynamically move to drive the feeding device to perform feeding and refueling through a squeezing push-twist assembly and the spring assembly. The push-twist type microswitch oiler has the advantages that the structure is simple, the combination of a microswitch and the feeding device is utilized, not only can the raw materials be saved, but also rapid trace feeding can be carried out.

The invention provides a photographic device with a dynamic touch screen shutter and a method thereof. The photographing device includes: a sensor for providing an electronic signal corresponding to an image; a memory for storing the image; a touch screen having an area for displaying the image and receiving touch input, the area having at least one sub- area; and a processor configured to: display the image in the area; when the at least one sub-area contains neither icons nor graphical controls for controlling the camera device, when in the area When a touch input is received in the memory, execute a shutter command for storing the image in the memory; and when the at least one sub-area contains at least one of the icon and the graphic control, when in the area executing a shutter command for storing the image in memory when a touch input is received in but not in the at least one sub-area.

A touch device with dynamic touch, including: a display panel used to provide an image display function; a first conductive layer located on the upper layer of the display panel, the first conductive layer including at least a first region; and a second conductive layer disposed on the upper layer of the first conductive layer, the second conductive layer including at least one second region corresponding to the at least one first region; wherein the first region and the second region have The potentials of the same polarity cause the second region and the first region to repel each other in polarity and bulge upward to form a dynamic pressing touch feeling on the surface of the touch device.

Fuel dispensers, systems, and methods are provided for allowing users to dynamically generate custom fuel blends (also referred to as fuel blends). In an exemplary embodiment, a fuel dispenser is provided having an interactive display, such as a touch screen display, and a data processor capable of performing operations that enable one or more of the following: replacement of PTS buttons, integration of Additive pumps to combine fuel blends and additives, mix fuel and additives, calculate fuel blend prices, and allow users to customize fuel blends. Applying interactive displays and control modules and other components can help to allow users to create customized fuel blends while minimizing changes to standard communication protocols associated with components such as, for example, point of sale (POS), forecourt controllers and a fuel controller capable of controlling the dispensing of fuel.

This invention relates to a relay keeping two-way stable control composed of a seesaw armature, two electromagnets, a dynamic touch point and a static touch point, in which, when the magnet of the dynamic touch point is switched on, the armature is pull down, the two touch points touch and the working circuit is closed, when the magnet is switched off, the armature keeps the original state so long as the other magnet is not turned on to realize two-way stable control.

The invention provides a dynamic touching MURA compensation method and an LCD system thereof; the method comprises that: a touching position signal is generated according to a touching position of a touching event of an LCD screen; a signal compensation process of a pixel brightness signal relative to the touching position of an original pixel data is executed according to the touching position, thereby generating a pixel data to be displayed; and the pixel data to be displayed is displayed on the LCD screen. Moreover, the invention discloses an LCD system provided with dynamic touching MURA compensation, which comprises an LCD screen, a touching signal analyzing module, a display data processor, a dynamic MURA compensation unit and a source electrode driver.

The invention provides a dynamic touch effect generation method and device, equipment and a storage medium. An event needing to realize touch is identified by detecting the triggering condition of the event, so that a non-touch event can be avoided and false triggering is reduced; by performing feature recognition on the trigger event, the required event feature can be extracted, the event feature and the touch feature are matched according to a preset rule to generate the standardized touch effect file, so that the matching efficiency is improved; and the standardized touch effect file is adaptive to the electronic product, so that for different trigger events, the converted standardized touch effect files corresponding to the trigger events are also suitable for electronic products, and popularization is facilitated; the dynamic touch effect is generated by calling the basic touch effect and combining the converted standardized touch effect files, and the touch effect does not need to be stored additionally; and different corresponding dynamic touch effects are generated according to different events, so that the user experience is improved.

A dynamic touch user interface system includes a touch-input interface, one or more visual indicators, and a plurality of sensors. The touch-input interface has a reference surface that covers one or more touch elements. The touch elements define an active area that allows user communication with a computer through touch. The active area is relocatable along the reference surface in response to detected circumstances. The visual indicators visually identify a location of the active area. The sensors detect the circumstances affecting a relocation of the active area.