Apple Inc.

Microsoft Technology Licensing, LLC

Jeffrey A Griffis

Paul Xiaopeng Wang

Stephen E Dey

Erin M Bosch

Carl J Ledbetter

Alex Joseph Lehmann

Yuhao Pan

Jonathan M Anderson

Samuel Gilkison Smith

Alireza Mahanfar

Darshan R Kasar

Mark William Casebolt

Javier Rodriguez De Luis

Gary Rensberger

Stephen Christopher

Chee Kiong Fong

Nicholas R Trincia

Suet Fong Tin

Benjamin J Shewan

Matthew Aaron Jubelirer

William Lauby

Ian A Guy

William Sauway Law

Timon A Wright

Qianyi Zhao

Andrew Gallaher

Tse-Ching Yu

Gary Alan Tornquist

Liam R Martinez

Trevor S Chambers

Adam Y Kollgaard

Zhenggang Cheng

Sung J Kim

Michael Hiett

Runren Zhang

Joel Ebers

Remy Carole

David Dostal

Farrukh Kamal

Kenneth Budoff

An apparatus can include a display, a facial interface, and a connection between the display and facial interface. The display can at least translate or rotate relative to the facial interface via the connection.

Adjustment mechanism

A removable facial interface for a head-mountable device (HMD) is disclosed. In an example, an HMD includes a display; a facial interface frame at least partially surrounding the display; a removable facial interface attached to the facial interface frame; a first attachment mechanism attached to one of the facial interface frame or the removable facial interface; and a second attachment mechanism attached to the other of the facial interface frame or the removable facial interface, the removable facial interface being attached to the facial interface frame by the first attachment mechanism and the second attachment mechanism.

Removable facial interface

Display backing components for head-mounted devices (HMDs) are described that reduce eddy currents in magnetic fields generated by a coil. A HMD may include a coil that is used to generate a magnetic field that may be used to track position of other devices with respect to the HMD. Display backing components, used to provide rigidity, are modified with holes or other gaps to interrupt the path of the eddy currents and reduce the interference with the magnetic field, thus improving the power efficiency of the coil and of the HMD. These modifications may be formed by casting, drilling, cutting or otherwise perforating the display backing during manufacture.

Display backing

A finger device may be worn on a user's finger and may serve as a controller for a head-mounted device or other electronic device. The finger device may have a housing having an upper housing portion that extends across a top of the finger and first and second side housing portions that extend down respective first and second sides of the finger. Sensors in the side housing portions may measure movements of the sides of the finger as the finger contacts an external surface. To ensure that the sensors are appropriately positioned relative to the sides of the finger, the housing may include one or more adjustable structures such as an elastomeric band, a drawstring, a ratchet mechanism, a scissor mechanism, and/or other adjustable structures for adjusting the position of the first and second side housing portions and associated sensors relative to the upper housing portion.

Finger devices with adjustable housing structures

An optical disc drive (ODD) includes a radio-frequency identification (RFID) reader. The reader includes a circuit and a coil antenna which has a rotational symmetry with respect to a rotation axis of a motor, shaft and turntable of the ODD. The coil antenna can be secured to a wall of a housing of the ODD or around the motor and/or shaft. The reader can read an RFID tag on an optical disc. The RFID tag includes a circuit and a coil antenna which has a rotational symmetry with respect to the disc. As a result, the RFID tag can be read while the disc is rotating. A magnetic insulating material such as a ferrite polymer composite film is used to magnetically insulate the coil antenna. An authentication code can be read from the RFID tag to control access to content of the optical disc.

Contactless authentication of optical disk drives

Electronic housing

Disclosed herein are dual-barrel, connector jack and plug assemblies. Particularly, plug assemblies having two single barrel connectors that are situated side-by-side. Each barrel may include two or more contacts for receiving and transmitting DC IN+ electrical signals. Further, each barrel may include two or more contacts for receiving and transmitting DC IN&#x2212; electrical signals. Inside each barrel connector may be disposed center pins. The barrel connectors may be cylindrically-shaped and configured to mate to a dual-barrel, connector jack assembly as described herein. A bridge component may be disposed between the barrel connectors for preventing the plug assembly from being inserted into the jack assembly in the wrong orientation. The bridge assembly may be shaped to prevent improper insertion into a corresponding aperture of the jack assembly.

Dual-barrel, connector jack and plug assemblies

An external AC power adapter is provided in a compact form factor that utilizes an AC plug that swivels about the body of the adapter and that includes prongs (i.e., electrical contacts or terminals) which can fold into the body for transport or storage. The swiveling AC plug enables the body of the AC power adapter to be rotatably oriented in a user-selectable manner in order to fit in tight spaces when plugged in to maximize the utilization of available outlets. The foldable prongs help to minimize the overall size of the AC power adapter for easy portability and storage. When folded, the prongs are protected against damage and are prevented from damaging or scratching other articles when the AC power adapter is packed in a bag or suitcase during travel.

AC Power adapter with swiveling plug having folding prongs

Growing community of inventors

San Carlos, CA, United States of America

Jeffrey A Griffis