Microsoft Technology Licensing, LLC

Vicis Ip, LLC

Amish Patel

Larry Russell Butcher

Daniel Edward Ostrowski

Michael Tedesco

Jan-Kristian Markiewicz

Haithem Albadawi

Jason Anthony Grieves

Eric T Duong

Matthew Jay Kotler

Timothy S Paek

Jeffrey Jon Weir

Gerrit H Hofmeester

Dmytro Rudchenko

Stuart J Stuple

David Earl Washington

Andrew Russell Brauninger

Ryan Demopoulos

Vishwas Kulkarni

Jennifer Marie Wolfe

Asela Jeevaka Ranaweera Gunawardana

Bryan Joseph Tiller

Jennifer L Anderson

Per G Reinhall

Mark Shintaro Ando

Sarah Graham Williams

Stephen John Minarsch

Thomas E McCue, Jr

Vincent L Ball

Jason Neubauer

Farah Shariff

Vinod L Hingorani

Scott Robert Honji

John Cagle

Masahiko Kaneko

Gregory Kim Justice

Nicholas Wrem

Valerie V Carricaburu

Derek Wallin

Andre H P Stone

Byung Joo Cho

Paul Millsap

Douglas R Kirschner

Scott F Williams

Mohammad Shakeri

Bertrand Didier

Ryan Lee

Colin Johnson

Byung J Cho

Paul R Millsap

A microlattice structure may be used for a variety of different applications with a protective helmet assembly. The three-dimensional microlattice layer comprising a plurality of interconnected filaments extending along at least three different directions from a plurality of nodes. The microlattice layer may further comprise at least one material layer extending laterally between and interconnecting at least two or more nodes. The at least one material layer may be configured to transversely and rotationally constrain the nodes to increase the overall compressive strength and stiffness of the microlattice structure. The at least one material layer may comprise a single, continuous layer and/or a plurality of material layer segments. The microlattice layer may comprise a single, continuous layer or a plurality of microlattice layer segments. The microlattice layer may be stacked, the stacked microlattice layers may further comprise one or more material layers and/or one or more impact mitigation layers.

Custom manufactured fit pods

Embodiments are disclosed for a method of providing a user interface on a computing device. The method includes presenting a virtual keyboard on a display of the computing device, detecting input to the virtual keyboard. The method further includes, for each detected input, determining whether the input selects any of one or more delimiter keys, displaying a placeholder for the input responsive to the input not selecting any of the one or more delimiter keys, and receiving suggested candidate text from a word-level recognizer and replacing all currently displayed placeholders with the suggested candidate text responsive to the input selecting any of the one or more delimiter keys.

Display-efficient text entry and editing

A screen reader for a computing device with a touch sensitive user interface. The screen reader operates in an investigatory mode in which touch inputs detected through the user interface are interpreted as inputs designating content on the display to verbally render. Each selection may be interpreted as designating a unit of content at the designated location. The size of the unit may be determined based on a direction of motion of pointing device arriving at the location on the display where the unit of content is designated. In this way, a user may, through simple and intuitively learned commands, designate content in units of different sizes such as characters, words, lines or paragraphs, when the content is text, and/or individual user interface elements when the displayed content being selected includes graphical elements.

Assistive reading interface

A wearable electronic device includes a composite band, a touch-sensor display, a skin sensor, and a course of electrical conductors. The composite band forms a loop having two or more rigid segments and a flexible segment coupled between the rigid segments. The touch-sensor display is arranged in a first of the rigid segments, and a skin sensor is arranged in a second of the rigid segments. The course of electrical conductors runs between the first and second rigid segments, inside the flexible segment.

Wearable electronic device

A system and method for implementing an efficient and easy to user interface for a touch screen device. A cursor may be placed by a user using simple inputs. The device operates places the cursor coarsely and refines the cursor placement upon further input from the user. Text may be selected using a gripper associated with the cursor. The user interface allows text selection without occluding the text being selected with the user's finger or the gripper. For selecting text in a multi-line block of text, a dynamic safety zone is implemented to simplify text selection for the user.

Explicit touch selection and cursor placement

Display screen with animated graphical user interface

One or more techniques and/or systems are provided for utilizing input data received from an indirect interaction device (e.g., mouse, touchpad, etc.) as if the data was received from a direct interaction device (e.g., touchscreen). Interaction models are described for handling input data received from an indirect interaction device. For example, the interaction models may provide for the presentation of two or more targets (e.g., cursors) on a display when two or more contacts (e.g., fingers) are detected by indirect interaction device. Moreover, based upon a number of contacts detected and/or a pressured applied by respective contacts, the presented target(s) may be respectively transitioned between a hover visualization and an engage visualization. Targets in an engage visualization may manipulate a size of an object presented in a user interface, pan the object, drag the object, rotate the object, and/or otherwise engage the object, for example.

Interaction models for indirect interaction devices

Display screen or portion thereof with graphical user interface

Growing community of inventors

Seattle, WA, United States of America

Amish Patel