883 results about "Scroll wheel" patented technology

A touch screen interface including a display screen, a touch sensor device, and a processor coupled to the display screen and the touch sensor is described. The touch sensor device is adapted to sense object motion in a sensing region that overlaps at least part of the display screen. The processor is adapted to cause a scroll wheel that indicates a scrolling path to appear on the display screen selectively, such as in response to the touch sensor sensing object motion that corresponds to a scrolling initiation gesture. The processor is further adapted to cause scrolling on a display screen selectively, such as in response to the touch sensor sensing subsequent object motion along the scrolling path after the touch sensor has sensed the object motion corresponding to the scrolling initiation gesture.

A system and method for providing voice prompts that identify task selections from a list of task selections in a vehicle, where the user employs an input device, such as a scroll wheel, to activate a particular task and where the speed of the voice prompt increases and decreases depending on how fast the user rotates the scroll wheel.

A system and method are presented for aggregating and displaying information that relates to items in an engineering design. A system for designing engineering projects filters components of interest to a user, then collects data pertaining to the components from a set of databases that may be associated with mutually incompatible applications. The system presents, in a simple manner, an integrated display of the component properties and visual representations of the filtered components, both in isolation and in context. Multiple filtered components may be scrolled using a scrolling device such as a mouse wheel. The visual representations may be cropped with a resizable crop box, and non-selected components outside the crop box may have varying levels of opacity.

The system and method of the present invention is directed to emulating and configuring any of a plurality of electronic input devices. A system in accordance with one embodiment of the present invention comprises an interface and an emulator. The interface is for selecting and configuring an electronic input device from a plurality of electronic input devices, and the emulator is for emulating the electronic input device. Preferably, the plurality of electronic input devices comprise any two or more of a scroll wheel, a mouse, a joy stick, a steering wheel, an analog button, and a touch bar. Also in a preferred embodiment, the interface is an Application Programming Interface (API) and the emulator comprises a finger swipe sensor for receiving user input.

A system for and method of illuminating a contact (or touch) device such as a fingerprint sensor are disclosed. In an exemplary system, a touch sensor system has a surface or contact area and comprises a substantially transparent molding positioned over the contact area and a dynamic illuminator positioned to show through the molding. The dynamic illuminator is for indicating a status of the touch sensor system, such as power on, standby, error, low power, an input mode for receiving user input, or a selected operating mode. The touch sensor system includes any one of a fingerprint sensor, a miniature joystick, a touch-sensitive navigation disc, a touch-sensing navigation pad, an N-way pressure-sensitive directional control, to name a few touch sensor devices. In one embodiment, when the touch sensor comprises a fingerprint sensor, the operating mode is for emulating an input device such as a scroll wheel, a push button, a steering wheel, a joy stick, a pressure button, and a mouse. The operating mode also includes an authentication mode for authenticating an identity of a user. Preferably, the dynamic illuminator includes light sources and multiple light channels, colored or not, that are configured to be illuminated in multiple configurations, where each configuration corresponds to a status of the touch sensor system.

Techniques for editing a list of items are disclosed and may be used advantageously in portable devices without the drag-and-drop utility. According to one aspect of the present invention, a highlighting bar is provided to facilitate the selection of the item(s), the selected item(s) are then moved to a desired position, and released thereto to produce an edited list, all of which are achieved by using a finger pointing sensor (e.g., a scroll wheel) and one or more designated keys or buttons.

A system and method of the present invention emulates electronic input devices such as a steering wheel, a mouse, a joystick, a navigation bar, a scroll wheel, and a pressure-sensitive button. The method comprises swiping a finger on a swipe sensor, calculating a difference between a first position of the finger on the swipe sensor and a second position on the swipe sensor, and translating the difference into a plurality of sets of signals. Each set of signals is used to emulate the signals generated by one of the electronic input devices. The method thus uses a single swipe sensor to emulate multiple electronic input devices. In a preferred embodiment, the system is used to control a display on a portable electronic device is coupled to or forms part of the portable electronic device.

Various x-y input devices are disclosed that are adapted to allow a user to hold and operate the input device with a stress-reducing, open grip posture with the thumb pointing forward and on top of the device. One preferred embodiment discloses an input device for a computer comprising an x-y input sensor (such as a touchpad) positioned perpendicular to the thumb such that the user provides input with the thumb tip by using pivotal movement of the thumb. Various stress-reducing zero force touch switches are disclosed including zero force touch switches that can be adjusted to accommodate variations in user finger length. The mode of x-y cursor control can be altered through the use of x-y input sensor perimeter inputs. One preferred embodiment discloses a thumb actuated scroll select touch switch that alters the response to actuation of the finger actuated zero force touch switches from mouse button input to scroll wheel input. A unique fin-shaped feature of one preferred embodiment stabilizes the device within the relaxed hand and adapts the device to fit a range of user hand sizes.

A continuously variable transmission is disclosed for use in rotationally or linearly powered machines and vehicles. The transmission provides a simple manual shifting method for the user. Further, the practical commercialization of traction roller transmissions requires improvements in the reliability, ease of shifting, function and simplicity of the transmission. The present invention includes a continuously variable transmission that may be employed in connection with any type of machine that is in need of a transmission. For example, the transmission may be used in (i) a motorized vehicle such as an automobile, motorcycle, or watercraft, (ii) a non-motorized vehicle such as a bicycle, tricycle, scooter, exercise equipment or (iii) industrial equipment, such as a drill press, power generating equipment, or textile mill.

A system and method of the present invention emulates electronic input devices such as a steering wheel, a mouse, a joystick, a navigation bar, a scroll wheel, and a pressure-sensitive button. The method comprises swiping a finger on a swipe sensor, calculating a difference between a first position of the finger on the swipe sensor and a second position on the swipe sensor, and translating the difference into a plurality of sets of signals. Each set of signals is used to emulate the signals generated by one of the electronic input devices. The method thus uses a single swipe sensor to emulate multiple electronic input devices. In a preferred embodiment, the system is used to control a display on a portable electronic device is coupled to or forms part of the portable electronic device.

An electronic device that includes a display screen and a scroll wheel coupled to the display screen by a processor. The scroll wheel includes a rotational input component for directing movement of a navigational indicator on the display screen and a depressible input component for inputting a character for display on the display screen.

A mouse-type mobile phone comprises a phone body and an upper lid, wherein the phone body has a battery cover on the backside, an optical reading device on one side of the battery cover and a push cover mounted above the optical reading device. The push cover is a power switch to enable or disable the mouse function. Several mouse clicks and a scroll wheel are mounted on one side of the display monitor of the upper lid. A chip module structure comprises a message transmission interface, a central processing unit and a human-based interface and apparatus, wherein the phone body can be wirelessly or wiredly coupled with a computer via the message transmission interface. The human-based interface and apparatus has a mouse device unit and several mouse clicks coupled with the central processing unit so that a control signal can be transmitted to the computer.

A continuously variable transmission is disclosed for use in rotationally or linearly powered machines and vehicles. The transmission provides a simple manual shifting method for the user. Further, the practical commercialization of traction roller transmissions requires improvements in the reliability, ease of shifting, function and simplicity of the transmission. The present invention includes a continuously variable transmission that may be employed in connection with any type of machine that is in need of a transmission. For example, the transmission may be used in (i) a motorized vehicle such as an automobile, motorcycle, or watercraft, (ii) a non-motorized vehicle such as a bicycle, tricycle, scooter, exercise equipment or (iii) industrial equipment, such as a drill press, power generating equipment, or textile mill.

A scroll wheel assembly includes a rotatable member. Encoded rotation of the rotating member causes scrolling of an image on a display screen along an axis. An actuator is located within the rotational member. Pressure on different parts of the actuator causes scrolling of the image in opposing directions along a second axis. Pressure upon additional parts of the actuator can provide additional screen functions. Functions and commands caused by manipulation of the rotatable member or actuator may also be programmable.

A continuously variable transmission is disclosed for use in rotationally or linearly powered machines and vehicles. The transmission provides a simple manual shifting method for the user. Further, the practical commercialization of traction roller transmissions requires improvements in the reliability, ease of shifting, function and simplicity of the transmission. The present invention includes a continuously variable transmission that may be employed in connection with any type of machine that is in need of a transmission. For example, the transmission may be used in (i) a motorized vehicle such as an automobile, motorcycle, or watercraft, (ii) a non-motorized vehicle such as a bicycle, tricycle, scooter, exercise equipment or (iii) industrial equipment, such as a drill press, power generating equipment, or textile mill.

A continuously variable transmission is disclosed for use in rotationally or linearly powered machines and vehicles. The transmission provides a simple manual shifting method for the user. Further, the practical commercialization of traction roller transmissions requires improvements in the reliability, ease of shifting, function and simplicity of the transmission. The present invention includes a continuously variable transmission that may be employed in connection with any type of machine that is in need of a transmission. For example, the transmission may be used in (i) a motorized vehicle such as an automobile, motorcycle, or watercraft, (ii) a non-motorized vehicle such as a bicycle, tricycle, scooter, exercise equipment or (iii) industrial equipment, such as a drill press, power generating equipment, or textile mill.

A continuously variable transmission is disclosed for use in rotationally or linearly powered machines and vehicles. The transmission provides a simple manual shifting method for the user. Further, the practical commercialization of traction roller transmissions requires improvements in the reliability, ease of shifting, function and simplicity of the transmission. The present invention includes a continuously variable transmission that may be employed in connection with any type of machine that is in need of a transmission. For example, the transmission may be used in (i) a motorized vehicle such as an automobile, motorcycle, or watercraft, (ii) a non-motorized vehicle such as a bicycle, tricycle, scooter, exercise equipment or (iii) industrial equipment, such as a drill press, power generating equipment, or textile mill.

A defined class of input devices is disclosed, consisting of a graspable body in two forms. Both forms include a scroll wheel-style mechanism that functions as a button from multiple directions, both include an apparatus providing six degrees of gestural freedom in three dimensions, and both provide for the wireless transmission capacity of these inputs, user data, audio, and other communications for the purpose of carrying credentials among various host electronic devices, and for manipulating and navigating an associated user interface for hierarchy visualization of structured information to be displayed on those host devices.

A wheel input device and a method thereof enable a four-way key stroke, space saving, effective key arrangement, and suitability for existing operating systems or application programs by using a scroll wheel. A direction change button may be used to control the directional property of the scroll wheel. By rotating the scroll wheel in the up / down direction after clicking the direction change button, a cursor on a screen display unit moves in the right / left direction differently from its initial function. By clicking the direction change button once again, the function of the scroll wheel returns to its initial function. A specific function may be set for a long click of the direction change button. Alternatively, a click identification unit may be used, instead of the direction change button, to provide a four-way key stroke.

A continuously variable transmission is disclosed for use in rotationally or linearly powered machines and vehicles. The transmission provides a simple manual shifting method for the user. Further, the practical commercialization of traction roller transmissions requires improvements in the reliability, ease of shifting, function and simplicity of the transmission. The present invention includes a continuously variable transmission that may be employed in connection with any type of machine that is in need of a transmission. For example, the transmission may be used in (i) a motorized vehicle such as an automobile, motorcycle, or watercraft, (ii) a non-motorized vehicle such as a bicycle, tricycle, scooter, exercise equipment or (iii) industrial equipment, such as a drill press, power generating equipment, or textile mill.

A continuously variable transmission is disclosed for use in rotationally or linearly powered machines and vehicles. The transmission provides a simple manual shifting method for the user. Further, the practical commercialization of traction roller transmissions requires improvements in the reliability, ease of shifting, function and simplicity of the transmission. The present invention includes a continuously variable transmission that may be employed in connection with any type of machine that is in need of a transmission. For example, the transmission may be used in (i) a motorized vehicle such as an automobile, motorcycle, or watercraft, (ii) a non-motorized vehicle such as a bicycle, tricycle, scooter, exercise equipment or (iii) industrial equipment, such as a drill press, power generating equipment, or textile mill.

A handheld wireless display device, having at least SVGA-type resolution, includes a wireless interface, such as BluetoothrM, WiFi™, Wimax™, cellular or satellite, to allow the device to utilize a number of different hosts, such as a cell phone, personal computer, media player. The display may be monocular or binocular. Input mechanisms, such as switches, scroll wheels, touch pads, allow selection and navigation of menus, playing media files, setting volume and screen brightnesdcontrast, activating host remote controls or performing other commands. The device may include MIM diodes, Hall effect sensors, or other position transducers and / or accelerometers to detect lateral movements along and rotational gestures around the X, Y and Z axes as gesture inputs and movement queues. These commands may change pages, scroll up, down or across an enlarged screen image, such as for web browsing. An embedded software driver permits replicating a high-resolution screen display from a host PC.

An information system for a vehicle includes a computer for handling informational data corresponding to operation of the vehicle. A primary display is connected to the computer in a position to be viewed by a driver of the vehicle for presenting the informational data in multiple, sequential, interactive menu screens. A manual controller mounted on the steering wheel allows input to the computer and manipulation of the primary display through the menu screens. The controller includes a scroll wheel which is oriented so that its rotational axis is parallel to the steering axis. The controller includes a central push button for activating a particular selection highlighted on the primary display. A plurality of category selector buttons operate as mode switches for activating various vehicle system subjects through the information system. The scroll wheel and push button selectors establish an interface for the driver which can be operated intuitively, without taking eyes off the road or releasing the driver's grip of the steering wheel.

A scroll wheel assembly includes a rotatable member. Encoded rotation of the rotating member causes scrolling of an image on a display screen along an axis. An actuator is located within the rotational member. Pressure on different parts of the actuator causes scrolling of the image in opposing directions along a second axis. Pressure upon additional parts of the actuator can provide additional screen functions. Functions and commands caused by manipulation of the rotatable member or actuator may also be programmable.

A method provides computer applications with an integrated means for displaying and interacting with large workpieces, through the use of smaller viewports. In a first mode, the method uses a mouse to position a viewport, and its scroll to adjust its size, in a manner analogous to the way television cameras are panned, tilted, and zoomed. In a second mode, the method controls the position of a screen cursor in a conventional manner. The selection between the first framing mode and the second pointing mode is made by the user depressing the scroll wheel. By integrating framing and pointing, a fast and intuitive method is provided for managing and processing large and unwieldy workpieces such as documents, spreadsheets, drawings, photographs, games, and maps.

A manually operated cylindrical roller is disclosed which facilitates the even application of pressure to the body tissue of a client during massage therapy, including tendons, ligaments, and muscles (e.g. the gluteus maximus, gluteus medius, sartorius, plantaris, and the like). Variations of the disclosed tool comprise inflatable and non-inflatable components, as well as foam components. The disclosed invention relieves sore and achy muscles, helps blood circulation, relieving muscle cramps, loosening tight and knotted muscles, and relieving pressure from the massage therapist's hands.

The invention relates to a fully automatic tape pasting mechanism which is used in the preparation device of the lithium ion battery core, wherein the preparation device comprises a frame. The mechanism of the invention comprises a tape roller, a plurality of roll wheels, a tape-pasting wheel, a first driving device, a second driving device, a tape-pressing component, a tape-clamping component and a tape-cutting component, wherein the tape roller is arranged on the frame and can rotate to release the tape; the roll wheels are arranged on the frame and used to convey the tape; the tape-pasting wheel is used to wind up the tape and convey the cut tapes to the tape-pasting pressing positions of the battery cores to be pasted with the tapes, the tape-pasting angle and direction of the tape-pasting wheel can be adjusted; the first driving device drives the tape-pasting wheel to perform linear motion; the second driving device drives the tape-pasting wheel to rotate at a certain angle; the tape-pressing component is arranged above the tape-pasting wheel and rotates with the tape-pasting wheel; the tape-clamping component is used to clamp the tape and prevent the tape from turning backwards and disconnecting; the tape-cutting component is used to cut the tape on the tape-pasting wheel which is fixed and compressed by the tape-clamping component and the tape-pressing component; and the axial directions of the tape-pasting wheel, the roll wheels and the tape roller are the same and are perpendicular to the same plane.

Methods and apparatus are provided for an intuitive and non-distracting way for a driver of a motor vehicle to access and adjust vehicle system settings. The apparatus comprises a plurality of rotary scroll wheels and a plurality of switches, each of the plurality of switches coupled to and actuable by one of the scroll wheels, and each of the plurality of rotary scroll wheels mounted on a steering wheel rim of the motor vehicle. Preferably, one of the scroll wheels is mounted in an upper right hand quadrant of the steering wheel rim and one is mounted in an upper left hand quadrant. The apparatus further includes a control unit electrically coupled to each of the plurality of switches and configured to cause a motor vehicle function to react to a signal received from at least one of the plurality of switches.

A force feedback wheel is provided on a mouse or other interface device manipulated by a user. A sensor detects a position of the mouse in a workspace and sends a position signal to a connected host computer indicating that position. A rotatable wheel is mounted upon the manipulandum and rotates about a wheel axis, where a wheel sensor provides a wheel signal to the host computer indicating a rotary position of the wheel. A wheel actuator coupled to the rotatable wheel applies a computer-modulated force to the wheel about the wheel axis. The mouse can be a standard mouse or a force-feedback mouse, where forces are applied in the mouse workspace. The host computer is preferably running a graphical environment, where the force applied to the wheel can correspond with an event or interaction displayed in the graphical environment. The wheel can also be included on other devices such as remote controls and radios.