Abstract: In this semiconductor device, the through-hole is formed in the substrate, and is located under the conductive pattern. The insulating layer is located at the bottom surface of the through-hole. The conductive pattern is located on one surface side of the substrate. The opening pattern is formed in the insulating layer which is located between the through-hole and the conductive pattern, where the distance r3 from the circumference of the opening pattern to the central axis of the through-hole is smaller than the distance r1 in the through-hole. By providing the opening pattern, the conductive pattern is exposed at the bottom surface of the through-hole. The bump is located on the back surface side of the substrate, and is formed integrally with the through-electrode.

Abstract: A method for manufacturing a semiconductor device includes forming a laminated structure of a plurality of metal films on a semiconductor substrate using an electroless plating method. The forming of the metal films includes: performing an electroless plating process including a reduction reaction using a first plating tank; and performing an electroless plating process by only a substitution reaction using a second plating tank. The electroless plating process including the reduction reaction that is performed using the first plating tank is performed in a shading environment, and the electroless plating process performed by only the substitution reaction using the second plating tank is performed in a non-shading environment.

Abstract: A method of manufacturing a semiconductor device includes forming an interconnect member, mounting a first semiconductor chip having a semiconductor substrate in a face-down manner on the interconnect member, forming a resin layer on the interconnect member to cover a side surface of the first semiconductor chip, thinning the first semiconductor chip and the resin layer, forming an inorganic insulating layer on a back surface of the first semiconductor chip so as to be in contact with the back surface and to extend over the resin layer, and forming a through electrode so as to penetrate the inorganic insulating layer and the semiconductor substrate.

Abstract: In this semiconductor device, the through-hole is formed in the substrate, and is located under the conductive pattern. The insulating layer is located at the bottom surface of the through-hole. The conductive pattern is located on one surface side of the substrate. The opening pattern is formed in the insulating layer which is located between the through-hole and the conductive pattern, where the distance r3 from the circumference of the opening pattern to the central axis of the through-hole is smaller than the distance r1 in the through-hole. By providing the opening pattern, the conductive pattern is exposed at the bottom surface of the through-hole. The bump is located on the back surface side of the substrate, and is formed integrally with the through-electrode.

Abstract: In this semiconductor device, the through-hole is formed in the substrate, and is located under the conductive pattern. The insulating layer is located at the bottom surface of the through-hole. The conductive pattern is located on one surface side of the substrate. The opening pattern is formed in the insulating layer which is located between the through-hole and the conductive pattern, where the distance r3 from the circumference of the opening pattern to the central axis of the through-hole is smaller than the distance r1 in the through-hole. By providing the opening pattern, the conductive pattern is exposed at the bottom surface of the through-hole. The bump is located on the back surface side of the substrate, and is formed integrally with the through-electrode.

Abstract: In a semiconductor device in which the semiconductor chip including the external terminal(s) is embedded in an insulating layer and interconnect conductor(s) is (are) formed on the insulating layer, base hole(s) is (are) formed at position(s) of the insulating layer corresponding to the external terminal(s) in a state where the semiconductor chip has shrunk after having been embedded in the insulating layer. The interconnect conductor(s) is (are) electrically connected to the external terminal(s) through the base hole(s).

Abstract: The present invention provides a semiconductor device including at least one of an insulating layer and a semiconductor layer each including a hole formed therein, and a through electrode provided in the hole. In the semiconductor device, the side wall of the hole is constituted of a first region from the opening of the hole to a predetermined position between the opening of the hole and the bottom surface of the hole, and a second region from the predetermined position to the bottom surface of the hole. The through electrode includes a seed layer and a plating layer. The seed layer covers the second region and the bottom surface of the hole without covering the first region. In addition, the plating layer covers the seed layer and at least a part of the first region.

Abstract: A method of manufacturing a semiconductor device includes forming a first insulating interlayer positioned above one surface of a substrate, forming a first hole extended from the surface of the first insulating interlayer to midway of the substrate, forming a through-electrode in the first hole, forming an electro-conductive pattern positioned on the surface of the first insulating interlayer, and connected to one end of the through-electrode, making the other end of the through-electrode expose, by removing the other surface of the substrate, and forming a connection terminal connected to the other end of the through-electrode, on the other surface of the substrate.

Abstract: The present invention provides a semiconductor device including at least one of an insulating layer and a semiconductor layer each including a hole formed therein, and a through electrode provided in the hole. In the semiconductor device, the side wall of the hole is constituted of a first region from the opening of the hole to a predetermined position between the opening of the hole and the bottom surface of the hole, and a second region from the predetermined position to the bottom surface of the hole. The through electrode includes a seed layer and a plating layer. The seed layer covers the second region and the bottom surface of the hole without covering the first region. In addition, the plating layer covers the seed layer and at least a part of the first region.

Abstract: A semiconductor device has a substrate, an insulating interlayer, an interconnect as one example of an electro-conductive pattern, a through-electrode, and a bump as one example of a connection terminal, wherein the insulating interlayer is positioned up above the surface of the substrate, the interconnect is positioned on the surface of the insulating interlayer, the through-electrode extends through the substrate and the insulating interlayer, from the back surface of the former to the surface of the latter, one end of which is connected to the interconnect, and the bump is provided on the back surface side of the substrate, and connected to the other end of the through-electrode.

Abstract: In a wiring substrate containing a semiconductor element, the wiring substrate includes a supporting substrate; a semiconductor element provided on the supporting substrate; a peripheral insulating layer covering at least an outer circumferential side surface of the semiconductor element; and upper surface-side wiring provided on the upper surface side of the wiring substrate. The semiconductor element includes a semiconductor substrate; a first wiring-structure layer including first wiring and a first insulating layer alternately formed on the semiconductor substrate; and a second wiring-structure layer including second wiring and a second insulating layer alternately formed on the first wiring-structure layer. The upper surface-side wiring includes fan-out wiring led out from immediately above the semiconductor element to a peripheral region external to an outer edge of the semiconductor element. The fan-out wiring is electrically connected to the first wiring through the second wiring.

Abstract: A through electrode that offers excellent performance and can be manufactured through a simple process is to be provided. In a silicon spacer including a silicon substrate, an insulative thick film is provided so as to be in contact with a surface of the silicon substrate and a side wall of a through hole penetrating the silicon substrate. An upper surface of a through plug is retreated to a lower level than an interface between the silicon substrate and the insulative thick film, thus to define a height gap. A first bump is then formed, which is connected to the retreated surface of the through plug and has a larger diameter than that of the through plug at the upper surface of the insulative thick film.

Abstract: A structure for screw-tightening and connecting a terminal to an electrical junction box is provided. The terminal mounting structure in the electrical junction box ensures mounting operation with an insertion direction of the terminal obliquely oriented, and prevents heating of the terminal due to power supply. The terminal is secured and connected to a busbar of the junction box by a bolt, with a head and a shaft of the bolt inserted into a vertical opening and a horizontal notched hole of the terminal, respectively. A pair of opposed guiding walls are provided on a junction box body at both sides of the bolt. The guiding wall includes an entrance's side sloping surface obliquely extending from top to bottom, and a straight horizontal surface continuing to the sloping surface. The terminal includes a pair of outward projecting pieces at an upper portion to be slid on the sloping surface and the horizontal surface.

Abstract: A method for manufacturing a semiconductor device includes forming a laminated structure of a plurality of metal films on a semiconductor substrate using an electroless plating method. The forming of the metal films includes: performing an electroless plating process including a reduction reaction using a first plating tank; and performing an electroless plating process by only a substitution reaction using a second plating tank. The electroless plating process including the reduction reaction that is performed using the first plating tank is performed in a shading environment, and the electroless plating process performed by only the substitution reaction using the second plating tank is performed in a non-shading environment.

Abstract: An etching apparatus includes a process chamber into which an etching gas is introduced, an electrode for generating plasma disposed in the process chamber, a stage disposed in the process chamber, on which a substrate is placed, and a shadow ring disposed in the process chamber and placed above the stage, so as to cover the circumferential portion and an inner region adjacent thereto of the substrate in a non-contact manner. The shadow ring has an irregular pattern on the inner circumferential edge thereof.

Abstract: A structure for screw-tightening and connecting a terminal to an electrical junction box is provided. The terminal mounting structure in the electrical junction box ensures mounting operation with an insertion direction of the terminal obliquely oriented, and prevents heating of the terminal due to power supply. The terminal is secured and connected to a busbar of the junction box by a bolt, with a head and a shaft of the bolt inserted into a vertical opening and a horizontal notched hole of the terminal, respectively. A pair of opposed guiding walls are provided on a junction box body at both sides of the bolt. The guiding wall includes an entrance's side sloping surface obliquely extending from top to bottom, and a straight horizontal surface continuing to the sloping surface. The terminal includes a pair of outward projecting pieces at an upper portion to be slid on the sloping surface and the horizontal surface.

Abstract: Aimed at suppressing roughening in a circumferential portion of a layer to be etched in the process of removing a hard mask formed thereon, an etching apparatus of the present invention has a process chamber, an electrode, a stage, and a shadow ring, wherein the process chamber allows an etching gas to be introduced therein; the electrode is disposed in the process chamber, and is used for generating plasma by ionizing the etching gas; the stage is disposed in the process chamber, onto which a substrate is disposed; the shadow ring has an irregular pattern on the inner circumferential edge thereof, and is disposed in the process chamber and placed above the stage 30, so as to cover a circumferential portion and an inner region adjacent thereto of the substrate in a non-contact manner.

Abstract: A method of manufacturing a semiconductor device includes forming an interconnect member, mounting a first semiconductor chip having a semiconductor substrate in a face-down manner on the interconnect member, forming a resin layer on the interconnect member to cover a side surface of the first semiconductor chip, thinning the first semiconductor chip and the resin layer, forming an inorganic insulating layer on a back surface of the first semiconductor chip so as to be in contact with the back surface and to extend over the resin layer, and forming a through electrode so as to penetrate the inorganic insulating layer and the semiconductor substrate.

Abstract: Aimed at suppressing roughening in a circumferential portion of a layer to be etched in the process of removing a hard mask formed thereon, an etching apparatus of the present invention has a process chamber, an electrode, a stage, and a shadow ring, wherein the process chamber allows an etching gas to be introduced therein; the electrode is disposed in the process chamber, and is used for generating plasma by ionizing the etching gas; the stage is disposed in the process chamber, onto which a substrate is disposed; the shadow ring has an irregular pattern on the inner circumferential edge thereof, and is disposed in the process chamber and placed above the stage 30, so as to cover a circumferential portion and an inner region adjacent thereto of the substrate in a non-contact manner.

Abstract: In this semiconductor device, the through-hole is formed in the substrate, and is located under the conductive pattern. The insulating layer is located at the bottom surface of the through-hole. The conductive pattern is located on one surface side of the substrate. The opening pattern is formed in the insulating layer which is located between the through-hole and the conductive pattern, where the distance r3 from the circumference of the opening pattern to the central axis of the through-hole is smaller than the distance r1 in the through-hole. By providing the opening pattern, the conductive pattern is exposed at the bottom surface of the through-hole. The bump is located on the back surface side of the substrate, and is formed integrally with the through-electrode.