Microsoft Technology Licensing, LLC

Greg Saul

Nicolas Villar

Haiyan Zhang

James William Scott

Alexandra Keeley Bunting

Lee Jason Schuneman

Philip Robert Harrison

Daniel Cletheroe

Christian Holz

Simon Jay Carter

Jonathan Steven Robinson

Alma Coyolxauhqui Salinas Lopez

Sabina Lopez-Moreno

Thomas James Mejias Stott

Simone Rita Thomas

Patrizio Spadoni

Alex Hall

Tariq Adaci

Levi Naess

Jonathan Leslie Venables

Oscar Salandin

Sebastien Vandenberghe

Stephen Edward Hodges

Andrew William Fitzgibbon

Struan Andrew Robertson

Sandeep Bhara

Navtej Sunner

Simon Terence Prodger

Sébastien Vandenberghe

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 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

A system for generating custom modular objects is described. The custom modules form part of a modular construction set from which an object can be created by a user. The object acts as a user input device for an interactive software experience. To generate a custom (i.e. non-standard) module, a virtual 3D shape is received by a module generation service. The service converts this shape into a derived 3D shape for the module, for example, ensuring that the module is shaped such that it is compatible with other modules from the modular construction set to which it will be connected for form an object and/or by adding an aperture for receiving a connector and/or electronics core. Once generated, the derived 3D shape is sent to the user in physical form or virtual form and a virtual representation of the module is provided to the interactive software experience.

Generation of custom modular objects

A flexible multi-layer sensing surface comprises a first flexible layer and a second flexible layer. The first flexible layer is a sensing layer and the second sensing layer is another sensing layer or an output layer. The sensing surface also comprises a calibration module which is configured to use the first flexible sensing layer to detect the relative position of the first and second flexible layers and this detected relative position is then used to update one or more stored operating parameters.

Flexible multi-layer sensing surface

A modular assembly system is described which enables interaction with an interactive software experience such as a game. The system enables a coherent physical whole object to be assembled from a core module and one or more peripheral modules. The core module includes a battery, processor and a wireless module which is able to communicate with the interactive software experience which runs on a separate computing device such as a smartphone, tablet or games console. Each of the peripheral modules stores a module ID and these IDs are collected by the core module and communicated to the interactive software experience. The user experience within the interactive software experience changes dependent upon the set of modules which are connected to form the coherent physical whole object and may also be altered as a result of manipulation of the coherent physical whole object or individual modules.

Modular construction for interacting with software

Interactive smart beads are described. The beads are attached to a connecting element and form a fashion item such as a necklace or bracelet. The connecting element detects the presence of beads which are part of the fashion item and also beads which are part of nearby fashion items. The connecting element also autonomously generates interactions between two or more detected beads and transmits data about the interactions to a software experience so that a user can view a graphical representation of the interactions. In various examples each bead represents a character, environment, object, etc. and the software experience displays an animated story based on the characters, environments, objects, etc. represented by the beads involved in an interaction.

Interactive smart beads

A reader device for short-range wireless tags comprises a sensing module coupled to one or more RF antennas. The sensing module is arranged to selectively activate and deactivate individual RF antennas and to read data from a plurality of objects comprising short-range wireless tags which are proximate to an active RF antenna. A scheduler module within the reader device is arranged to obtain device characteristics for the plurality of objects based at least in part on data read by the sensing module and then to generate a powering schedule for the plurality of objects based on the device characteristics. The generated powering schedule is then implemented by the sensing module.

Power scheduling for short-range wireless tags

A sensing surface device comprises a sensing module coupled to a sensing mat. The sensing module is configured to detect a first object at a first position on the sensing mat, detect an event associated with the first object and detect a movement at a second position on the sensing mat. The sensing module is further configured to generate an input to trigger an action in software based on both the detected event and the detected movement.

User input comprising an event and detected motion

A building block is described which has a plurality of faces each with an associated coupling element, such that a first coupling element is adjacent to a first face and a second coupling element is adjacent to a second face, etc. An RF switch in the block is arranged to selectively couple two of the coupling elements together under the control of a processor. The processor controls the RF switch in response to signals received from a transceiver module. A sensing and switching arrangement within the building block selectively connects the processor to one of the coupling elements based on a detected orientation of the block (e.g. so that power harvested from the transceiver module can be used to power the processor). The coupling elements are either all antennas or all electrodes.

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London, United Kingdom

Greg Saul