1271 results about "Finger touch" patented technology

Electronic image displays, of lists that extend beyond the vertical display dimension of the display screen, are displaced in the vertical direction by touching the screen with a finger and then moving the finger in the desired direction on the screen. In a natural manner, the initial speed of displacement of the displayed image corresponds to the speed of motion of the finger along the screen. When the user's finger is disengaged from the screen, the system senses the disengagement and thereafter allows the vertical displacement speed of the image to decrease at a controlled rate. When it is desired to stop the motion of the image at a given point, or to make a selection from the displayed image, the system measures the length of time that the finger is in contact with the screen and the distance that the finger is moved during that time, to determine if a selection is desired or if it is desired only to stop displacement of the image. That is, a short term contact with the screen, say 500 ms or less, accompanied by little or no displacement on the screen, can be identified as an intended selection, while a longer contact with little or no accompanying displacement can be interpreted as being intended to stop the motion of the image without making a selection.

A common electrode 43 for display, which is originally provided in a liquid crystal display element, is also used as one (drive electrode) of a pair of electrodes for a touch sensor, and the other (detection-electrode-for-the-sensor 44) of the pair of electrodes is newly formed. An existing common drive signal Vcom as a drive signal for display is used in common for a drive signal for the touch sensor. A capacitance is formed between the common electrode 43 and the detection-electrode-for-the-sensor 44, and touch detection is performed by utilizing a change of this capacitance caused by a finger touch of a user. Thus, a display device with a touch sensor is also applicable to a mobile device in which electric potential of the user is inconstant in many cases. The newly-provided electrode is only the detection-electrode-for-the-sensor 44, and it is unnecessary to newly prepare a drive signal for the touch sensor. Therefore, the configuration is simple.

In a method for scroll bar control on a touchpad, the fingers touching on the touchpad are detected to start up and terminate a scroll bar control function. In the scroll bar control function, the movement of the finger or fingers touching on the touchpad is detected for scrolling on a window, and the vertical distance and the horizontal distance of the movement are evaluated for determining the scrolling amount of a vertical scroll bar or a horizontal scroll bar of the window.

For user authentication, finger touch information from a user is accepted via a touch sensitive element, the finger touch information including at least a time series of finger touch samples that define a trace of the user's signature, and each of the finger touch samples including centroid coordinates and non-centroid information, the non-centroid information including at least one of (A) a shape of the finger touch sample, (B) a size of the finger touch sample, (C) an orientation of the finger touch sample, and (D) characteristics of a multi-touch finger touch sample. A similarity of such finger touch samples with previously entered and stored finger touch samples is determined and compared with a threshold for purposes of user authentication.

A highly reliable electrostatic-capacitive-type display device with a touch panel which allows a user to perform finger touch inputting and exhibits excellent detection sensitivity is provided. A transparent conductive film is formed above a back surface of an electrostatic-capacitive-type touch panel so as to block noises generated by a display device. A conductive member is provided to supply a voltage to a transparent conductive film formed above a back surface of the touch panel. An electrode which is formed on the electrostatic-capacitive-type touch panel is divided in accordance with a ratio between the number of X electrodes and the number of Y electrodes. A floating electrode is formed in a gap defined between the electrodes so as to adjust an area of the electrode. Due to the shrinkage of the area of the electrode, it is possible to lower a noise level to a level equal to or lower than a signal level. Accordingly, an S / N ratio is increased thus enhancing detection sensitivity. Further, lines are branched on a flexible printed circuit board and intersecting lines are formed on a back surface of the flexible printed circuit board, and the intersecting lines are made to orthogonally intersect with lines formed on a front surface of the flexible printed circuit board thus lowering line capacitance.

A digital system that may be used by children two years old and older. The digital system is contained in a child-proof case and has an upward-facing display with a touch-sensitive screen that is within easy reach of a child. Other I / O devices include proximity and motion sensors and a microphone, and there is also a loudspeaker. When a proximity sensor senses someone in the neighborhood of the system, it displays images on the display. A child may manipulate the images by touching them on the touch screen. Manipulations include selecting an image by touching it, “dragging” the selected image by moving the finger touching the image across the screen and “dropping” the image by lifting a finger from it, moving a selected image by touching another location on the screen and thereby causing the selected image to move to the touched location, removing an image from the screen by “throwing” it, i.e., moving it above a threshold speed, and modifying the image by tapping it twice and then moving the finger in a horizontal or vertical direction on the screen. The direction in which an image is thrown may further determine what the thrown image is replaced with. The manipulations are used to in activities such as shape matching, puzzle assembly, assembly of a face out of parts, and hide-and-go-seek.

A process is disclosed for displaying an image on a display screen and recognizing a user's input by the user's finger touch on a touch screen, the process including: a first step of displaying an original image; a second step of forming a screen pad, such that a reference image, which is a reduced duplicate of the original image, is displayed on the screen pad within the display screen, such that the reference image is overlaid with the original image, in a translucent mode that renders the original image visible through the reference image, or an opaque mode where the original image is not visible. The reference image is obtained by reducing the original image with or without image simplification. A third step, in response to the user touching the screen pad, detects finger position on the screen pad, and recognizes the user's input based on the detected finger position.

An approach is provided to join graphical user interface objects into a group. A request is received at a touch-enabled display screen to join a first graphical user interface object with a second graphical user interface object. The request is from a user of the system. The first and second graphical user interface objects are then associated with each other. The first and second graphical user interface objects are displayed on the touch-enabled display screen adjacent to each other and a visual indicator is also displayed near the objects that indicates that the objects have been joined in a group.

A process is disclosed of operating a user interface device configured to display an image on a display screen and enable user input by a user's finger touch on a touch screen in association with the displayed image, the process including: after the user starts a finger touch on the touch screen, if the user holds the finger at a substantially same location for a duration equal to or longer than a predetermined duration, initiating stationary displaying to display the image stationarily on the display screen, despite any later finger-slide motions on screen; and, after the stationary displaying starts, if a match is made between the finger's contact point on the touch screen and a location of a desirable graphical object included in the image displayed on the display screen, determining that the user has provisionally selected the object.

A touch system comprises a touch surface and at least one camera acquiring images of the touch surface. A pointer contact data generator generates pointer position data in response to pointer contact with the touch surface, the pointer position data representing where on the touch surface pointer contact is made. A processor communicates with the at least one camera and the pointer contact data generator. The processor analyzes acquired images to determine the type of pointer used to contact the touch surface, and processes the pointer position data in accordance with the determined type of pointer. In the preferred embodiment the processor distinguishes between pointer tip touch surface contacts, pointer backend touch surface contacts and finger touch surface contacts. A writing function is invoked in response to pointer tip touch surface contacts. An erase function is invoked in response to pointer backend touch surface contacts. Mouse events are generated in response to finger touch surface contacts.

A method and medium for variably arranging a content menu and a display device using the same are disclosed. The method for variably arranging a content menu includes a) detecting position information of a user's finger touched with a touch screen, b) setting an attention area in accordance with the detected position information, and c) arranging menu icons in accordance with the set attention area. The display device includes a position information detection unit for detecting position information of a user's finger touched with a touch screen, an area setting unit for setting an attention area in accordance with the position information detected by the position information detection unit, and a menu control unit for arranging menu icons in the attention area set by the area setting unit. Since the menu icons are arranged in the area near the user's finger by sensing the position of the user's finger touched with the touch screen, the menus can be manipulated efficiently and variably.

The present invention relates to an electronic cigarette case, including a case body, a frame module disposed in the case body, a battery module, and a printed circuit board (PCB) module. The electronic cigarette case further has a touch control method for performing at least a predefined function. The touch control method includes: defining a touch zone on the case body, and providing a touch control module in the case body. The at least a predefined function is performed to indicate an electric quantity of a battery when a finger touch gesture is detected on the touch zone by the touch control module. The electronic cigarette case is durable, waterproof and dustproof, rapidly response, space saving, and easy to use.

A process is disclosed of scrolling an image on a user interface device configured to display the image on a display screen and enable a user to input with the user's finger touch on a touch screen in association with the displayed image, the process including: scrolling the image in response to the finger's drag motion on the touch screen; and, in response to an event occurring in which, after the drag motion ended, the finger is held in touch with the touch screen at substantially the same location as where the finger was located when the drag motion ended, without releasing from the touch screen, further scrolling the image to perform follow-up scrolling, after experiencing an idle period or not.

A display device having a highly reliable electrostatic capacitive type touch panel which allows finger touch inputting and possesses excellent detection sensitivity is provided. With respect to X electrodes and Y electrodes which are formed on an electrostatic capacitive type touch panel, either one of the X electrodes and the Y electrodes is divided corresponding to a ratio between the number of X electrodes and the number of Y electrodes, and a floating electrode is formed in gaps formed along with the reduction of area of the electrode thus adjusting the area of the electrode. Due to the contraction of the area of the individual electrode, a noise level can be lowered more compared to lowering of a signal level and hence, an S / N ratio can be increased thus enhancing the detection sensitivity. Further, a line is branched on a flexible printed circuit board, intersecting lines are formed on a back surface of the flexible printed circuit board, and the intersecting lines are arranged to orthogonally intersect with lines formed on a front surface of the flexible printed circuit board thus lowering line capacitance.

A method of controlling a mobile terminal, and which includes displaying, on a touch screen display of the mobile terminal, an operation screen corresponding to a current operating mode executing on the mobile terminal; detecting, via a detecting device, a touch input on the touch screen display of the mobile terminal; determining, via a controller on the mobile terminal, a first finger characteristic describing a finger touching the touch screen display and a second finger characteristic describing the finger touching the touch screen display that is different than the first finger characteristic; performing, via the controller, a first operation relevant to the current operating mode based on the determined first finger characteristic; and performing, via the controller, a second operation relevant to the current operating mode based on the determined second finger characteristic.

The mobile communication device is for use as a cell phone, as a wireless identity authentication device with other electronic devices (with cell phones, computers, and ATM's), and as a headset in the form of an earphone, an eye-covering, or a head covering for audio communication with a central processor, another mobile terminal a cell phone, or a pda. The mobile communication device is hands-free being worn on or near the face, and only requires a finger touching for bimodal identity authentication. An audio receiver is compatible with the ear of the user and a microphone transmits words spoken by the user, electronically therethrough. A fingerprint sensor is mounted and positioned within the device. When user authentication is required, the user is prompted to touch the fingerprint sensor, and said fingerprint data is compared with fingerprint images of authorized users. In another aspect of the invention, mobile communication device is an eye-covering, a head covering, or an identification badge including a fingerprint sensor and a processor and is used for wireless authentication of the user.

A haptic display includes at least one haptic device that can give tactile feedback instead of visible feedback. Each of the haptic devices converts a signal from a signal producing unit into force or tactile pattern. The haptic device does not require a large mass, so that it can be provided on almost any portion or part within the body of a mobile apparatus. For example, the haptic device can be embedded under a touch panel display that constitutes both input and output device. By providing the haptic devices under respective menu / function button areas displayed on the touch panel display, it is possible to stimulate the specific button in response to the user-input-operation, thereby directly providing the tactile feedback to the user's finger touching the corresponding button.

A device (1) for data entry into an electronic device such as a computer, personal digital assistant (PDA) or mobile phone is provided, comprising thumb and finger touch pads (5,3), arranged on the device in a pattern corresponding to the natural thumb and finger tip positions of the thumb and fingers when relaxed; each finger pad (3) extending in backward and forward directions; the thumb pad (5) extending in left and right directions; position detecting means to detect the position of the thumb and each finger tip along each of the thumb and finger pads (5,3); finger data selection means to select for each finger a character or instruction corresponding to the detected position of a finger tip when in contact with a finger pad (3); thumb option selection means to select an option corresponding to the detected position of the thumb when in contact with the thumb pad (5); selection display means to display the character or instruction selected on each finger pad (3) according to the option selected on the thumb pad (5); and data entry detecting means to detect lifting of a finger from a finger pad (3) and enter a character or instruction into the electronic device based on the character or instruction selected on the finger pad (3) for which lifting is detected and based on the option selected on the thumb pad (5). Instead of touch pads, pressure cups can be used.

Disclosed is a remote input method using a fingerprint recognition sensor. A main device activates a fingerprint input mode according to a user's request, and displays a key input unit, menu images and an indicator corresponding to the fingerprint input mode. A remote input device having the fingerprint recognition sensor generates fingerprint data corresponding to the finger touching method in real time, and sends the generated fingerprint data to the main device through a short range wireless communication module. When receiving the fingerprint data, the main device analyzes the type of fingerprint included in the fingerprint data based on the previously stored fingerprint information. The main device also analyzes the user input pattern according to the type of fingerprint and the fingerprint data reception type. Consequently, the main device implements a preset function corresponding to the analyzed user input pattern. The user can control various functions available in the main device using the remote input unit.

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.

A method for operating a touch-control lock system according to a gesture or a figure, comprising steps of: (a) sensing a designated gesture or figure while a user uses his finger touches a touch-control panel of the touch-control lock system and outputting an electronic signal according to the designated gesture or figure; (b) processing the electronic signal by a micro-control unit and judging whether or not the electronic signal is a valid input by the micro-control unit; (c) determining whether or not the designated gesture or figure is valid by the micro-control unit; (d) loading correct data for the designated gesture or figure stored in a touch-control instruction processing unit and comparing the correct data with the designated gesture so as to determine if the designated gesture or figure is valid; and (e) outputting a control command to an application apparatus to react correspondingly.

A device and method for providing a user interface using information are provided. The device includes a display unit, a sensor and a controller. The display unit displays at least one graphic user interface (GUI). The sensor generates a sensor signal according to a user's finger touch input. The controller receives the sensor signal from the sensor, identifies a touch area and an adjacent area based on the received sensor signal, generates touch finger shape-based information according to the identified touch area and the identified adjacent area, and controls the display unit to display the GUI according to the generated finger shape-based information.

The invention discloses a touch input control method and device. The method comprises the steps of identifying the edge touch information of the edge area of a terminal touch screen; according to the touch shape corresponding to the edge touch information, judging whether the edge touch information comprises edge palm touch information generated by palm touch operation, and shielding the edge palm touch information if the edge touch information comprises the edge palm touch information. According to the touch input control method and device, the edge palm touch information contained in the edge touch information can be judged according to the touch shape corresponding to the edge touch information, just mistaken input touch information generated by palm touch operation is shielded, correct touch information generated by finger touch operation in the touch area is kept, and therefore the touch input accuracy can be improved.

An electronic device is provided. The electronic device includes: a touch screen having a sensing array with a plurality of sensors and a display panel having a displaying area; and a processor. The sensing area of the sensing array is smaller than or equal to the displaying area. The processor determines whether a user's finger touches an icon displayed on the display panel, wherein the icon corresponds to an application. When the processor determines that the user's finger touches the icon, the electronic device controls a first sensing area of the sensing array corresponding to a first displaying area of the icon to enter a fingerprint sensing mode to capture a fingerprint image of the user's finger for fingerprint recognition. When the processor determines that fingerprint recognition is approved, the processor activates the application corresponding to the icon.

A device and method for providing a user interface using information is provided. The device includes a display unit, a sensor and a controller. The display unit displays at least one graphic user interface (GUI). The sensor generate sa sensor signal according to a user's finger touch input. The controller receives the sensor signal from the sensor, identifies a touch area and an adjacent area based on the received sensor signal, generates touch finger shape-based information according to the identified touch area and the identified adjacent area, and controls the display unit to display the GUI according to the generated finger shape-based information.

The invention provides a touch detection method of a touch sensor, which relates to the technical field of touch control. The method comprises the following steps that the touch sensor is set to a mutual capacitance mode and a self-capacitance mode alternately; rows and columns of a capacitance matrix of the touch sensor are scanned and detected; when a touch condition is preliminarily judged as multi-finger touch according to a scanning and detection result in a mutual capacitance mode, data obtained by sampling in the self-capacitance mode is further subjected to envelopment analysis; whether the touch condition in the mutual capacitance mode is single-finger touch or the multi-finger touch is judged; if the touch condition is the single-finger touch, a touch coordinate is output; and if the touch condition is the multi-finger touch, a plurality of touch coordinates are output. The invention also provides a touch detection system and a touch control terminal of the touch sensor. With the adoption of the touch detection method, the touch detection system and the touch control terminal, the accuracy of a touch detection result of the touch sensor, particularly the accuracy of the detection result when the single-finger touch and the multi-finger touch are required to be distinguished during the course that the touch control terminal is subjected to large area touch in a suspension state, is improved.

A method of controlling a mobile terminal, and which includes displaying, on a touch screen display of the mobile terminal, an operation screen corresponding to a current operating mode executing on the mobile terminal; detecting, via a detecting device, a touch input on the touch screen display of the mobile terminal; determining, via a controller on the mobile terminal, a first finger characteristic describing a finger touching the touch screen display and a second finger characteristic describing the finger touching the touch screen display that is different than the first finger characteristic; performing, via the controller, a first operation relevant to the current operating mode based on the determined first finger characteristic; and performing, via the controller, a second operation relevant to the current operating mode based on the determined second finger characteristic.

An electronic device includes a touch-sensitive surface, for example a touch pad or touch screen. The user interacts with the touch-sensitive surface, producing touch interactions. The resulting actions taken depend at least in part on the touch type. For example, the same touch interactions performed by three different touch types of a finger pad, a finger nail and a knuckle, may result in the execution of different actions.