Abstract:
PROBLEM TO BE SOLVED: To provide a semiconductor device capable of suppressing generation of a void in a through electrode without requiring time for forming the through electrode, and to provide a method of manufacturing the same.SOLUTION: A semiconductor device 1 has an insulating or semiconductor layer 11 on which a hole 111 is formed, and a through electrode 12 provided in the hole 111 of the layer 11. The through electrode 12 has a seed layer 121 and a plating layer 122. The seed layer 121 covers a bottom surface 111A of the hole 111. In addition, the seed layer 121 does not cover a first region from an opening of the hole 111 to a predetermined position between the opening of the hole 111 and the bottom surface 111A of the hole 111, among a side surface 111B of the hole 111, and covers a second region except the first region (an uncovered region) 111B1. The plating layer 122 covers the seed layer 121 and at least a part of the uncovered region 111B1.
Abstract:
PROBLEM TO BE SOLVED: To provide a thin and highly reliable wiring substrate having a highly dense semiconductor element built in the substrate. SOLUTION: In a wiring substrate having a built-in semiconductor element 117, the wiring substrate includes a supporting substrate 101, a semiconductor element provided on the supporting substrate, a peripheral insulating layer 113 for covering an outer circumferential side surface of the semiconductor element, and an upper surface-side wiring on the upper surface side of the wiring substrate. The semiconductor element includes a semiconductor substrate 103, a first wiring-structure layer including a 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 a 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. The second wiring is thicker than the first wiring but thinner than the upper surface-side wiring. The second insulating layer is formed of a resin material and is thicker than the first insulating layer. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To perform composition analysis accurately with an easy procedure, when performing composition analysis by a fluorescent X-ray spectrum. SOLUTION: In the fluorescent X-ray spectrum St of a mixed sample including a first element x and a second element y, an integration intensity At and an integration intensity Bt of a first domain A and a second domain B set so that an integration intensity of a fluorescent X-ray of the first element x satisfies an inequality: the first domain A>the second domain B, and that an integration intensity of a fluorescent X-ray of the second element y satisfies an inequality: the second domain B>the first domain A are calculated respectively (step S106), and a value of an intensity portion B y/t of the second element y in the second domain B is set based on the integration intensity Bt, and an intensity portion A y/t of the second element y in the first domain A is calculated based on the intensity portion B y/t and the intensity ratio (Ay/By) between the first domain A and the second domain B of a fluorescent X-ray spectrum Sy of the second element y, and an intensity portion A x/t of the first element x in the first domain A is calculated from equation: A x/t =At-A y/t (step S108). COPYRIGHT: (C)2011,JPO&INPIT
Abstract translation:要解决的问题:当通过荧光X射线光谱进行成分分析时,以简单的方法准确地进行组成分析。 解决方案:在包括第一元素x和第二元素y的混合样品的荧光X射线谱St中,积分强度At和第一域A的积分强度Bt和第二域B的积分强度Bt,使得 第一元素x的荧光X射线的积分强度满足第一域A>第二区域B的不等式,并且第二元素y的荧光X射线的积分强度满足不等式:第二区域 域B>分别计算第一域A(步骤S106),并且基于积分强度来设定第二域B中的第二元素y的强度部分B y / t SB>的值 Bt和第一区域A中的第二元素y的强度部分A y / t SB>基于强度部分B y / t SB>和强度比( Ay / By)和第二元素y的荧光X射线光谱Sy的第二畴B之间的强度 第一区域A中的第一元素x的部分A x / t SB>由下式计算:A x / t SB> = At-A y / SB>(步骤S108)。 版权所有(C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To solve a problem of a conventional electronic apparatus and a manufacturing method of the conventional apparatus that a resin, used for a wiring layer on the solder ball side, is limited and thus the cost reduction of the electronic apparatus is inhibited.SOLUTION: An electronic apparatus 1 includes a wiring layer 10 (first wiring layer) and a wiring layer 20 (second wiring layer). The wiring layer 20 is formed on a lower surface of the wiring layer 10. The wiring layer 20 has an area larger than the wiring layer 10 in a plain view and extends to the outer side of the wiring layer 10.
Abstract:
PROBLEM TO BE SOLVED: To solve a problem of a conventional electronic apparatus and a manufacturing method of the conventional apparatus that a resin, used for a wiring layer on the solder ball side, is limited and thus the cost reduction of the electronic apparatus is inhibited.SOLUTION: An electronic apparatus 1 includes a wiring layer 10 (first wiring layer) and a wiring layer 20 (second wiring layer). The wiring layer 20 is formed on a lower surface of the wiring layer 10. The wiring layer 20 has an area larger than the wiring layer 10 in a plain view and extends to the outer side of the wiring layer 10.
Abstract:
PROBLEM TO BE SOLVED: To provide a semiconductor device which can inhibit generation of voids in a through electrode without requiring much time for forming the through electrode, and to provide a manufacturing method of the semiconductor device.SOLUTION: A semiconductor device 1 comprises an insulating or a semiconductor layer 11 where a hole 111 is formed, and a through electrode 12 provided in a hole 111 of the layer 11. The through electrode 12 includes a seed layer 121 and a plating layer 122. The seed layer 121 covers a bottom surface 111A of the hole 111. Further, the seed layer 121 is not covered in a first region from an opening of the hole 111 to a predetermined location between the opening of the hole 111 and the bottom surface 111A of the hole 111 within a lateral face 111B of the hole 111 and covered in a second region except the first region (uncovered region) 111B1 within the lateral face 111B of the hole 111. The plating layer 122 covers the seed layer 121 and at least a part of the uncovered region 111B1.
Abstract:
PROBLEM TO BE SOLVED: To form the conductive connection member of a multi-layer wiring board by a simple procedure. SOLUTION: A multi-layer wiring board 102 is configured such that a wiring layer 110 containing a plurality of vias 114 formed in an insulating film 112 so as to be exposed to the other face side and a wiring layer 130 containing a plurality of vias 138 formed in an insulating film 132 formed on one face side at the opposite side of the other face are laminated. In the multi-layer wiring board 102, each of the plurality of vias 138 formed in the wiring layer 130 is connected directly or via the other conductive materials to any of the vias 114, and each of the plurality of vias 114 is connected directly or via the other conductive materials to any of the vias 138, wherein each of the plurality of vias 114 includes dummy conductive connection members (via 114c, via 114d) which do not configure any current path between the connected via 138 and itself. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a semiconductor package, capable of preventing incidence of static electricity from an internal electrode group in an assembly process, and capable of reducing power consumption, and to provide a method of manufacturing the semiconductor package. SOLUTION: The method of manufacturing the semiconductor package includes: a step of forming a static electricity protective element in a wafer; a step of forming a first projecting internal electrode group on the main surface of the wafer to prevent connection to the static electricity protective element; a step of forming an insulating resin layer on the main surface of the wafer to cover the first internal electrode group; a step of dicing the wafer and creating a first chip including the first internal electrode group after the process of forming the insulating resin layer; and a step of electrically connecting the first internal electrode group to a second internal electrode group provided in the second chip. The electrical connection process includes a step of connecting the first internal electrode group to the second electrode group by allowing the first internal electrode group to pass through the insulating resin layer. COPYRIGHT: (C)2011,JPO&INPIT