Abstract: A pressurization type method for manufacturing elementary metal may include a metal precursor gas pressurization dosing operation of, in a state where an outlet of a chamber having a substrate is closed, increasing a pressure in the chamber by providing a metal precursor gas consisting of metal precursors, thereby adsorbing the metal precursors onto the substrate, a main purging operation of purging a gas after the metal precursor gas pressurization dosing operation, a reaction gas dosing operation of providing a reaction gas to reduce the metal precursors adsorbed on the substrate to elementary metal, after the main purging operation, and a main purging operation of purging a gas after the reaction gas dosing operation.

Abstract: A heat conductive sheet of the present invention is a heat conductive sheet containing a curing reaction catalyst, wherein a heat conductive uncured composition 2 not containing a curing reaction catalyst is joined to at least one principal surface of the heat conductive sheet 1 containing a curing reaction catalyst. The heat conductive sheet 1 containing a curing reaction catalyst contains the curing reaction catalyst in an amount necessary to cure the heat conductive uncured composition. A mounting method of the present invention includes: joining a heat conductive uncured composition 2 not containing a curing reaction catalyst to at least one principal surface of the heat conductive sheet 1 containing a curing reaction catalyst, and curing the heat conductive uncured composition by diffusion of the curing reaction catalyst contained in the heat conductive sheet 1.

Abstract: Provided is a method for manufacturing a semiconductor device through which improvement of production efficiency can be achieved. In the method of manufacturing the semiconductor device (1), a sealing material (7) is attached to seal a semiconductor element (3), a release film (F) is provided in a mold facing the semiconductor element (3), and the sealing material (7) is cured by an upper mold (22) and a lower mold (24). A metal layer (9) that shields electromagnetic waves is previously provided on a side of the release film (F) coming in contact with the sealing material (7). In the curing of the sealing material (7), the metal layer (9) is transferred to the sealing material (7).

Abstract: Provided are a paste material, a method of forming the paste material, a wiring member formed from the paste material, and an electronic device including the wiring member. The paste material may include a plurality of liquid metal particles and a polymer binder. The paste material may further include a plurality of nanofillers. At least some of the plurality of nanofillers may each have an aspect ratio equal to or greater than about 3. A content of the plurality of liquid metal particles may be greater than a content of the polymer binder and may be greater than a content of the plurality of nanofillers. The wiring member may be formed by using the paste material, and the wiring member may be used in various electronic devices.

Abstract: A manufacturing method of an electronic component includes forming a body including first and second internal electrodes respectively exposed from first and second end surfaces of the body and dielectric layers disposed between the first and second internal electrodes; applying, on the first and second end surfaces of the body, a paste containing a metal powder and first glass; and sintering the body and the paste to convert the paste to first and second external electrodes including crystalline metal particles having a polyhedral shape and second glass and respectively connected to the first internal electrodes and the second internal electrodes

Abstract: A printed circuit board includes an electrically conductive layer and a dielectric layer including a polymer, wherein the polymer includes metallic particles.

Abstract: Provided is a method of manufacturing a heat conductive sheet with improved adhesion and heat conductivity. The method includes the steps of molding a heat conductive resin composition, which includes heat conductive fillers and a binder resin, into a predetermined shape and curing the heat conductive resin composition to obtain a molded product of the heat conductive resin composition, cutting the molded product into sheets to obtain a molded product sheet, and pressing the molded product sheet.

Abstract: A flexible lighting assembly 100, a luminaire, a method of manufacturing a flexible layer 102 and a use of the flexible layer 102 is provided. The flexible lighting assembly 100 comprises a flexible layer 102 of a flexible polymer and comprises a C light source 108 which is thermally coupled to the flexible layer 102. The flexible layer 102 comprises boron nitride particles 106 that have a hexagonal crystal structure.

Abstract: A semiconductor package having a heat dissipation member capable of efficiently conveying excess heat away from semiconductor chips is presented. The semiconductor package includes a semiconductor chip, through-electrodes, and a heat dissipation member. The semiconductor chip has a first surface, a second surface facing away from the first surface, and bonding pads which are disposed on the first surface. The through-electrodes are electrically connected with the bonding pads and passing through the first and second surfaces of the semiconductor chip, and protrude outward from the second surface. The heat dissipation member faces the second surface of the semiconductor chip and is coupled to the through-electrodes.

Abstract: A pressure-sensitive adhesive sheet according to the present invention is a pressure-sensitive adhesive sheet in which a pressure-sensitive adhesive layer is provided on a base film, in which the base film contains conductive fibers, and in which an electrically conductive path is formed between the pressure-sensitive adhesive layer and the base film. With this structure, an electrical continuity test can be performed even in a condition where a semiconductor wafer or a semiconductor chip formed by dicing the semiconductor wafer is applied, and deformation (warping) and damage of the semiconductor wafer and generation of flaws and scratches on the backside can be prevented in the test.

Abstract: The invention comprises a 3D chip stack with an intervening thermoelectric coupling (TEC) plate. Through silicon vias in the 3D chip stack transfer electronic signals among the chips in the 3D stack, power the TEC plate, as well as distribute heat in the stack from hotter chips to cooler chips.

Abstract: A semiconductor device includes: a semiconductor chip mounted on a mounting substrate; a first resin filling a gap between the chip and the substrate; a frame-shaped stiffener surrounding the chip; a first adhesive for bonding the stiffener to the substrate; a lid for covering the stiffener and an area surrounded by the stiffener; and a second resin filling a space between the stiffener and the chip. A thermal expansion coefficient of the second resin is smaller than that of the first resin. The first resin includes an underfill part filling a gap between the chip and the substrate and a fillet part extended from the chip region.

Abstract: A thermal interface material (100) includes a macromolecular matrix (10) and a plurality of thermally conductive fibers (20) incorporated therein. The macromolecular matrix (10) has a first surface (11) and an opposite second surface (12). Each of the thermally conductive fibers (20) is substantially parallel to each other and extends between the first and second surfaces (11), (12). A method for manufacturing the thermal interface material includes the steps of: (a) providing a number of thermally conductive fibers; (b) aligning the thermally conductive fibers uniformly and directionally to form an array of the thermally conductive fibers; (c) immersing the array of thermally conductive fibers into a liquid macromolecular material; (d) solidifying the liquid macromolecular material to obtain a macromolecular matrix having the two opposite surfaces with the thermally conductive fibers embedded therein, that is, a desired interface material is obtained.

Abstract: A thermal conducting mixture is provided which is used to make thermal conducting formulations such as a paste having a high thermal conductivity and a relatively low viscosity. The paste is used to provide a thermal conductor connection between an electronic component and a cooling device to increase the heat transfer rate between the component and the device cooling the electronic component. The formulation contains the mixture of thermally conductive particles in various particle size ranges typically dispersed in a non-aqueous dielectric carrier containing an antioxidant and a dispersant with the thermally conductive particles mixture being specially correlated in the mixture by volume % based on particle size range and by particle size ratio of each particle size range. The mixture may be used to make other similar products such as thermal gels, adhesives, slurries and composites, for electronic and cosmetics, pharmaceuticals, automotive, and like products.

Abstract: An electronic package comprising a semiconductor device, a heat spreader layer, and a thermal interface material layer located between the semiconductor device and the heat spreader layer. The thermal interface material layer includes a resin layer having heat conductive particles suspended therein. A portion of the particles are exposed on at least one non-planar surface of the resin layer such that the portion of exposed particles occupies a majority of a total area of a horizontal plane of the non-planar surface.

Abstract: A thermal conducting mixture is provided which is used to make thermal conducting formulations such as a paste having a high thermal conductivity and a relatively low viscosity. The paste is used to provide a thermal conductor connection between an electronic component and a cooling device to increase the heat transfer rate between the component and the device cooling the electronic component. The formulation contains the mixture of thermally conductive particles in various particle size ranges typically dispersed in a non-aqueous dielectric carrier containing an antioxidant and a dispersant with the thermally conductive particles mixture being specially correlated in the mixture by volume % based on particle size range and by particle size ratio of each particle size range. The mixture may be used to make other similar products such as thermal gels, adhesives, slurries and composites, for electronic and cosmetics, pharmaceuticals, automotive, and like products.

Abstract: Some aspects include a heat sink base, an upper metal cladded to an upper surface of the heat sink base, the upper metal defining at least one groove, and a heat sink fin disposed in the groove and secured to the upper metal. Some aspects may also include a lower metal cladded to a lower surface of the heat sink base, and a pedestal secured to the lower cladding.

Abstract: A method and apparatus provide an integrated circuit package with improved heat dissipation and easier fabrication. The integrated circuit package includes a thinned semiconductor die attached to a heat spreader using a thermally conductive material. The thinned die reduces the thermal resistance of the die/heat spreader combination to improve heat extraction from the die as well as eliminating processing steps in fabrication. Additionally, the thinned die becomes more compliant as it takes on the thermal/mechanical properties of the heat spreader to reduce stress-induced cracking of the die.

Abstract: An encapsulating epoxy resin molding material, comprising (A) an epoxy resin, (B) a curing agent, and (C) an inorganic filler, wherein the inorganic filler (C) has an average particle size of 12 ?m or less and a specific surface area of 3.0 m2/g or more.

Abstract: A mold product comprising liquid crystal composition for conducting heat. The liquid crystal composition contains liquid crystal polymer having an orientation degree ? obtained by equation 1 below: Orientation degree ?=(180???)/180 equation 1 In equation 1, ?? is a half width in the intensity distribution obtained by fixing peak scattering angle in X-ray diffraction measurement and by varying the azimuth angle from 0 to 360 degrees, and orientation degree ? is in a range between 0.5 and 1.0.

Abstract: A MCM system board uses a stiffener arrangement to enhance mechanical, thermo and electrical properties by incorporating an LGA compression connector in a computer system. The present designs of large scale computing systems (LSCS) in IBM use a MCM that is attached to a system board and held together by a stiffening frame. Due to the nature of the manufacturing of the system board, there can be significant gaps formed in the mounting area of the MCM between the board and the stiffener. A method is described that not only fills the void, it also, in addition promotes thermo conduction of excess heat away from the MCM and at the same time promotes enhanced electrical properties of the LGA connections of the MCM to the system board.

Abstract: A method of making and a high performance reworkable heatsink and packaging structure with solder release layer are provided. A heatsink structure includes a heatsink base frame. A selected one of a heatpipe or a vapor chamber, and a plurality of parallel fins are soldered to the heatsink base frame. A solder release layer is applied to an outer surface of the heatsink base frame. The solder release layer has a lower melting temperature range than each solder used for securing the selected one of the heatpipe or the vapor chamber, and the plurality of parallel fins to the heatsink base frame. After the solder release layer is applied, the heatpipe or the vapor chamber is filled with a selected heat transfer media.

Abstract: A chip package includes a thermal interface material disposed between a die backside and a heat sink. The thermal interface material includes a first metal particle that is covered by a dielectric film. The dielectric film is selected from an inorganic compound of the first metal or an inorganic compound coating of a second metal. The dielectric film diminishes overall heat transfer from the first metal particle in the thermal interface material by a small fraction of total possible heat transfer without the dielectric film. A method of operating the chip includes biasing the chip with the dielectric film in place.

Abstract: An integrated circuit package includes a die mounted on a substrate, an integrated heat spreader set above the die, and an array of carbon nanotubes mounted between the die and the integrated heat spreader. The integrated heat spreader is fixed on the substrate, and includes an inner face. The array of carbon nanotubes is formed on the inner face of the integrated heat spreader. Top and bottom ends of the carbon nanotubes perpendicularly contact the integrated heat spreader and the die respectively. Each carbon nanotube can be capsulated in a nanometer-scale metal having a high heat conduction coefficient.

Abstract: A thermally conductive polymer molded article formed by molding a thermally conductive composition which comprises a liquid crystalline polymer and thermally conductive filler having magnetic anisotropy, wherein the liquid crystalline polymer and the thermally conductive filler are oriented in a predetermined direction by a magnetic field. The thermally conductive composition contains 100 parts by weight of the liquid crystalline polymer and 5 to 800 parts by weight of the thermally conductive filler having magnetic anisotropy. The thermally conductive filler has a thermal conductivity in at least one direction higher than the thermal conductivity of the liquid crystalline polymer.

Abstract: A thermal interface structure (10, 20) is provided for a highly conductive thermal interface between an electronic component and a cooling device for dissipating heat generated by the electronic component. The thermal interface structure includes a matrix (12, 22) and a plurality of carbon nanotubes (14, 24) incorporated in the matrix. The matrix is generally made from a phase change material. A method for making a thermal interface structure is also provided.

Abstract: A bump is formed on each element electrode of a semiconductor device, and a thermoplastic resin sheet is aligned in position with the semiconductor device. The sheet and the semiconductor device are subjected to hot pressing to melt the sheet, forming a thermoplastic resin portion that covers a portion other than the end surface of each bump of the semiconductor device. The thermoplastic resin portion obtained after the hot pressing is cut.

Abstract: The present invention discloses a method of providing an integral thermal interface on an interface surface of a heat dissipation device, such as a heat sink. In accordance with the present invention, the phase change material is applied directly onto the interface surface of the heat sink to form an integral interface layer directly on the heat sink during the manufacturing process. This process includes the steps of providing a heat dissipating device having an interface surface, liquefying the phase change material at a controlled temperature so as to decrease the material viscosity to a flowable form, applying the liquefied phase change material directly onto the mating surface of the heat dissipating device either by directly dispensing the material, screen printing or stencil printing and cooling the material causing it to cure on the surface of the heat dissipating device.

Abstract: A heat softening thermally conductive composition comprises: a matrix comprising a silicone resin, and a thermally conductive filler. The composition can be used as a thermal interface material in electronic devices. The composition is formulated to have any desired softening temperature.

Abstract: A thermally conductive mechanically compliant pad including a quantity of gallium and/or indium alloy liquid at temperatures below about 120° C. and a boron nitride particulate solid blended into the liquid metal alloy to form a paste. The paste is then combined with a quantity of a matrix forming flowable plastic resin such as microwax, silicone wax, or other silicone polymer to form the thermally conductive mechanically compliant pad, the compliant pad comprising from between about 10% and 90% of metal alloy coated particulate, balance flowable plastic resin.