Fujitsu Corporation

Shinko Electric Industries Co., Ltd.

Takeshi Shioga

Kazuaki Kurihara

John David Baniecki

Masataka Mizukoshi

Kanae Nakagawa

Yasuo Yamagishi

Tomoyuki Abe

Yoshikatsu Ishizuki

Taiji Sakai

Yoshihiro Mizuno

Kazuaki Karasawa

Masatoshi Ishii

Osamu Taniguchi

Yoshihiko Imanaka

Hiroki Uchida

Koji Omote

Keishiro Okamoto

Takahiro Kimura

Mamoru Kurashina

Susumu Ogata

Hideaki Nagaoka

Teru Nakanishi

Shigenori Aoki

Kenji Nomura

Hideyuki Jippo

Jun Taniguchi

Seiji Hibino

Mari Ohfuchi

Kazuaki Kurhara

An information processing device includes; a memory; and a processor coupled to the memory and configured to: optimize performance of a mixture of a plurality of substances; in an energy function formula for weighting each of a plurality of physical properties in the mixture and performing a calculation to optimize the performance of the mixture, collectively incorporate a plurality of the physical properties that has a relationship correlated with one characteristic among the plurality of the physical properties into the energy function formula as the one characteristic; and simplify the energy function formula.

Information processing device, computer-readable recording medium recording mixture performance optimization program, and mixture performance optimization method for simplifying energy function formula by incorporating correlation formula into energy function formula

A loop heat pipe includes an evaporator configured to vaporize a working fluid, a condenser configured to liquefy the working fluid, a liquid line connecting the evaporator and the condenser, and a vapor line connecting the evaporator and the condenser. The evaporator, the condenser, the liquid line, and the vapor line are formed by stacking a lowermost metallic layer, an uppermost metallic layer, and an intermediate layer set formed of a plurality of metallic layers, which is provided between the uppermost metallic layer and the lowermost metallic layer. The evaporator, the liquid line, the condenser, and the vapor line form a loop-shaped flow path through which the working fluid flows, and a portion of the flow path is formed in the intermediate layer set.

Loop heat pipe

A evaporator of a loop heat pipe includes a liquid inlet side portion that extends in a widthwise direction crossing with a lengthwise direction from a liquid inlet side to a vapor outlet side, a plurality of portions that continue to the liquid inlet side portion and extend in the lengthwise direction, a plurality of vapor flow paths that are provided between the plurality of portions and extend in the lengthwise direction, and a vapor outlet side vapor flow path that extends in the widthwise direction and continues to the vapor flow paths. Each of the plurality of portions includes a first groove communicating two adjacent ones of the vapor flow paths.

Fabrication method for loop heat pipe

A loop heat pipe includes an evaporator configured to evaporate a liquid phase working fluid to generate vapor, the evaporator including first and second inner surfaces that face each other; a comb-like porous body including a plurality of comb teeth, the comb-like porous body being disposed inside the evaporator; a plurality of grooves disposed on one of the first inner surface and second inner surface so as to overlap the plurality of comb teeth; a vapor transport line configured to transport the vapor of the working fluid; a condenser configured to liquefy the vapor of the working fluid; and a liquid transport line configured to transport the liquified vapor as a liquid phase working fluid, wherein each of the liquid transport line and the vapor transport line connects the evaporator and the condenser, such that the vapor transport line and the liquid transport line form a loop-like flow passage.

Loop heat pipe and electronic device

Disclosed loop heat pipe includes: an evaporator configured to vaporize a working fluid; a condenser configured to liquefy the working fluid; a liquid line connecting the evaporator and the condenser; a porous body provided in a columnar shape in the liquid line; and a vapor line connecting the evaporator and the condenser, and forming a loop together with the liquid line.

Loop heat pipe, method of manufacturing the same, and electronic device

Loop heat pipe and fabrication method therefor, and electronic device

A loop heat pipe includes an evaporator; a condenser; a first pipe configured to connect the evaporator and the condenser and in which vapor-phase working fluid flows; and a second pipe configured to connect the condenser and the evaporator and in which liquid-phase working fluid flows, wherein the evaporator, the condenser, the first pipe, and the second pipe is joined to a first tabular and a second tabular, respectively, the first tabular includes a first recessed section in a region to be formed as the evaporator and a region to be formed as a condensation pipe configuring the condenser and the second tabular includes a second recessed section in the region to be formed as the evaporator, the region to be formed as the condensation pipe.

Loop heat pipe and manufacturing method for loop heat pipe and electronic device

A loop heat-pipe includes an evaporator; a condenser; a first line which connects the evaporator to the condenser and in which working fluid of vapor phase flows; and a second line which connects the condenser to the evaporator and in which working fluid of liquid phase flows, wherein each of the evaporator, the condenser, the first line, and the second line is bonded to a first and second plate, the first plate includes in a region for the evaporator: first protrusions that extend in a length direction, and second protrusions that extend in a width direction, which intersects with the length direction; the second plate includes in a region for the evaporator: either or both of third protrusions extending in the length direction and fourth protrusions extending in the width direction, and recesses partitioned by either or both of the third protrusions and the fourth protrusions.

Loop heat pipe, manufacturing method thereof, and electronic device

A semiconductor device includes: a first semiconductor element; a first substrate provided on the first semiconductor element and including a cavity with reduced pressure; coolant held inside the cavity; a second semiconductor element provided on the first substrate; and a heat spreading member thermally connected to the first substrate and provided with a hole communicated with the cavity.

Semiconductor device, method of manufacturing the same, and electronic device

Recesses are formed on one surface of a substrate. A conductive film covers an inner surface of each of the recesses. This conductive film contacts a bump of a semiconductor device to be inspected and is electrically connected to the bump. It is therefore possible to prevent damages of the bump to be caused by contact of a probe pin.

Interconnection card for inspection, manufacture method for interconnection card, and inspection method using interconnection card

A loop heat pipe system includes a loop heat pipe (LHP), a temperature sensor, a heater and a controller. The temperature sensor measures temperature of a working fluid portion of the LHP in which the working fluid has different phases depending on whether or not the LHP is in a disable status not to start up a heat transportation, in which a liquid phase of the working fluid does not exist in an evaporator of the LHP. The heater heats a heating target part of a vapor line. The controller, in order to start up the LHP, turns on the heater, monitors temperature of the heating target part using the temperature sensor, and turns off the heater when detecting a change in the monitored temperature, caused by condensation of a vapor phase of the working fluid.

Loop heat pipe system and information processing apparatus

A semiconductor package includes a substrate with a first surface on which a semiconductor device is mounted and a second surface opposite to the first surface, and a loop heat pipe including an evaporator and attached to the second surface of the substrate, wherein the substrate has a groove structure in the second surface, the groove structure being in contact with a porous wick provided in the evaporator.

Semiconductor package, cooling mechanism and method for manufacturing semiconductor package

There is provided a loop heat pipe which includes an evaporator that internally includes at least one wick built, a condenser, a liquid pipe and a vapor pipe that connect the evaporator and the condenser to each other, and a heat dispersion cavity that is formed inside the evaporator, and disperses a vapor, wherein the wick includes, a first wick that is porous, a second wick that is porous, the second wick being inserted into the first wick from the liquid pipe side and including a pore size larger than the first wick, and a vapor channel that is defined between the first wick and the second wick. The vapor channel is connected at an end on the liquid pipe side to the heat dispersion cavity.

Loop heat pipe, and electronic apparatus including loop heat pipe

A method for manufacturing an interposer including forming a capacitor over a semiconductor substrate; forming a first resin layer with a first partial electrode buried in over the semiconductor substrate and the capacitor; cutting an upper part of the first partial electrode and the first resin layer with a cutting tool; forming a second resin layer with a second partial electrode buried in over a glass substrate with a through-electrode buried in; cutting an upper part of the second partial electrode and the second resin layer with the cutting tool; making thermal processing with the first resin layer and the second resin layer adhered to each other while connecting the first partial electrode and the second partial electrode to each other; removing the semiconductor substrate; forming a third resin layer over the glass substrate, covering the capacitor; and burying a third partial electrode in the third resin layer.

Method for manufacturing interposer

A manufacturing method of a semiconductor device include forming a capacitor by forming an oxide film on a surface of a valve metal based on anodic oxidization and by forming a conductive part made of a conductive material on the oxide film; adhering the capacitor on a semiconductor element mounted on a supporting substrate; and coupling the capacitor to the supporting substrate via an outside connection terminal.

Growing community of inventors

Kawasaki, Japan

Takeshi Shioga