Intel Corporation

Richard S Perry

Robert Schum

Raanan Sover

Eytan Mann

Rafi Ben-Tal

Debabani Choudhury

Sidharth Dalmia

Trang Thuy Thai

Navneet Kumar Singh

Omer Asaf

Pedro A Gutierrez

Mythili Hegde

Josef Hagn

Daniel R Cox

Konika Ganguly

Aiswarya M Pious

Jonathan Jensen

Trang Thai

Bhagyashree S Ganore

Ron W Gallahan

Donald M Hammon

Amarjeet Kumar

Gaurav Hada

Michael Stewart

Shallu Bhalla

Jesse Melhorn

Sushil Padmanabhan

Srinath Reddy Yerakondappagari

Siva Prasad Jangili Ganga

Jonathan C Jensen

An ultra-low profile coaxial cable connector (i.e. plug) is provided that implements a lateral coupling of a coaxial cable inner conductor and center pin of a mating PCB-mounted coaxial receptacle. The overall height of a mating coaxial receptacle center pin is also reduced by way of a cutout in the receptacle ground ring as well as a cutout in a mating outer shell of the coaxial cable connector. The ultra-low profile coaxial cable connector achieves a reduction in mated height of less than 1.0 mm for both 1.13 mm diameter and 0.81 mm diameter coaxial cables. In both cases, the coaxial cable connector designs as discussed herein enable a further reduction in the total thickness of communication module boards to 1.25 mm, thereby meeting the high demands for thinner electronic device designs.

Ultra-low profile coaxial cable connector

A connector to connect an electronic module to an edge of a first electronic circuit board is described. The module has a second electronic circuit board. The connector has a top part that houses a first row of I/Os. The top part is to be placed on a surface of the first electronic circuit board. The connector has a bottom part that houses a second row of I/Os. The bottom part is to be placed on an opposite surface of the first electronic circuit board, wherein, the top and bottom parts form inner and outer stand-offs when mater together. The inner stand-off is to reside within a through hole of the first electronic circuit board. The outer stand-off is to reside within free space off the edge of the first electronic circuit board. The second electronic circuit board is to be pressed in between the first row of I/Os and the second row of I/Os when the module is connected to the connector.

Memory module connector for thin computing systems

Disclosed embodiments include a modified M.2 interface that is configured to allow an increased current capacity on power-carrying pins. The power-carrying pins are implemented using an alloy that can sustain current levels in excess of those specified in the M.2 standard while remaining within M.2 standard specified temperature limits. Sockets and corresponding cards in embodiments are modified so that a card requiring the higher current capacity cannot fit into a legacy M.2 standard socket, while a legacy M.2 card can fit into a modified high current M.2 socket. Other embodiments may be described and/or claimed.

M2 connector with increased ampacity

An electronic device may include a substrate having a substrate body. The electronic device may include a first interconnect region, for example located proximate to a first end of the substrate. The first interconnect region may extend from the substrate body. The first interconnect region may include a first set of interconnects, and the first set of interconnects may be located proximate to the substrate body. The first interconnect region may include a second set of interconnects, and the second set of interconnects may be located remote from the substrate body. The second set of interconnects may be physically separated from the first set of interconnects, for example by an inactive region. The first set of interconnects may be located between the inactive region and the substrate body.

Electronic device interconnect

A board-to-board connector includes electrical leads to bridge from one board to another board, to interconnect pads on one surface of the boards. The boards can interconnect while aligned in substantially the same plane with an inline connector. The connector includes a lead frame having the electrical leads and the connector includes an alignment frame to hold the lead frame. The connector includes a conductive case to secure over the alignment frame. The connector includes screw holes to allow screws to secure the connector in place against the boards and ensure electrical connection between the pads on the two boards through the electrical leads of the connector. The alignment frame includes posts to mate with alignment holes in the boards.

Ultra slim module form factor and connector architecture for inline connection

A board-to-board connector includes electrical leads to bridge from one board to another board, to interconnect pads on one surface of the boards. The boards can interconnect while one board is vertically offset from the other board with a top mount connector. The connector includes a lead frame having the electrical leads and the connector includes an alignment frame to hold the lead frame. The lead frame includes leads that have contact arms that are vertically offset from each other. The connector includes a conductive case to secure over the alignment frame. The connector includes screw holes to allow screws to secure the connector in place against the boards and ensure electrical connection between the pads on the two boards through the electrical leads of the connector. The alignment frame includes posts to mate with alignment holes in the boards.

Ultra slim module form factor and connector architecture for top mount connection

Techniques for fabricating end-fire antennas are described. An example of an electronic device with an end-fire antenna includes a housing of the electronic device, and a circuit board comprising electronic components of the mobile electronic device. The circuit board is parallel with the major plane of the housing. The electronic device includes an antenna coupled to the circuit board. At least a portion of the antenna is oriented perpendicular to the first circuit board to generate a radiation pattern with an amplitude that is greater in the end-fire direction compared to the broadside direction.

Perpendicular end fire antennas

Techniques are disclosed to remedy thermal issues associated with antenna systems. These techniques include implementing heat pipes coupled between an external mast having antenna circuitry mounted thereon and an internal heatsink inside an environmentally-controlled location. This configuration thermally regulates heat associated with active antennas mounted to the mast, which is externally mounted onto the roof of a vehicle. The heat pipes carry heat from the mast down through the roof to the internal heatsink. The aspects described herein allow for car manufacturers to integrate mmWave technology into their vehicles while avoiding large and unsightly cooling mechanisms that would otherwise adversely impact aerodynamics and fuel efficiency.

Cooling system for radio

Disclosed are integration approaches for mm-wave planar phased array type architectures using multilayer substrate technologies. For instance, an apparatus may include a plurality of substrate layers, an integrated circuit, and a connector module. The plurality of substrate layers includes a first substrate layer having one or more phased array elements. The integrated circuit exchange one or more radio frequency (RF) signals (e.g., mm-wave signals) with the one or more phased array elements. The connector module exchange further signals with the integrated circuit that correspond to the one or more RF signals. For example, these further signals may be baseband or intermediate frequency (IF) signals.

Platform integrated phased array transmit/receive module

Certain embodiments relate to electronic devices and methods for forming electronic devices having a component shielded by a reworkable RF shield. The RF shield may be positioned to surround one or more components on a substrate. The RF shield may include a plurality of sidewalls and a top wall, the plurality of sidewalls including bumps extending outward therefrom. A portion of the top wall may be removed from the RF shield. The one or more components positioned under the top wall of the RF shield may be repaired or replaced if necessary. A lid may then be positioned over the removed portion of the top wall and placed so that the bumps engage apertures in the lid and result in the lid being rigidly coupled to the sidewalls. In one aspect of certain embodiments, a groove may be formed on one or more surfaces of the top wall. Other embodiments are described and claimed.

Reworkable RF shield

An electronic package includes a printed circuit board having a primary side, and a secondary side. A component, having a main body, is attached to the primary side of the printed circuit board. A pad is attached to the main body of the component. The printed circuit board has an opening therein positioned near the pad.

Printed circuit board with an opening to access components attached to the printed circuit board

A test device includes an element having a surface for contacting a first plane, and a probe having a free end positioned in a second plane. The element of the test having the surface to contact the first plane includes features for contacting a ground plane. The length of the probe in the test device is greater than the length of the element having a surface for contacting the first plane. An electronic package includes a printed circuit board having a primary side, and a secondary side. A component, having a main body, is attached to the primary side of the printed circuit board. A pad is attached to the main body of the component. The printed circuit board has an opening therein positioned near the pad. The probe passes through the opening in the printed circuit board to contact the pad from the secondary side of the printed circuit board. A method for testing a device under test includes contacting a first pad on the device under test located in a first plane, and contacting a second pad on the device under test in a second plane substantially simultaneously as contacting the first pad.

Growing community of inventors

Portland, OR, United States of America

Richard S Perry