Hewlett Packard Enterprise Development LP

Silicon Graphics, Incorporated

Silicon Graphics International Corporation

Cray Research, Inc.

Steven J Dean

Harvey John Lunsman

John P Franz

Michael Scott

David Collins

Robert Mascia

Steven Martin

Eugene N Reshanov

Stephen Derek Smithson

Perry D Franz

Torsten Wilde

Eric J Mueller

Andy Warner

Russell Eric Stacy

Roger Ramseier

Brian T Purcell

Ernesto Ferrer

Philip J Houdek

David M Morton

Pat Donlin

Timothy Scott McCann

Mark Maloney

Kevin B Leigh

Marco Fiorentino

Tahir Cader

Peter A Hansen

Mir Ashkan Seyedi

Melvin C August

Eric Carl Fromm

Randal Steven Passint

Thomas Edward McGee

Michael S Woodacre

Stephen A Bowen

Richard B Salmonson

Scott A Olson

Kirill Malkin

Stephen Cermak, Iii

Lawrence A Kalina

Ernesto Ferrer Medina

Michael E Malewicki

Harvey White, Jr

Jeffrey Mark Glanzman

Max C Logan

James W Sundet

Luca Ramini

Rob J Rongstad

Roger W Ramseier

Mike Kubisiak

Brady Dulian

Troy Oxby

Michael Kubisiak

Paul Kinyon

Patrick J Kurtz

Jonathan Daniel Befort

Michael Peterson

Amy Bower

James W Luther

Robert A Moe

Laura Malcotti-sanchez

An example axial pump for delivering liquid coolant to cool an electronic device comprises a conduit defining a flow path from an inlet of the conduit to an outlet of the conduit and an impeller in the conduit. The impeller is rotatable about an axis of rotation parallel to the flow path. The pump also has a motor stator configured to drive rotation of the impeller body about the axis of rotation. In addition, the pump comprises an adjustment mechanism coupling the impeller to the conduit. The adjustment mechanism is actuatable to cause translation of the impeller relative to the conduit. This may allow for adjustment of a clearance between a blade tip of a blade of the impeller and a wall of the conduit.

Axial pump with adjustable impeller

A process includes communicating a coolant flow between an inlet and an outlet of a coolant subsystem that is associated with a cooling domain to remove thermal energy from a plurality of processor-based nodes of the cooling domain. The communication of the coolant flow has associated predefined parameters. The process includes regulating a temperature of the coolant flow at the outlet. In accordance with example implementations, the regulation includes determining, based on the predefined parameters, a minimum collective power consumption by the processor-based nodes to maintain a temperature of the coolant flow at the outlet at or above a minimum threshold temperature, and based on the minimum power consumption, scheduling jobs to be executed by the nodes.

Scheduling jobs for processor-based nodes to regulate coolant flow temperatures

Cooling module includes a mounting element, a force application member, a lever, and a cold plate movably coupled to the mounting element. The mounting element having engagement members, is coupled to a receptacle of an electronic device that is configured to receive a removable electronic device at the receptacle. The force application member having spring fingers, is disposed between the mounting element and the cold plate, and movable relative to the mounting element. The lever is connected to the mounting element and the force application member and shiftable between actuated and unactuated states. In the actuated state, the lever pushes the force application member along a first direction causing the engagement members to move the force application member along a second direction perpendicular to the first direction and urge the cold plate to compress the spring fingers and establish thermal contact between the cold plate and the removable electronic module.

Lever actuated cold plate

Example implementations relate to a cooling assembly of a host circuit device, a circuit assembly including the host circuit device and a removable circuit device, and a method for thermal management of the removable circuit device removably connected to the host circuit device. The cooling assembly includes a cooling component and a thermal gap pad having an elastomer component movably connected to the cooling component and a plurality of beams embedded in the elastomer component. Each beam includes a first end portion, a second end portion, and a body portion extended between the first and second end portions. The first end portion of each of one or more beams is disposed in a first thermal contact with the cooling component and a second end portion of each of the one or more beams is disposed in a second thermal contact with a heat sink of the removable circuit device.

Elastomer embedded multipoint contact cooling

A heat removal apparatus may comprise a vapor chamber device and a cover coupled to the vapor chamber device. The vapor chamber device comprises a base, a folded fin structure coupled to the base, with the base and folded fin structure defining a vapor chamber containing a wick and a working fluid. The cover and the vapor chamber device define a liquid chamber configured to receive liquid coolant. The folded fin structure comprises a plurality of folded fins defining a first plurality of grooves on a first side of the folded fin structure and defining a second plurality of grooves on a second side of the folded fin structure. The first plurality of grooves are part of the vapor chamber. The second plurality of grooves are part of the liquid chamber.

Folded-fin vapor chamber cold plate

A first electronic device may comprise a chassis and first fins. The chassis may be configured to removably couple with a second electronic device. The first fins are configured to interleave with second fins of the second electronic device in a coupled state of the first and second electronic devices. A corrugated thermal interface device comprises folded fins. The folded fins are coupled to the first fins and are also removably couplable to the second fins in the coupled state of the first and second electronic devices. Each folded fin comprises one or more lateral walls, and the corrugated thermal interface device further comprises a plurality of spring fingers coupled to and extending at least partially in a lateral direction from the lateral walls. The spring finger contacts may be contacted and displaced by the second fins in the coupled state of the first and second electronic devices.

Corrugated thermal interface device with lateral spring fingers

Systems and methods described herein make previously stranded power capacity (power that is provisioned for a data center according to a computing system's nameplate power consumption but is currently not useable) available to the data center. Systems described herein generate empirical power profiles that specify expected upper bounds for the power consumption levels that applications trigger. Using the upper bounds for application power-consumption levels, a computing system described herein can reliably release part of its provisioned nameplate power for other systems or data center consumers, reducing the amount of stranded power in a data center. The method described herein avoids performance penalties for most jobs by using sensor measurements made at a rapid rate explained herein to ensure that a system power cap based on running application's measured peak power consumption is reliable with reference to the power capacitance inherent in the computing system.

Systems and methods for reducing stranded power capacity

Example implementations relate to a host device and a method for thermal management of a removable device, such as a pluggable electronic transceiver comprising a plurality of spring fingers that provide multipoint contact conduction cooling of the removable device. The host device includes a host circuit board having a connector, and a thermal management unit having a cooling component and the plurality of spring fingers. The cooling component is coupled to a portion of the host circuit board and includes a partially protruded portion. Each of the plurality of spring fingers includes a first end coupled to the partially protruded portion, and a second end having a dry contact surface to establish a direct thermal interface with a peripheral surface of the removable device to allow waste-heat to transfer from the removable device to the cooling component through each spring finger.

Multipoint contact conduction cooling of a removable device

A flexible input/output (I/O) expansion card connection and communication technique are provided. The flexible I/O expansion card is, in some examples, a mezzanine expansion card that may be a single width mezzanine expansion card, a double width expansion card, or a quad width expansion card. Multiple connectors on a mainboard provide a slot to receive plug in (insertion) of an expansion card. A slot is associated with a communication bus (e.g., Peripheral Component Interconnect (PCI)) established between the expansion card and an associated processor. The expansion card (or more than one expansion card) may be inserted in multiple orientations with respect to the multiple connectors. Automatic adjustment of communication on the communication bus may be implemented via one or more hardware level and/or software assisted translations to allow the mezzanine expansion card to function in a normal or a reverse (180 degrees relative to normal) orientation.

Flexible I/O server interface card orientation

A photonic node includes a first circuit disposed on a first substrate and a second circuit disposed on a second substrate different from the first substrate. The first circuit is configured to route light signals originated from the photonic node to local nodes of a local group in which the photonic node is a member. The second circuit is configured to route light signals received from a node of an external group in which the photonic node is not a member, to one of the local nodes.

Multi-chip photonic node for scalable all-to-all connected fabrics

Example implementations relate to a method and system for cooling a compute node tray including a board, a plurality of first and second devices, a cooling assembly, and a support structure assembly. The cooling assembly includes a supply section, a return section, and an intermediate section coupled to the supply and return sections. The supply section includes a first conduit extending along a perimeter of the board and forming a thermal contact with the first devices. The intermediate section includes a plurality of cold plates and a plurality of second conduits forming the thermal contact with the second devices. The second conduits extends parallel to one another. The return section includes a third conduit extending parallel to a portion of the first conduit. The support structure encompasses the board and forms the thermal contact with a portion of the board, a plurality of third devices, and the cooling assembly.

Compute node tray cooling

A computing apparatus includes an enclosure to house computing nodes; a slot to receive a power supply unit that is to provide power to the computing nodes; and a cold plate assembly positioned in the slot. The cold plate assembly includes a first thermal exchange surface and a cooling loop. The first thermal exchange surface is inclined relative to a horizontal dimension of the slot and is to make thermal contact with a complementary thermal exchange surface of the power supply unit when the power supply unit is received by the slot, the complementary thermal exchange surface also being inclined relative to a horizontal dimension of the slot. The cooling loop is thermally coupled to the first interface and through which liquid coolant is to flow.

Power supply dry disconnect liquid cooling

Male and female fittings are configured to mate to form a valved connector system. Some embodiments of the female fitting include movable poppet configured to sealingly engage a flared projection within the female fitting. Some embodiments of the male fitting include a male mating aperture, and a movable plug configured to sealingly engage the male mating aperture. When the female fitting is mated with a male fitting, the male fitting forces the poppet to disengage from the flared projection, and the flared projection forces the plug to recede into the male fitting, to open a fluid path through the valved connector system.

Valved connector

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Chippewa Falls, CA, United States of America

Steven J Dean