Microsoft Technology Licensing, LLC

Microsoft Technology Licnesing, LLC

Nicolas Villar

James William Scott

Stephen Edward Hodges

Haiyan Zhang

Alexandra Keeley Bunting

Shahram Izadi

Greg Saul

David Alexander Butler

Stuart Taylor

Lee Jason Schuneman

John Helmes

Philip Robert Harrison

Daniel Allen Rosenfeld

Simon Jay Carter

Daniel Cletheroe

Jonathan Leslie Venables

Hrvoje Benko

Desney S Tan

Shwetak N Patel

T Scott Saponas

Christian Holz

David G Molyneaux

Sidhant Gupta

Richard Malcolm Banks

Dan Morris

Greg R Smith

Jonathan Steven Robinson

Sabina Lopez-Moreno

Simone Rita Thomas

Patrizio Spadoni

Alex Hall

Tariq Adaci

Levi Naess

Alma Coyolxauhqui Salinas Lopez

Thomas James Mejias Stott

Harper LaFave

Mike Hazas

Kurt Jenkins

Jonathan Westhues

Gregory Ray Smith

Ravin Balakrishnan

Daniel Morris

Xiang Cao

Gabriel Adam Cohn

Albrecht Schmidt

Sailaja Malladi

Ronald E Paulsen

Orestis Vardoulis

Sebastien Vandenberghe

Oscar Salandin

Eyal Ofek

Billy P Chen

Andrew William Fitzgibbon

Sumit Basu

Joseph A Paradiso

Otmar Hilliges

Abigail Jane Sellen

Nicholas Yen-Cherng Chen

John Franciscus Marie Helmes

Nan-Wei Gong

Jonathan Bernard Lester

David Charles Kale

Refael Zabdi Whyte

David Kirk

Struan Andrew Robertson

Michael Paul Rouse

Sandeep Bhara

Navtej Sunner

Simon Terence Prodger

Thomas Robert Kubitza

Sergey Antonovich

Sébastien Vandenberghe

Michael David Hazas

Jonathan Hook

A system of specifying link layer information in a URL is described. In an embodiment, a URL is generated which includes both a link layer network type and information which is used by a resolving device to identify a particular link layer network of the specified type. In various embodiments, the URL includes a link layer network type and a corresponding link layer network name or pairs of link layer network types and corresponding link layer network names. Where the URL comprises more than one link layer network name, the resolving device may determine at runtime which of the named link layer networks to connect to and this decision may be based on criteria or preference information included within the URL.

Specifying link layer information in a URL

Wearable pulse pressure wave sensing devices are presented that generally provide a non-intrusive way to measure a pulse pressure wave travelling through an artery using a wearable device. In one implementation, the device includes an array of pressure sensors disposed on a mounting structure which is attachable to a user on an area proximate to an underlying artery. Each of the pressure sensors is capable of being mechanically coupled to the skin of the user proximate to the underlying artery. In addition, there are one or more arterial location sensors disposed on the mounting structure which identify a location on the user's skin likely overlying the artery. A pulse pressure wave is then measured using the pressure sensor of the array closest to the identified location.

Wearable pulse pressure wave sensing device

An extender object for use with a multi-modal sensing surface comprises at least two antenna coils. A first antenna coil in the object is electrically connected to a second antenna coil in the object and the two antenna coils may be spatially separated. At least one of the first and second antenna coils comprises a plurality of radial elements extending in and/or out from the coil.

Extender object for multi-modal sensing

A set of reconfigurable clip-on modules for mobile computing devices includes two or more modules and at least one of the modules has an input button or other control and at least one of the modules can communicate with the computing device without needing to be connected to it via a wire. The input button is mapped to a user input in a program, such as a game, which is running or displayed on the computing device to which the modules are clipped. In an embodiment, user inputs via the buttons or other controls on the clip-on modules are mapped to user inputs in a game running on the device, which may be a touch-screen device, and the mapping between user inputs via the buttons and user inputs in the game may change dependent upon the game being played, user preference, or other criteria.

Reconfigurable clip-on modules for mobile computing devices

A wrist-worn device heart-monitoring device is presented. The wrist-worn heart-monitoring device includes a radial tonometer configured to output a pressure signal indicating a pulse pressure wave at a user's wrist, two or more electrodes configured to output an electrical signal indicating a user's heart has been commanded to contract, and a microphone configured to output an audio signal indicating a closing of a user's aortic valve. The wrist-worn heart-monitoring device further includes a pulse transit time monitor configured to calculate a pre-ejection period of the user's heart based on at least the pressure, electrical, and audio signals, and calculate a pulse transit time based on at least the pre-ejection period, the pressure signal, and the electrical signal.

Wrist-worn pulse transit time sensor

A data store for a modular assembly system is described. The data store comprises a number of records, each record relating to a physical module in the modular assembly system and comprising a module ID, an owner ID for the module and one or more properties fields. The properties field(s) define any property of the module and different records may define different properties. At least one of the fields in each data record (e.g. the module ID or owner ID) is verified by an authentication service. A user assembles two or more modules into a coherent physical whole object to act as a user input device to an interactive software experience. The data store communicates with the interactive software experience and causes a change in behavior of the interactive software experience in response to a check of the data records for each of the modules in the object.

Data store for a modular assembly system

A multi-modal sensing surface comprises two overlaid arrays: a capacitive sensing electrode array and an array of RF antennas. A first sensing module is coupled to the capacitive sensing electrode array and is configured to detect both an increase and a decrease of capacitance between electrodes in the array. A second sensing module is coupled to the array of RF antennas and is configured to selectively tune and detune one or more of the RF antennas in the array of RF antennas.

Multi-modal sensing surface

An interactive computer game is described which works in conjunction with a number of physical modules that a user can connect together in different ways to form a coherent physical whole object. The game receives data from the object via a wireless link, the data identifying at least which modules form part of the object and updates game play based on the data received. At some point within the game play, the game presents an objective or goal to the user which the user can only achieve by interacting with the physical object formed from the modules. In an embodiment, this interaction comprises re-arranging the modules or swapping modules to form an object with a different visual appearance, moving all or part of the object and/or interacting with a sensor on a module in the object. The game may receive further data from the object during the user interaction.

Gaming system for modular toys

An interactive play set is described which comprises one or more active physical play pieces. In an embodiment, each active physical play piece receives data from one or more other play pieces in the play set and uses this data to generate proximity data. The proximity data describes distances between two or more play pieces from which it receives data to three or more proximity levels. The proximity data is then transmitted to an interactive entertainment experience (such as a game) which reflects changes in proximity level. For example, the changes may be visible in a graphical user interface or another play piece or audible to a user.

Interactive play sets

Methods and systems for controlling physical toys using a physics engine are described. In an embodiment, a physics engine within an interactive software experience is used to model the motion of a virtual object in a virtual environment. The output of this modelling is then imposed on a physical toy which corresponds to the virtual object such that the motion of the physical toy in the real world more closely matches the motion of the virtual object in the virtual environment. In various examples, the modelling is imposed through control signals which are generated based on output of the physics engine and used to control actuators within the physical toy to change the motion of at least a part of the toy.

Controlling physical toys using a physics engine

A system in which attributes are transferred between generations of characters in an interactive software experience is described. In an embodiment, data identifying one or more hardware attributes for a virtual entity are determined based on a physical user device associated with that virtual entity. One or more virtual attributes for the virtual entity are accessed and one or more behaviors of the virtual entity within the interactive software experience are modified based on a combination of the hardware and virtual attributes.

Transfer of attributes between generations of characters

Growing community of inventors

Cambridge, United Kingdom

Nicolas Villar