Abstract: According to one embodiment, a method for manufacturing a semiconductor device includes placing a semiconductor chip on a first surface of a support substrate, forming a first resin layer covering the semiconductor chip on the first surface, and forming a second resin layer on a second surface of the support substrate. The second surface is opposite the first surface. In some examples, the second resin layer can be formed to counteract or mitigate warpage of the support substrate that might otherwise result from use of the first resin layer.

Abstract: The present disclosure aims to improve circulation of intake air and distribution of bypass intake air to cylinders, while reducing an increase in the overall height of an engine. A supercharger extends along a cylinder bank at a side of a surge tank extending along the cylinder bank. A bypass pipe branching off from an upstream intake pipe configured to introduce the intake air into the supercharger extends along the cylinder bank above the supercharger. A downstream side intake pipe configured to guide the intake air from the supercharger to the surge tank extends downward from the supercharger. The downstream intake pipe is, in a U-shape as viewed along the cylinder bank, connected to the surge tank.

Abstract: The present disclosure aims to improve circulation of intake air and distribution of bypass intake air to cylinders, while reducing an increase in the overall height of an engine. A supercharger extends along a cylinder bank at a side of a surge tank extending along the cylinder bank. A bypass pipe branching off from an upstream intake pipe configured to introduce the intake air into the supercharger extends along the cylinder bank above the supercharger. A downstream side intake pipe configured to guide the intake air from the supercharger to the surge tank extends downward from the supercharger. The downstream intake pipe is, in a U-shape as viewed along the cylinder bank, connected to the surge tank.

Abstract: A method for manufacturing a semiconductor device includes bonding a supporting substrate and a first surface of a semiconductor substrate via a bonding layer, processing a second surface of the supporting substrate, opposite to the first surface, to shape the semiconductor substrate into a thin film. After shaping the semiconductor substrate into a thin film, polishing a part of the bonding layer formed at a beveled portion of the supporting substrate or the semiconductor substrate with a first polishing plane to remove the part of the bonding layera A33fter polishing the part of the bonding layer, polishing a remaining part of the bonding layer formed at the beveled portion of the supporting substrate or the semiconductor substrate with a second polishing plane different from the first polishing plane to remove the remaining part of the bonding layer.

Abstract: According to one embodiment, a method of manufacturing a semiconductor device includes: bonding a first surface of a device substrate on which a device is formed on a first surface to a support substrate via an adhesive; after bonding the device substrate to the support substrate, grinding and thinning a second surface side opposite to the first surface of the device substrate based on an in-plane processing rate at the time of forming a semiconductor substrate by RIE; after thinning the device substrate, forming a hole penetrating the device substrate by RIE; and burying metal in the hole to forma through electrode.

Abstract: A method of manufacturing a semiconductor device includes stacking a first substrate comprising a first surface having a semiconductor element and an opposing second surface and a second substrate comprising a third surface having a semiconductor element and an opposing fourth surface, forming a first contact hole extending from the second surface to the first surface of the first substrate and forming a first groove inwardly of a first region of the second surface of the first substrate by etching inwardly of the first substrate from the second surface thereof, forming a first patterned mask on the first substrate, so that the first groove is covered by the material of the first patterned mask, forming a first metal electrode in the first contact hole through an opening in the first mask as a mask, and removing the first mask and subsequently cutting through the first substrate in the first groove.

Abstract: According to one embodiment, a semiconductor manufacturing method for a stacked body that includes a semiconductor substrate, a supporting substrate containing silicon, and a joining layer arranged between the semiconductor substrate and the supporting substrate to joint the semiconductor substrate and the supporting substrate, in which a surface of the semiconductor substrate opposite to the joining layer is to be ground, includes irradiating the stacked body with electromagnetic wave having energy of 0.11 to 0.14 eV from a side of the supporting substrate, and separating the semiconductor substrate from the supporting substrate.

Abstract: A method for manufacturing a semiconductor device includes bonding a supporting substrate and a first surface of a semiconductor substrate via a bonding layer, processing a second surface of the supporting substrate, opposite to the first surface, to shape the semiconductor substrate into a thin film. After shaping the semiconductor substrate into a thin film, polishing a part of the bonding layer formed at a beveled portion of the supporting substrate or the semiconductor substrate with a first polishing plane to remove the part of the bonding layera A33fter polishing the part of the bonding layer, polishing a remaining part of the bonding layer formed at the beveled portion of the supporting substrate or the semiconductor substrate with a second polishing plane different from the first polishing plane to remove the remaining part of the bonding layer.

Abstract: According to one embodiment, a method of manufacturing a semiconductor device includes: bonding a first surface of a device substrate on which a device is formed on a first surface to a support substrate via an adhesive; after bonding the device substrate to the support substrate, grinding and thinning a second surface side opposite to the first surface of the device substrate based on an in-plane processing rate at the time of forming a semiconductor substrate by RIE; after thinning the device substrate, forming a hole penetrating the device substrate by RIE; and burying metal in the hole to forma through electrode.

Abstract: A method of manufacturing a semiconductor device includes stacking a first substrate comprising a first surface having a semiconductor element and an opposing second surface and a second substrate comprising a third surface having a semiconductor element and an opposing fourth surface, forming a first contact hole extending from the second surface to the first surface of the first substrate and forming a first groove inwardly of a first region of the second surface of the first substrate by etching inwardly of the first substrate from the second surface thereof, forming a first patterned mask on the first substrate, so that the first groove is covered by the material of the first patterned mask, forming a first metal electrode in the first contact hole through an opening in the first mask as a mask, and removing the first mask and subsequently cutting through the first substrate in the first groove.

Abstract: A method of manufacturing a semiconductor device includes stacking a first substrate comprising a first surface having a semiconductor element and an opposing second surface and a second substrate comprising a third surface having a semiconductor element and an opposing fourth surface, forming a first contact hole extending from the second surface to the first surface of the first substrate and forming a first groove inwardly of a first region of the second surface of the first substrate by etching inwardly of the first substrate from the second surface thereof, forming a first patterned mask on the first substrate, so that the first groove is covered by the material of the first patterned mask, forming a first metal electrode in the first contact hole through an opening in the first mask as a mask, and removing the first mask and subsequently cutting through the first substrate in the first groove.

Abstract: A method of manufacturing a semiconductor device includes stacking a first substrate comprising a first surface having a semiconductor element and an opposing second surface and a second substrate comprising a third surface having a semiconductor element and an opposing fourth surface, forming a first contact hole extending from the second surface to the first surface of the first substrate and forming a first groove inwardly of a first region of the second surface of the first substrate by etching inwardly of the first substrate from the second surface thereof, forming a first patterned mask on the first substrate, so that the first groove is covered by the material of the first patterned mask, forming a first metal electrode in the first contact hole through an opening in the first mask as a mask, and removing the first mask and subsequently cutting through the first substrate in the first groove.

Abstract: A semiconductor manufacturing method according to a present embodiment includes forming a supporter on a second surface of a semiconductor substrate opposite to a first surface to be ground of the semiconductor substrate. The semiconductor manufacturing method includes thinning the thickness of the semiconductor substrate by grinding the first surface. In the semiconductor manufacturing method, the supporter contains a resin.

Abstract: An intake air cooling device includes an intake manifold with a housing and a plurality of individual intake pipes, a water cooling intercooler housed in the housing and a common intake pipe configured to introduce air into the housing. The housing has a first surface and a second surface facing each other. In the housing, the intercooler is housed in a space near the first surface and a communication space is formed between the second surface and the intercooler. The common intake pipe and the individual intake pipes are arranged side by side on the side of the first surface. The housing forms such an intake passage that air introduced from the common intake pipe reaches the communication space after passing through the first part of the intercooler and is introduced into the individual intake pipes after passing from the communication space to the second part of the intercooler.

Abstract: According to one embodiment, a semiconductor manufacturing method for a stacked body that includes a semiconductor substrate, a supporting substrate containing silicon, and a joining layer arranged between the semiconductor substrate and the supporting substrate to joint the semiconductor substrate and the supporting substrate, in which a surface of the semiconductor substrate opposite to the joining layer is to be ground, includes irradiating the stacked body with electromagnetic wave having energy of 0.11 to 0.14 eV from a side of the supporting substrate, and separating the semiconductor substrate from the supporting substrate.

Abstract: A semiconductor manufacturing method according to a present embodiment includes forming a supporter on a second surface of a semiconductor substrate opposite to a first surface to be ground of the semiconductor substrate. The semiconductor manufacturing method includes thinning the thickness of the semiconductor substrate by grinding the first surface. In the semiconductor manufacturing method, the supporter contains a resin.

Abstract: According to one embodiment, a first adhesive layer is formed on one major surface of a first substrate. The first substrate and a second substrate are adhered using a second adhesive layer that has thermosetting properties and covers the first adhesive layer, wherein a bonding strength between the second substrate is greater than a bonding strength between the second substrate and the first adhesive layer. The other major surface of the first substrate is polished, and the first substrate is thinned. A physical force is then applied to peripheral parts of the second adhesive layer, and a circular notched part is formed along the outer perimeter of the second adhesive layer to separate the first substrate and the second substrate at the interface between the first adhesive layer and the second adhesive layer.

Abstract: According to one embodiment, a first adhesive layer is formed on one major surface of a first substrate. The first substrate and a second substrate are adhered using a second adhesive layer that has thermosetting properties and covers the first adhesive layer, wherein a bonding strength between the second substrate is greater than a bonding strength between the second substrate and the first adhesive layer. The other major surface of the first substrate is polished, and the first substrate is thinned. A physical force is then applied to peripheral parts of the second adhesive layer, and a circular notched part is formed along the outer perimeter of the second adhesive layer to separate the first substrate and the second substrate at the interface between the first adhesive layer and the second adhesive layer.

Abstract: A lubricant member of a preferred embodiment of the invention is formed, into a stick-shaped body longer in a lengthwise direction than in a diametrical direction, of a mixture including at least a polyamide resin as a thermoplastic resin, an ultrahigh molecular weight polyethylene, and lubricant oil. A film made mainly of the polyamide resin is formed in the outer peripheral surface of the lubricant member. At the inner side of the film, fibrous crystals of the polyamide resin and the ultrahigh molecular weight polyethylene extend in the lengthwise direction of the lubricant member, and multiple pores are formed. With this structure, the lubricant member is produced with excellent workability without sacrificing the mechanical strength and the lubricating property.

Abstract: In one embodiment, a method for manufacturing a semiconductor device includes following steps. An aperture is formed in an interlayer insulating film formed on a semiconductor wafer apart from an integrated circuit portion by etching process. The interlayer insulating film has a dielectric constant smaller than a silicon oxide film (SiO2), and the width of the aperture is larger than a dicing region. A resin layer is embedded in the aperture. An adhesive layer is formed on the interlayer insulating film and the resin layer. The semiconductor wafer is attached to a glass substrate using the adhesive layer by Face Down method. The semiconductor wafer, the resin layer, and the adhesive layer on a dicing region are cut by blade dicing. The semiconductor wafer and the glass substrate adhered to the semiconductor wafer are cut into pieces by the blade dicing of the glass substrate under the dicing region.