Abstract: An electronic component device of the present invention includes: a silicon package unit having a structure in which a through electrode provided to a silicon substrate while an electrode post connected to the through electrode is provided upright on an upper side of the silicon substrate; an electronic component mounted on the electrode post and having a connection terminal connected to the top end of the electrode post; and a cap package unit joined onto a periphery of the silicon package unit, and constructing a housing portion in which the electronic component is housed to be hermetically sealed.

Abstract: A disclosed method for manufacturing a semiconductor device having a structure where a semiconductor element is mounted on a first substrate includes the steps of: bonding the first substrate on which the semiconductor element is mounted and a second substrate made of a material different from a material of the first substrate so as to encapsulate the semiconductor element; forming a first groove in the first substrate and a second groove in the second substrate; and cleaving a portion between the first groove and the second groove so as to individualize the semiconductor device.

Abstract: A heat radiation package of the present invention includes a substrate in an upper surface side of which recess portion is provided, embedded wiring portion which is filled in the recess portion of the substrate and on which semiconductor element which generates a heat is mounted, and a heat sink connected to a lower surface side of the substrate. The substrate is made of silicon, ceramics, or insulating resin.

Abstract: A semiconductor device made by mounting a light emitting element on a substrate, where an optically-transparent cover with a flat plate shape is installed on the light emitting element and a groove part for suppressing reflection of light emission of the light emitting element is formed in the cover.

Abstract: In a semiconductor apparatus in which plural semiconductor elements are stacked, metal wires whose one ends are connected to electrode terminals of the semiconductor elements are extended to the side surfaces of the semiconductor elements in an abutment state and the metal wires extended to the side surfaces of the semiconductor elements are bonded to a side surface wiring formed on side surfaces of the semiconductor elements by a conductive paste containing conductive particles.

Abstract: A plurality of quadrilateral-shaped semiconductor elements are stacked on the one surface of a circuit substrate. A side surface wiring for making electrical connection between each of the electrode terminals of the semiconductor elements and a pad formed on the circuit substrate is formed by applying a conductive paste containing conductive particles. A metal wire whose one end is connected to the electrode terminal is extended along a tapered surface formed by cutting off an edge of the electrode terminal surface on which the electrode terminal is formed among edges formed along each of the sides of the semiconductor element. At least a part of the metal wire extended from each of the electrode terminals of the semiconductor elements to the tapered surface is electrically connected to the side surface wiring.

Abstract: After plural semiconductor elements are stacked to form a stacked body P, side wirings are formed on the side surface of the stacked body P, thereby manufacturing a semiconductor apparatus in which the respective semiconductor elements are electrically connected to one another. In this case, as the semiconductor element, a semiconductor element 10 is employed in which a gold wire 16 with its one end connected to an electrode terminal of the semiconductor element is extended out to the side surface. A conductive paste 36 containing conductive particles applied over a predetermined length of a transferring wire 30 is transferred to the side surface of the stacked body P so that the gold wires 16 extended out to the side surfaces of the semiconductor elements 10, 10, 10 are connected, thereby forming the side wirings.

Abstract: There is provided a semiconductor device in which a light emitting element is mounted on a substrate, having a bonding wire which is connected to the light emitting element, and a through electrode which is connected to the bonding wire and is formed in such a manner as to pass through the substrate at a position lying directly below a connecting portion with the bonding wire.

Abstract: The optical device 10 includes a light source 13, a mirror element 12 including a mirror 36 for reflecting light emitted from the light source 13 in a predetermined direction, and a mirror element housing body 11 that accommodates the mirror element 12 as well as seals a space D where the mirror element 12 is accommodated, characterized in that the light source 13 is provided inside the mirror element housing body 11.

Abstract: A substrate includes a storage portion which is defined by a base for mounting a light emitting element and a wall portion standing up on and from the base. A package is structured such that the upper end of the wall portion so formed as to surround the periphery of the storage portion is connected to a cover to thereby seal a light emitting element. A seal structure is composed of an uneven portion formed on the lower surface side surface of the base, a close contact layer formed on the surface of the uneven portion, a power supply layer formed on the close contact layer, and an electrode layer formed on the surface of the power supply layer. The uneven portion includes a first recessed portion formed at a position spaced in the radial direction from the outer periphery of a through electrode or from the inner wall of a through hole, and a second recessed portion formed at a position spaced further outwardly from the first recessed portion.

Abstract: An electronic component has a substrate made of silicon in which a flow path for circulating a refrigerant is formed, a conductive pattern formed on a first principal surface of the substrate, a via plug penetrating the substrate and also connected to the conductive pattern, and an elastically deformable external connection terminal installed on a second principal surface of the substrate.

Abstract: A light emitting device housing having a concave part is provided therein for housing a light emitting device. Side surfaces of the concave part are each configured to be a perpendicular surface that is substantially perpendicular to a bottom surface of the concave part, and other side surfaces are each configured to be an inclined surface for reflecting light from the light emitting device toward above the light emitting device.

Abstract: It is a lighting apparatus 10 that has a light emitting element 16, a light emitting element housing 15 having a concave portion 28 that accommodates the light emitting element 16, and an optically transparent member 18 that airproofs a space B formed by the concave portion 28 and transmits light emitted from the light emitting element 16. The concave portion 28 is shaped to become wider toward the optically transparent member 18 from the bottom surface 28A of the concave portion 28. The lighting apparatus 10 is provided with a light shielding member 12 for shielding a part of light emitted from the light emitting element 16 is provided on the optically transparent member 18.

Abstract: A method of manufacturing an electronic component includes the steps of: a) forming via holes penetrating through a first semiconductor substrate and a second semiconductor substrate which are bonded together by way of a connection layer; b) pattern-etching the second semiconductor substrate using the connection layer as an etch-stop layer to form trenches communicated with the via holes; and c) integrally forming first via plugs buried in the via holes and pattern wirings buried in the trenches through plating.

Abstract: A method of manufacturing an electronic component includes the steps of a) forming a plurality of wiring boards that include first through holes penetrating through a semiconductor substrate and conductive material buried in the first through holes; b) providing conductive projections on the conductive material of any of the plurality of wiring boards; and c) bonding the plurality of wiring boards to each other and electrically connecting the conductive material of the respective wiring boards by the projections.

Abstract: An electronic component device of the present invention includes: a silicon package unit having a structure in which a through electrode provided to a silicon substrate while an electrode post connected to the through electrode is provided upright on an upper side of the silicon substrate; an electronic component mounted on the electrode post and having a connection terminal connected to the top end of the electrode post; and a cap package unit joined onto a periphery of the silicon package unit, and constructing a housing portion in which the electronic component is housed to be hermetically sealed.

Abstract: A semiconductor apparatus comprising a silicon substrate; an device housing space including a concave portion formed in the silicon substrate and a hole perforating through the bottom surface of the concave portion; a plurality of laminated semiconductor devices provided in the device housing space; a first lid which lids the concave portion and a second lid which lids the hole, for sealing the semiconductor devices; and via plugs which are connected to the semiconductor devices, penetrating the bottom surface of the concave portion.

Abstract: A method for manufacturing a package which includes: an etching step of etching a silicon substrate, and forming a via hole penetrating through the silicon substrate; and a step of embedding an electrically conductive material in the via hole, and forming a via plug, characterized in that the etching step includes a first etching step of forming the via hole in a straight shape, and a second etching step of forming the via hole in a taper shape.

Abstract: In an electrical characteristic measuring probe of the present invention constructed by assembling a plurality of probe parts, each comprising a base portion, a plurality of terminal portions extended outward from one end of the base portion, wiring patterns extended from a plurality of terminal portions onto the base portion respectively, and contact portions connected to the wiring patterns respectively, a plurality of thin plate-like probe parts are aligned such that respective thin-plate surfaces are placed in parallel with each other and the contact portions are directed in the same direction, and a plurality of probe parts and spacers are fixed by fixing means in a state that the spacer is arranged between a plurality of probe parts respectively.

Abstract: A light-emitting device includes a light-emitting element 12 and a wiring substrate 11 having a substrate body 17 having a protruding portion 25 at a position where the light-emitting device 12 is disposed and wiring patterns 21 and 22 disposed on the substrate body 17 and electrically connected to the light-emitting element 12.