Facebook Technologies, LLC

Oculus, Vr, LLC

Meta Platforms Technologies, LLC

Robin Michael Miller

Jared I Drinkwater

Joseph Patrick Sullivan

Boyd Drew Allin

Peter Wesley Bristol

Mark Alan Tempel

Lesley Ribble Magrath

Adam Hewko

Blake Francis Andersen

Dov Katz

Julian James Hammerstein

Raymond Louis Nicoli

Yi-Yaun Chen

Oskar Linde

Julian Hammerstein

Michael Xingyi Yu

Neil Konzen

Maksym Katsev

Chin Yuan Cheng

Jonathan Shine

Balaji Chelladurai

Michael Antonov

James Aldrich

Chin-Yuan Cheng

Steve Lavalle

A non-transitory computer-readable storage medium is provided that includes instructions that, when executed by a computing device in electronic communication with an extended-reality device controller, cause the computing device to detect, via one or more force sensors of the controller, an input that includes a magnitude of force being applied in a direction generally normal to a plane defined by a portion of a housing of the controller. And the computing device detects a position of the input relative to the plane defined by the portion of the housing. The computing device, based on a determination that the magnitude of force of the input and the position of the input satisfy a positionally-specific predefined force value, causes a haptic feedback to be provided. The haptic feedback is selected from among a set of available haptic feedback events based on both the magnitude of force and the position of the input.

Extended-reality controller for providing different haptic feedback events based on positions and magnitudes of user inputs, and systems, devices, and methods of use thereof

A method includes, at a controller, sensing a magnitude of a first force applied to the thumbstick in a substantially downward direction relative to a top portion of the housing while the thumbstick is in the stationary default position, and a magnitude of a second force applied to the thumbstick in the substantially downward direction relative to the top portion of the housing while the thumbstick is in a position other than the stationary default position. The method includes receiving the magnitude of the first and the second force, and determining whether the magnitude of the first force or the second force satisfies a predefined force value. The method further includes providing haptic feedback to the user in response to a determination that the magnitude of the first force or the second force satisfies the predefined force value.

Controller for sensing downward force applied to a movable thumbstick and providing a haptic response thereto, and methods of use thereof

A head-mounted display (HMD) includes a hybrid fan, a printed circuit board (PCB) with one or more electronic components and a heat pipe to dissipate heat. The hybrid fan has a center axis extending from a rear side of the HMD to a front side of the HMD. The hybrid fan pulls air from a rear side of the HMD. The heat pipe has an end coupled to the PCB. The heat pipe partially surrounds a periphery of the hybrid fan and transfers heat away from at least the PCB. The HMD further includes a side cover and a front cover. The side cover encloses the hybrid fan, the PCB and the heat pipe. The front cover is attached to the side cover with a slit between an outer edge of the front cover and an outer edge of the side cover to discharge air from the hybrid fan.

System for discharging heat out of head-mounted display

The disclosed handheld controller may include a handle shaped and sized to be gripped by a user's hand and a battery compartment in the handle. The battery compartment may be configured to receive a replaceable battery that has a first end portion with a negative terminal and a second, opposite end portion with a positive terminal. The battery compartment may include a spring-loaded negative contact for electrically coupling to the negative terminal of the battery and a spring-loaded positive contact for electrically coupling to the positive terminal of the battery. Various other methods and systems are also disclosed.

Battery retention methods and mechanisms for handheld controllers

System for discharging heat out of head-mounted display based on hybrid fan

A device is configured to adjust interpupillary distance in a HMD. The device include a fixed plate, a button assembly, a spring, and a gear. The spring biases the button assembly towards the fixed plate to prevent movement of the button assembly. A button of the button assembly can be pressed beyond a threshold distance to disengage the button assembly and the fixed plate. Consequently, the button assembly can be moved relative to the fixed plate. The gear meshes with a gear rack of the button assembly and is associated with two display assemblies of the HMD. The movement of the button assembly drives the gear to rotate. The rotation of the gear causes the two display assemblies of the HMD to move in opposite directions. The movement of one of the display assemblies relative to the other display assembly adjusts interpupillary distance in the HMD.

Interpupillary distance adjustment in a head-mounted display

Head-mounted display

Systems and methods for implementing head mounted displays may include lens movement assemblies. A head mounted display system includes a display housing surrounding one or more display devices, a first lens and a second lens. An input device on the display housing includes a control member moveable between a first position and a second position. A lens movement assembly is operatively coupled to the input device and the first and second lenses and is configured to move the first lens relative to the second lens in response to movement of the control member between the first position and the second position.

Lens movement assemblies for use with head mounted displays

Technology is provided for a tracking constellation assembly for use in a virtual reality system. The tracking constellation assembly includes a translucent panel having an outward facing surface, and an inward facing surface and a mounting surface each opposite the outward facing surface. The translucent panel is substantially opaque to visible light and translucent to infrared light. The assembly includes a flexible circuit board including first and second opposed surfaces. A spacer interconnects the first surface of the flexible circuit board and the mounting surface of the translucent panel. Infrared light emitting diodes are connected to the flexible circuit board and positioned to direct light through the translucent panel.

Tracking constellation assembly for use in a virtual reality system

Technology is provided for a facial interface assembly for use with a head mounted display. The facial interface assembly includes a contoured spacer frame and an interchangeable face gasket removably attached to the contoured spacer frame. The contoured spacer frame includes a forehead interface portion, a pair of cheek interface portions, a bridge portion extending between the pair of cheek interface portions, and one or more attachment tabs configured to mate with a housing of the head mounted display. The face gasket includes a high-density foam layer, a low-density foam layer, and a fabric layer.

Facial interface assemblies for use with head mounted displays and related systems and methods

System for discharging heat out of head-mounted display based on hybrid fan and heat pipe

Embodiments relate to a metal frame in a head-mounted display (HMD) that is structured to absorb impact and protect components of the HMD. The metal frame has a wall that is spaced away from a protection shell securing a display panel in the HMD. When the HMD is dropped or subject to external force, the wall may deform but keep the protection shell intact. Moreover, the metal frame has protruding ridges and brackets that surround outward facing cameras on the HMD. If the HMD is dropped, the protruding ridges and brackets can provide protection to the cameras.

Metal frame of head mount device having impact absorbing walls

Growing community of inventors

Redmond, WA, United States of America

Robin Michael Miller