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    • 1. 发明申请
    • PV MODULE AND METHOD FOR MANUFACTURING PV MODULE
    • PV模块和PV模块的制造方法
    • US20090314343A1
    • 2009-12-24
    • US12524082
    • 2008-02-26
    • Kaoru OkaniwaTakehiro ShimizuHiroaki Morikawa
    • Kaoru OkaniwaTakehiro ShimizuHiroaki Morikawa
    • H01L31/0216H01L31/18
    • H01L31/0236H01L31/02168H01L31/02363H01L31/048Y02E10/50
    • Provided is a photovoltaic (PV) module by which electric power generation efficiency can be improved by improving light use rate. An encapsulant (202) is permitted to be a first layer (A cover glass (201) and the encapsulant (202) are considered optically equivalent, since their refractive indexes are substantially the same), a light trapping film (300) to be a second layer, an anti-reflective layer (104) to be a third layer, and an n-type layer (103) to be a fourth layer. When the reflective indexes of the layers are expressed as first reflective index (n1), second reflective index (n2), third reflective index (n3) and fourth reflective index (n4), relationship n1≦n2≦n3≦n4 is satisfied. The light trapping film (300) of the second layer, i.e., one layer among the light transmitting layers, has a structured shape on an incident side (300a) where incident light (205) enters.
    • 提供了通过提高光利用率可以提高发电效率的光伏(PV)模块。 允许密封剂(202)为第一层(盖玻璃(201),并且密封剂(202)被认为是光学等效的,因为它们的折射率基本上相同),光捕获膜(300)为 第二层,作为第三层的抗反射层(104)和作为第四层的n型层(103)。 当这些层的反射指数被表示为第一反射指数(n1),第二反射指数(n2),第三反射指数(n3)和第四反射指数(n4)时,关系n1 <= n2 <= n3 <= n4 满意。 第二层的光捕获膜(300),即透光层中的一层,在入射光(205)入射的入射侧(300a)上具有结构形状。
    • 6. 发明授权
    • Solar battery cell connection method and solar battery module
    • 太阳能电池单元连接方法和太阳能电池模块
    • US08809102B2
    • 2014-08-19
    • US12443064
    • 2007-10-13
    • Takehiro ShimizuKaoru OkaniwaNaoki Fukushima
    • Takehiro ShimizuKaoru OkaniwaNaoki Fukushima
    • H01L21/00H01L31/042H01L31/05
    • H01L31/0508H01L31/05H01L31/0512Y02E10/50Y10T156/10
    • A method of connecting solar battery cells, each provided with a front-face and a back-face electrode, comprises: preparing a wiring member including a strip-like conductive substrate and an adhesive layer provided on one face of the substrate, and bonding the adhesive layer on one end portion of the wiring member with the front-face electrode or the back-face electrode of one cell; turning an other end portion of the wiring member having completed the above preparation, around a central axis along a longitudinal direction so an adhesive layer surface of the other end portion is opposite in orientation to an adhesive layer surface of the one end portion; and then bonding the adhesive layer of the other end portion of the wiring member with an electrode of another solar battery cell having an opposite polarity to the electrode of the one cell previously bonded in the aforementioned preparation process.
    • 一种连接太阳能电池单元的方法,每个太阳能电池单元均设有正面和背面电极,包括:制备包括带状导电基底的布线构件和设置在基底的一个表面上的粘合层, 布线部件的一个端部上的粘合剂层与一个电池的正面电极或背面电极; 使完成上述制备的配线部件的另一端部沿着纵向方向围绕中心轴转动,使得另一端部的粘合剂层表面相对于一个端部的粘合剂层表面相反; 然后将具有相反极性的另一个太阳能电池单电极的布线部件的另一端部的粘合层与前述制备工序中预先接合的一个电池的电极接合。
    • 7. 发明申请
    • SOLAR BATTERY CELL CONNECTION METHOD AND SOLAR BATTERY MODULE
    • 太阳能电池单元连接方法和太阳能电池模块
    • US20100116310A1
    • 2010-05-13
    • US12443064
    • 2007-10-10
    • Takehiro ShimizuKaoru OkaniwaNaoki Fukushima
    • Takehiro ShimizuKaoru OkaniwaNaoki Fukushima
    • H01L31/042B29C65/48
    • H01L31/0508H01L31/05H01L31/0512Y02E10/50Y10T156/10
    • The method of connecting solar battery cells of the present invention is a method of connecting solar battery cells which are each provided with a front-face electrode on a front face thereof and a back-face electrode on a back face thereof, and comprises: a first process of preparing a wiring member including a strip-like conductive substrate and an adhesive layer provided on one face of the conductive substrate, and bonding the adhesive layer on one end portion of the wiring member with a front-face electrode or a back-face electrode of one solar battery cell; a second process of turning an other end portion of the wiring member having gone through the first process, around a central axis along a longitudinal direction thereof so that an adhesive layer surface of the other end portion is opposite in orientation to an adhesive layer surface of the one end portion; and a third process of bonding the adhesive layer of the other end portion of the wiring member having gone through the second process with an electrode of an other solar battery cell having an opposite polarity to the electrode of the one solar battery cell which has been bonded in the aforementioned first process.
    • 本发明的太阳能电池单元的连接方法是将前面的前面电极和后面电极的背面电极分别连接的太阳能电池单元的连接方法,包括: 制备包括带状导电基底的布线构件和设置在导电基底的一个表面上的粘合层的第一种方法,并且将布线构件的一个端部上的粘合剂层与前面电极或背面电极接合, 一个太阳能电池单元的面电极; 使经过第一工序的配线部件的另一端部沿着其长度方向绕中心轴转动的第二工序,使得另一端部的粘合剂层的表面朝向与 一端部; 以及将通过第二工序的配线部件的另一端部的粘合层与具有相反极性的其他太阳能电池单元的电极与已经结合的一个太阳能电池单元的电极接合的第三工序 在上述第一过程中。
    • 10. 发明授权
    • SIMD operation system capable of designating plural registers via one register designating field
    • SIMD操作系统能够通过一个寄存器指定字段指定多个寄存器
    • US07043627B2
    • 2006-05-09
    • US09944409
    • 2001-09-04
    • Takehiro ShimizuFumio Arakawa
    • Takehiro ShimizuFumio Arakawa
    • G06F15/00
    • G06F9/30025G06F9/30032G06F9/30036G06F9/30098G06F9/30109G06F9/3012G06F9/3885
    • In view of a necessity of alleviating factors obstructing an effect of SIMD operation such as in-register data alignment in high speed formation of an SIMD processor, numerous data can be supplied to a data alignment operation pipe 211 by dividing a register file into four banks and enabling to designate a plurality of registers by a single piece of operand to thereby enable to make access to four registers simultaneously and data alignment operation can be carried out at high speed. Further, by defining new data pack instruction, data unpack instruction and data permutation instruction, data supplied in a large number can be aligned efficiently. Further, by the above-described characteristic, definition of multiply accumulate operation instruction maximizing parallelism of SIMD can be carried out.
    • 鉴于在SIMD处理器的高速形成中需要减轻妨碍SIMD操作的影响的因素,例如记录数据对准,可以通过将寄存器文件分成四个存储体来提供数据对准操作管道211的许多数据 并且能够通过单个操作数指定多个寄存器,从而能够同时访问四个寄存器,并且可以高速执行数据对准操作。 此外,通过定义新的数据包指令,数据解包指令和数据置换指令,可以有效地对齐大量提供的数据。 此外,通过上述特征,可以进行SIMD的并行化的乘法累积运算指令的定义。