Microsoft Technology Licensing, LLC

Microsoft Corporation

Loren Douglas Reas

Dennis W Tom

Eric Paul Filer

Vasco Rubio

John K Ikeda

Joshua David Maruska

Matthew D Morris

Matthew Aaron Jubelirer

Kurt Torben Nielsen

Curtis F McClive

Glenn Steven Arche

Edward Giaimo

Wayne King

Anthony John Grant

Daniel James Blasé

Eph John Evans

Gary Strowe

Glen E Tennison

Jeffrey Vah

Mark Edward Smalley

Eric Filer

Sensor parameters in a remote game peripheral are dynamically. The remote game peripheral may contain one or more sensors that measure the motion of the remote game peripheral via at least one sensor. This information is communicated to a game server. The game server then determines if the sensor sensitivity setting is appropriate for the expected motion of the remote game peripheral at that point in the game. The game server may, at any time during game play, transmit a sensor sensitivity adjustment to adjust the sensor sensitivity level setting to one that is likely to capture the motion of the game peripheral with minimal loss of data. The dynamic adjustment of the sensitivity level may also be used to provide corrective feedback to a game player.

Dynamic selection of sensor sensitivity in a game input system

Various systems, methods, and computer readable instructions are disclosed herein for dynamically allocating fixed bandwidth over a wireless link between a video game console and a wireless peripheral device. In an embodiment, the voice sample rate in a wireless microphone may be dynamically adjusted to free up bandwidth that can be repurposed for other operations. The sample rate adjustment can range from maximum where the bandwidth is filled with voice data to a lesser sample rate. In the case where the sample rate is less than max, the freed up bandwidth can be for used for other operations.

Dynamic selection of voice quality over a wireless system

A force feedback trigger includes an input device comprising a communication subsystem configured to provide bidirectional communication with a computing device. The input device further comprises a force feedback trigger assembly including a user-actuatable trigger configured to pivot about a trigger axis responsive to an applied external force. The input device further comprises a trigger vibrator directly coupled to the force feedback trigger assembly and communicatively coupled to the communication subsystem, the trigger vibrator configured to vibrate the user-actuatable trigger responsive to a vibration signal received from the computing device via the communication subsystem.

Force feedback triggers

Various embodiments related to providing user feedback in an electronic entertainment system are disclosed herein. For example, one disclosed embodiment provides a method of providing user feedback in a karaoke system, comprising inviting a microphone gesture input from a user, receiving the microphone gesture input from the user via one or more motion sensors located on a microphone, comparing the microphone gesture input to an expected gesture input, rating the microphone gesture input based upon comparing the microphone gesture input to the expected gesture input, and providing feedback to the user based upon the rating.

Gesture-related feedback in eletronic entertainment system

Haptic features are stored in a haptic device by preloading or otherwise downloading them, e.g., wirelessly, into the haptic device at the time of manufacture, immediately prior to game play, during game play, and/or at any other time. Haptic features may be activated, deactivated, modified or replaced at any time. All or a subset of the haptic features may be selected as an active play list, which may be modified as necessary. A host may manage some or all device memory and the haptic features stored therein. Haptic features stored in haptic devices and control information provided by the host are used by the haptic device to execute haptic effects. The haptic device may sustain haptic effects between control messages from the host. New communication messages may be added to an underlying communication protocol to support haptic effects. New messages may use header portions of communication packets as payload portions.

Enhanced protocol and architecture for low bandwidth force feedback game controller

The presentation of visual feedback in an electronic entertainment system is disclosed. One disclosed embodiment relates to a method of providing user feedback in an electronic entertainment system, wherein the method comprises inviting an input from a user, receiving a user input via a hand-held remote input device, performing a comparison of the user input received to an expected input, assigning a rating to the user input received based upon the comparison to the expected input, and adjusting light emitted by one or more lights sources on the input device based upon the rating.

Visual feedback in electronic entertainment system

Techniques for locating wireless channels usable for transmitting media signals from personal media players that are adequately separated from wireless channels used for other purposes. One technique involves identifying a target channel and at least two additional channels within a certain proximity of the target channel, and evaluating a channel usability algorithm based on characteristics, such as the received signal strengths, of the target channel and the received signal strengths of each of the proximate channels. Based on evaluation of the algorithm, the target channel is deemed either usable or not usable to transmit the media signal. The most desirable available target channel(s) in a particular group or sub-group of wireless channels may also be identified.

Wireless channel selection techniques and devices

Peripheral devices having one or more pedals are provided, wherein the peripheral devices are slip resistant with respect to a surface, such as a floor, upon which the peripheral devices are placed or positioned. A user of such peripheral devices can use a heel against the floor surface through the peripheral device to anchor the peripheral device and can use the heel to correct the position of the peripheral device if it slips by applying a counterforce. The peripheral device(s) include multiple springs per pedal and associated software for accommodating a non-linear force response for a more realistic user experience.

Growing community of inventors

Kent, WA, United States of America

Loren Douglas Reas