Intel Corporation

Tektronix, Inc.

Kerry A Stevens

Yoshifumi Nishi

Michael J Mende

Jonathan S Dandy

Thomas J Sharp

Songnan Yang

Duck Young Kong

Gregory A Peek

Ralph V Miele

Kimi Morooka Jensen

Jonathan Rosenfeld

Andrew Larson

Dan H Gerbus

Rolf Laido

Patrick Chewning

Stephen J Allen

Janardhan Narayan

Shaun Gerrit Immeker

Particular embodiments described herein provide for an electronic device, that includes a first housing and a wireless charging stand. The first housing can include a display. The wireless charging stand can include a power receiving unit and is configured to wireless charge the electronic device and support the first housing at different viewing angles of the display.

Wireless charging stand

Low-cost, easy-to-use alignment target generators for aligning a user's own face or eye to a camera or scanner are based on field-of-view visual feedback from a filtered or apertured planar light source. These approaches may be made agnostic to the scanner's operating system or other software. Alternatively, software on the scanner or its host device may create a solid light-colored section of an existing display screen to use as a planar light source. In some embodiments, the planar light source may be the virtual image of an object viewed in a plane mirror.

Field-of-view ocular and facial alignment guides

This disclosure pertains to wireless power transfer systems, and in particular (but not exclusively), to techniques to improve the coupling efficiency between a power transmitting unit and a power receiving unit within a computing device. The present disclosure includes a system which comprises a computing unit which includes a power receiving unit and a conductive surface. The conductive surface has an opening that is adjacent to the power receiving unit and a slot extending from the opening towards the perimeter of the conductive surface. The computing unit further includes a system base coupled to the power receiving unit wherein the power receiving unit is to provide power to the system base. The system also includes a power transmitting unit adjacent to the computing unit.

Chassis design for wireless-charging coil integration for computing systems

A probe holder for a signal acquisition probe has a cradle receiving the signal acquisition probe and a pedestal adapted for receiving substrates of various thicknesses. The pedestal has a base member and an upright member with the upright member coupled to the cradle. The base member has at least a first lateral slot formed therein having a plurality of clearances for receiving substrates of varying thicknesses.

Probe holder for various thickness substrates

An input by-pass circuit for a current probe has first and second switches coupled between current probe inputs and current sensing circuit inputs. A switch control is coupled to the switching circuit for selectively coupling and decoupling the current probe inputs to the current sensing circuit such that the current signal continuously flows in the device under test.

Input by-pass circuit for a current probe

A current probing system has a current probe and a detachable adapter. The current probe has a probe body with electrically conductive contacts that mate with electrically conductive contacts on the adapter. Leads extend from the adapter for coupling to a current carrying conductor. The leads can connect to a plug that is coupled to a current diverting device for coupling a current signal to the current probe. The adapter may also include a switch that selectively couples the current signal to the current probe when the adapter is mated with the current probe. The contacts of the current probe are coupled to a current sensing circuit which generates a voltage output representative of the current signal. The voltage output is coupled to an oscilloscope via an electrical cable.

Current probing system

Growing community of inventors

Beaverton, OR, United States of America

Kerry A Stevens