Microsoft Technology Licensing, LLC

Timothy T Brewer

Kenneth R Robertson

Carl T Hellings

Todd E Holmdahl

Lora K McCambridge

Anthony R Claflin

Michael W Van Flandern

Teresa L Kelsey

Daniel S Hoeger

Steven Nabil Bathiche

Kenneth Paul Hinckley

Michael Jack Sinclair

Steven T Kaneko

Randall Edward Aull

Firdosh Kersy Bhesania

Juha P Niemisto

Ryan Yonghee Kim

Eric H Michelman

Hirofumi Yamamoto

Todd G Roshak

Jon B Kimmich

Paul E Henderson, Jr

Eric W Hanson

Michael William John McCracken

James A Andrews

Carl J Ledbetter

Aditha May Adams

Kabir Siddiqui

Samuel H Smith

Gregory R Lee

John Graham Pierce

Paul E Henderson

Alan W McRobert

Jeffrey S Hanson

Brenda L Diaz

Cheryl Jenkins

Miles Richardson

Clark R Cyr

A computer receives data from a keyboard having one or more keys which cause generation of keyboard data that quantitatively describe the relative force applied to those keys. The keyboard data are transmitted in an HID report containing identifiers for one or more keys that have been pressed and force data for each key. The force data may be a multi-bit value quantifying the key force, or a null indicator signaling that the key is not force-sensing. Keyboard data messages are then prepared which identify keys pressed, contain force data, and may indicate whether the force data updates previous force data. Force updates are only provided to application programs registering for key force data. In other aspects of the disclosed subject matter, key repeat messages are automatically generated for a key held pressed by a user. The key repeat messages are generated at a rate controlled by the amount of force applied to the key.

Method for processing data quantifying force applied to one or more keys of a computer keyboard

A computer receives data from a keyboard having one or more keys which cause generation of keyboard data that quantitatively describe the relative force applied to those keys. The keyboard data are transmitted in an HID report containing identifiers for one or more keys that have been pressed and force data for each key. The force data may be a multi-bit value quantifying the key force, or a null indicator signaling that the key is not force-sensing. Keyboard data messages are then prepared which identify keys pressed, contain force data, and may indicate whether the force data updates previous force data. Force updates are only provided to application programs registering for key force data. In other aspects of the invention, key repeat messages are automatically generated for a key held pressed by a user. The key repeat messages are generated at a rate controlled by the amount of force applied to the key.

An ergonomic pointing device, such as a mouse, is coupled to a computer having a visual display device. As a user rotates a roller associated with the mouse, the mouse generates computer signals that are interpreted by an operating system and software applications running on the computer. The signals generated by the roller, together with a given software application, can be used for spatial navigation. In spatial navigation, a user rotates the roller to cause the computer and the visual display to increase or decrease magnification levels of the document on the display. Other models of spatial navigation allow the user to activate a roller switch, depress special function keys on a keyboard and/or move the mouse to pant, automatically scroll or manually scroll through the document.

System and method of adjusting display characteristics of a displayable data file using an ergonomic computer input device

An ergonomic pointing device, such as a mouse, includes a wheel to provide an input signal in addition to X and Y position signals provided by a rotatable ball of a standard mouse. The wheel extends from an upper surface of the pointing device and may be rotated and depressed by the finger of the user, the wheel being positioned and configured to allow a user to activate the wheel while maintaining a finger in a biomechanically neutral position. The mouse is coupled to a computer having a visual display device capable of displaying a data file having adjustable display characteristics. As a user rotates the roller, the mouse generates computer signals that are interpreted by an operating system and software applications running on the computer. The signals generated by the roller, together with a given software application, can be used in spatial navigation. In spatial navigation, a user rotates the roller to cause the computer and the visual display to zoom into and out of the document and thereby display increasing or decreasing magnification levels of the document on the display.

In a method of the present invention, a device message is generated indicating that a touch sensor on an input device has been touched without indicating what location on the touch sensor has been touched. The device message is routed to an application and instructions within the application are executed based on the device message.

Method of interacting with a computer using a proximity sensor in a computer input device

An input device for a computer system includes an exterior surface and a touch sensor located on the exterior surface. The touch sensor is adapted to generate an electrical signal when a user touches the touch sensor. The electrical signal contains touch information that is the same each time the user touches the touch sensor regardless of where the user's touch occurs on the touch sensor. The input device also includes an input generator capable of generating input information sent to the computer system. The input information includes at least a depressible key's state, a depressible button's state, sound information, or movement information.

Proximity sensor in a computer input device

An ergonomic pointing device, such as a mouse, includes a wheel to provide an input signal in addition to X and Y position signals provided by a rotatable ball of a standard mouse. The wheel extends from an upper surface of the pointing device and may be rotated and depressed by the finger of the user, the wheel being positioned and configured to allow a user to activate the wheel while maintaining a finger in a biomechanically neutral position. The wheel and associated structure, as well as the forces required to rotate and depress the wheel, are configured to reduce inadvertent actuation and to provide a user with tactile feedback, thereby allowing the user to accurately and intuitively activate the pointing device without exceeding an acceptable extension and range of motion for the user's finger and wrist. The mouse is coupled to a computer having a visual display device. The computer is capable of displaying a data file such as a word processing or spreadsheet document, where the data file has adjustable display characteristics such as size (zoom) or data structure (content). As a user rotates the roller, the mouse generates computer signals that are interpreted by an operating system and software applications running on the computer. The signals generated by the roller, together with a given software application, can be used in at least two ways: spatial navigation and data navigation. In spatial navigation, a user rotates the roller to cause the computer and the visual display to zoom into and out of the document and thereby display increasing or decreasing magnification levels of the document on the display. Other modes of spatial navigation allow the user to activate a roller switch, depress special function keys on a keyboard and/or move the mouse to pan, automatically scroll or manually scroll through the document. In data navigation, the user rotates the roller to view differing levels of content or detail with respect to the document.

System and method of adjusting display characteristics of a displayable

A system for preventing inadvertent wrapping of a cursor generated on a computer display detects the location of the cursor in proximity with a border of the display and determines whether a user actually intends the cursor to wrap to the opposite side of the display. The system considers a variety of factors to determine whether the user actually intends to wrap the cursor. The time for which the user moves the cursor against the border, the distance that the cursor would have moved but for the border, and the velocity or acceleration with which the cursor approaches the border can all be considered by the system in determining whether or not to permit the wrapping of the cursor. The system automatically generates an indicator signal to permit the cursor to wrap from one side of the display to the opposite side. The user can select the size of the border and determine whether the border will have a color different from the normal display background color to visually indicate the location of the border to the user. The system can selectively enable and disable the border in response to a variety of factors. The user can manually generate the indicator signal by activating a command signal input. The system can operate in a graphical environment where a plurality of display windows are shown on the computer display. The system defines a border for each window to prevent the inadvertent wrapping of the cursor.

System and method for computer cursor control

A system and method for minimizing clicks in the operation of a graphical user interface such as the WINDOWS operating environment is disclosed. Provided for minimizing the need for clicking to operate a graphical user interface is a 'Focus' feature, which essentially eliminates the need to click. In particular, the Focus feature eliminates the need to single click on predetermined windows and applications in order to establish a 'focus'. That is, as a user moves a pointer around the screen in Windows, the Focus feature essentially follows the pointer and the equivalent of a single click is sent to objects such as icons or system menus for the desktop environment, such as file manager and program manager in the explorer window of version 3.1, or such as to system menus when the pointer passes over them.

Method and system for activating focus

A system and method for minimizing clicks in the operation of a graphical user interface such as the WINDOWS operating environment is disclosed. The invention emulates a double click (referred to as the 'ClickSaver' feature) which virtually eliminates the need to double click thereby making Windows easier for both the novice and experienced Windows user. A ClickSaver process determines the type of window on which a single click has occurred and, if ClickSaver is enabled and the window has been deemed eligible for a double click such as an icon or control menu, the ClickSaver process sends a double click signal in order to activate the application.

Method and system for activating double click applications with a single

A system determining an intended cursor location on the computer display screen and automatically repositions the cursor at the intended location. If the user selects a command that alters the contents of the display, such as opening a new window, the system analyzes the new screen display to determine whether there are user selectable options associated with the new screen display. The system determines if one of the user selectable options is a default option and automatically positions the cursor at the default option. If the new screen display is an application program, the system attempts to locate a user selectable option and repositions the cursor at the user selectable option. When the new window is closed, the system returns the cursor to the position it was at before the new window was opened. The system also predicts an intended location for a screen display that has not been altered, and automatically positions the cursor at the intended location. This feature can be selectively enabled to prevent the inadvertent repositioning of the cursor in the display.

A routine allows a user to move a cursor in only mutually perpendicular, horizontal or vertical directions on a computer screen, despite erratic or wavy movement of a pointing device. The routine, once enabled, receives mouse movement signals produced when the user moves the pointing device, the mouse movement signals having x and y position components. The routine uses the greater of the change in the x and y components to initially move the cursor in either horizontal or vertical directions, respectively. The routine continues to move the cursor along the initially established direction, even if the change in mouse movement signals in the other perpendicular direction become greater during continued mouse movement. Only when the change in mouse movement signals in the perpendicular direction become much greater (e.g., ten times greater) will the routine switch to moving the cursor along the perpendicular direction.

Method and apparatus for moving a cursor on a computer screen

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Timothy T Brewer