Intel Corporation

Eric W Buddrius

Ralph V Miele

Thomas A Boyd

Jeffory L Smalley

David Shia

Sandeep Ahuja

Kuang C Liu

Bijoyraj Sahu

Feifei Cheng

Kevin Ceurter

Rolf Laido

Rajat Agarwal

Phil Geng

Steven A Klein

Mohanraj Prabhugoud

Anthony P Valpiani

Andrew Larson

Craig J Jahne

Michael Garcia

Mustafa H Haswarey

Shelby A Ferguson

Jonathon Robert Carstens

Mengqi Liu

Roger D Flynn

Daniel Neumann

Jun Zhang

Russell S Aoki

Damion T Searls

Sriram Srinivasan

Richard J Dischler

Barrett M Faneuf

Jin Yang

Gregorio R Murtagian

Kenan Huseyin Arik

Eric Dwight McAfee

Prabhakar Subrahmanyam

Feroz Mohammad

Catharina Biber

Kristin L Weldon

Ying-Feng Pang

Michael Berktold

Evan A Chenelly

Yi Xia

Carlos Alvizo Flores

Olaotan Elenitoba-Johnson

Brendan T Pavelek

Victor Polyanko

Lianchang Du

Javier Avalos Garcia

Minh T D Le

Yuyang Xia

Divya Swamy Bandaru

Ming-Chen Chang

Yuehong Fan

Luz Karine Sandoval Granados

Adriana Lopez Iniguez

Mark Bianco

Shengzhen Zhang

Sean T Sivapalan

Yuan Li

Hemant Desai

Luis Gil Rangel

Muffadal Mukadem

Francis Toth, Jr

Rachel Taylor

Samer Melhem

Jeffrey Ryan Conner

John Raatz

Bergen Anderson

Kevin J Ceurter

An apparatus is described. The apparatus includes a cover to enclose a junction between respective ends of first and second fluidic conduits. The first and second fluidic conduits transport a coolant fluid within an electronic system. The apparatus also includes a leak detection device to be located within a region that is enclosed by the cover when the junction is enclosed by the cover. The leak detection device is to detect a leak of the coolant fluid at the junction when the junction is enclosed by the cover. The first and second fluidic conduits extend outside the cover when the junction is enclosed by the cover. Another apparatus is also described. The other apparatus includes a leak detection device to detect a leak of coolant fluid from a specific component or junction in a liquid cooling system of an electronic system.

Liquid cooling system leak detection improvements

Techniques for processor loading mechanisms are disclosed. In the illustrative embodiment, a heat sink is in contact with a top surface of a processor, applying a downward force on the processor. A load plate is also in contact with the processor, applying a downward force to the processor as well. The combination of the downward force from the load plate and the heat sink keep the processor in good physical contact with pins of the processor socket. The heat sink has enough force applied to the processor to be in good thermal contact with the processor without applying higher stress to the heat sink. The load plate can apply force to the processor without regard to the thermal characteristics of the load plate. Other embodiments are envisioned and described.

Technologies for processor loading mechanisms

An apparatus is described. The apparatus includes a back plate, where, an electronic circuit board is to be placed between the back plate and a thermal cooling mass for a semiconductor chip package. The back plate includes a first material and a second material. The first material has greater stiffness than the second material. The back plate further includes at least one of: a third material having greater stiffness than the second material; re-enforcement wires composed of the first material; a plug composed of the second material that is inserted into a first cavity in the first material, a stud inserted into a second cavity in the plug. An improved bolster plate having inner support arms has also been described.

Patterned bolster plate and composite back plate for semiconductor chip LGA package and cooling assembly retention

Embodiments disclosed herein include sockets and electronic packages with socket architectures. In an embodiment, a socket comprises a housing with a first surface and a second surface. In an embodiment, a plurality of interconnect pins pass through the housing. In an embodiment, an alignment hole is provided through the housing. In an embodiment, an alignment post extending out from the first surface of the housing is also provided.

Compression mounted technology (CMT) socket system retention mechanisms designs for shipping reliability risk mitigation

Embodiments disclosed herein include assemblies. In an embodiment, an assembly comprises a socket and a bolster plate on a board, where the bolster plate has load studs and an opening that surrounds the socket; a shim having first and second ends; and a carrier on the bolster plate, where the carrier has an opening and cutouts. The shim may have an opening through the first end as the second end is affixed to the carrier. The opening of the shim entirely over one cutout from a corner region of the carrier. In an embodiment, the assembly comprises an electronic package in the opening of the carrier, where the electronic package is affixed to the carrier, and a heatsink over the electronic package and carrier, where the first end is directly coupled to a surface of the heatsink and a surface of one load stud of the bolster plate.

Socket load regulation utilizing CPU carriers with shim components

A microprocessor heat sink fastener assembly, comprising a base to couple to a heat sink a retention nut to be received by a cavity of the base, and a retention clip to be attached to the base and to be cantilevered therefrom. The retention clip is to engage with a latching structure extending from a latching structure of a retention plate.

Mechanism combining fastener captivation and assembly tilt control for microprocessor thermal solutions

A microprocessor loading mechanism, comprising a bolster plate surrounding an aperture, wherein the opening is to receive a microprocessor socket, one or more torsion bars coupled to the bolster plate, and a stud coupled to each of the one or more torsion bars, wherein each stud is to receive a nut to secure a microprocessor package to the microprocessor socket within the aperture and wherein each stud is secured to the bolster plate by each corresponding torsion bar.

Scalable, high load, low stiffness, and small footprint loading mechanism

A microprocessor heat sink fastener, comprising a nut comprising a thermoplastic material and fibrous fill particles and a bore extending along an axis of the nut. The bore has internal threads. The internal threads comprise a surface. At least one of the fibrous fill particles has first and second ends extending from the surface into a sub-surface region.

Scalable debris-free socket loading mechanism

A microprocessor carrier, comprising a frame comprising a metal. The first frame surrounds an aperture for receiving a microprocessor package. At least one hinge assembly is on a first frame edge, and at least one latch assembly is on a second frame edge. One or more alignment tabs coupled to the frame. The one or more alignment tabs extend orthogonally from at least one frame edge. The alignment tabs are to align the microprocessor package with a microprocessor socket. The hinge assembly and the latch assembly are to engage with a microprocessor loading mechanism coupled to a printed circuit board.

Server microprocessor carrier with guiding alignment anti-tilt and automatic thermal interface material separation features for use in land grid array sockets

Embodiments of the disclosure are directed to a linear edge connector assembly for connecting to a substrate diving board of a mother board. The linear edge connector assembly can include an electrical interface to electrically connect the contacts on the diving board to one or more conducts of a cable bundle. The linear edge connector assembly can also include a retaining force mechanism. The retaining force mechanism can include a torsional spring, a spring loaded hooking mechanism, or a spring loaded cam and lever. In some embodiments, the linear edge connector can include a notch to receive a latch connected to a bolster plate on the mother board.

Cable retention assemblies including torsional elements

An electronic device may include a circuit board, and the circuit board may include a dielectric material. A socket may be coupled to a first side of the circuit board, and the socket may be configured to receive a semiconductor package. A backing plate may be positioned on a second side of the circuit board. A spacer may be positioned between the backing plate and the circuit board. The spacer may alter the profile of the socket to provide a curved profile to the socket. The spacer may displace a portion of the socket in a first direction, for instance when the spacer is coupled between the backing plate and the circuit board.

Electronic device, socket, and spacer to alter socket profile

Embodiments of the present disclosure are directed to a linear edge connector assembly and corresponding bolster plate features for receiving and securing a linear edge connector assembly. Embodiments of the disclosure are directed to a linear edge connector assembly that includes a grooved and indented receiver that can receive a spring loaded ball on the bolster plate. In embodiments, the linear edge connector assembly can include a magnetic element to create a magnetic attraction to magnetic elements on the bolster plate, such as a press-fit ball or a U-shaped hardstop. In some embodiments, the linear edge connector assembly includes a screw or push pin that can be received by a receiver on the bolster plate. The receiver can include a thread or friction fit receiver.

Linear edge connector with a cable retention mechanism having a body with a groove with an indentation to receive a bolster plate protrusion

In at least some embodiments, an electronic package to maximize heat transfer comprises a plurality of components on a substrate. A stiffener plate is installed over the components. The stiffener plate has openings to expose the components. A plurality of individual integrated heat spreaders are installed within the openings over the components. A first thermal interface material layer (TIM1) is deposited between the components and the plurality of individual integrated heat spreaders. In at least some embodiments, the thickness of the TIM1 is minimized for the components.

Integrated heat spreader that maximizes heat transfer from a multi-chip package

In at least some embodiments, an electronic package to maximize heat transfer comprises a plurality of components on a substrate. A stiffener plate is installed over the components. The stiffener plate has openings to expose the components. A plurality of individual integrated heat spreaders are installed within the openings over the components. A first thermal interface material layer (TIM) is deposited between the components and the plurality of individual integrated heat spreaders. In at least some embodiments, the thickness of the TIMis minimized for the components.

Growing community of inventors

Hillsboro, OR, United States of America

Eric W Buddrius