Abstract: A method of fabricating a semiconductor structure includes the following steps. A semiconductor wafer is provided. A plurality of first surface mount components and a plurality of second surface mount components are bonded onto the semiconductor wafer, wherein a first portion of each of the second surface mount components is overhanging a periphery of the semiconductor wafer. A first barrier structure is formed in between the second surface mount components and the semiconductor wafer. An underfill structure is formed under a second portion of each of the second surface mount components, wherein the first barrier structure blocks the spreading of the underfill structure from the second portion to the first portion.

Abstract: A vehicle-carrying leisure-purpose parasol rack includes a screw rod including a hollow tubular grip and a holding seat attached thereto; a connection ring having a thread in mating engagement with the screw rod; a plurality of clamp arms, each of which includes a clamping terminal in a hook form, an extension section, and a mounting terminal, the clamping terminal and the mounting terminal being arranged on two opposite ends of the extension section, the mounting terminals respectively corresponding to retaining notches formed in the connection ring so that the clamp arms are detachably connected to the connection ring; and an assisting member having a fixed terminal and a hollow tubular terminal. The fixed terminal is detachably connected to the extension section of one of the clamp arms, such that the hollow tubular terminal is in alignment with the hollow tubular grip.

Abstract: A vehicle-carrying leisure-purpose parasol rack includes a screw rod including a hollow tubular grip and a holding seat attached thereto; a connection ring having a thread in mating engagement with the screw rod; a plurality of clamp arms, each of which includes a clamping terminal in a hook form, an extension section, and a mounting terminal, the clamping terminal and the mounting terminal being arranged on two opposite ends of the extension section, the mounting terminals respectively corresponding to retaining notches formed in the connection ring so that the clamp arms are detachably connected to the connection ring; and an assisting member having a fixed terminal and a hollow tubular terminal. The fixed terminal is detachably connected to the extension section of one of the clamp arms, such that the hollow tubular terminal is in alignment with the hollow tubular grip.

Abstract: A solar cell includes a solar cell body, a plurality of busbars and a plurality of finger electrodes. The number of the finger electrodes is adjusted according to a width of the finger electrodes, a gap between the finger electrodes and a laid length of the solar cell body, such that a photovoltaic conversion efficiency of the solar cell can be substantially enhanced.

Abstract: A solar cell is disclosed, which includes: a semiconductor substrate, an anti-reflective layer, a passivation layer, a back electrode and back bus bar. The semiconductor substrate has a first surface and a second surface. The anti-reflective layer is disposed on the first surface. The back electrode is a continuous electrode or a flat electrode overlapping the whole back side of the solar cell. The continuous electrode or the flat electrode connects to the semiconductor substrate through a continuous opening. In another embodiment, the continuous electrode is passing through the passivation layer directly and connecting to the semiconductor substrate. That is, the solar cell includes a continuous opening or a continuous electrode.

Abstract: A solar cell includes a photovoltaic substrate having a first surface and a second surface and a plurality of bus bar electrode net structures. The bus bar electrode net structures are separately disposed on the first surface, each bus bar electrode net structure includes a bus bar electrode, a plurality of finger electrodes, at least one connecting line electrode and at least one vertical finger electrode. The bus bar electrode is disposed on the first surface. The finger electrodes are separately disposed at two sides of the bus bar electrode. The connecting line electrode is disposed on the first surface. Each connecting line electrode connects with ends of at least two finger electrodes. The vertical finger electrode is disposed on the first surface, and is parallel to the bus bar electrode and disposed between the two ends of the finger electrode to connect with at least two adjacent finger electrodes.

Abstract: A solar cell includes a silicon semiconductor substrate, a composite multifunctional protective film, a plurality of front electrodes and a plurality of back electrodes. The silicon semiconductor substrate has a roughened first surface. A depth of the doped layer arranged under the first surface ranges from 200 nm to 1000 nm. A surface doping concentration of the doped layer ranges from 1×1019 to 5×1020 atoms/cm3. The composite multifunctional protective film is disposed above the doped layer. The composite multifunctional protective film has a plurality of layers, so as to reduce reflectance of incident light. A layer thickness of a layer closest to the doped layer among these layers is less than 40 nm. The plurality of front electrodes penetrates the composite multifunctional protective film and is disposed on the doped layer. The plurality of back electrodes is disposed on a second surface of the silicon semiconductor substrate.

Abstract: An electrode structure is disposed on a substrate of a solar cell. The electrode structure includes a plurality of bus electrodes, a plurality of finger electrodes, and at least one connection electrode. The bus electrodes are separately disposed on the substrate. The finger electrodes are disposed on two sides of the bus electrodes and electrically connect to the bus electrodes. The connection electrode is disposed on a side of the substrate and connects with at least two finger electrodes. The connection electrode, bus electrodes and the finger electrodes are formed by at least two screen printing processes, and at least one of the screen printing processes does not form the bus electrodes. Thus, the thicknesses of the finger electrodes are greater than those of the bus electrodes.

Abstract: A semiconductor substrate includes a substrate, at least a semiconductor layer, a first anti-reflection layer, and a second anti-reflection layer. The semiconductor layer is disposed on the substrate. The first anti-reflection layer is disposed on the semiconductor layer. The second anti-reflection layer is disposed on the first anti-reflection layer. The second anti-reflection layer is a discontinuous layer with the capability of photon conversion.

Abstract: An electrode structure for a solar cell is disposed on a substrate of the solar cell and includes a plurality of bus electrodes and finger electrodes. The bus electrodes are formed by separately disposing a conductive material on the substrate. The finger electrodes are formed by separately disposing a conductive material on the substrate and at two sides of the bus electrodes. The bus electrodes and the finger electrodes are formed by two screen printing processes. The bottom portion of the finger electrodes are formed by a first screen printing process, and the top portion of the finger electrodes and the bus electrodes are formed by a second screen printing process. The electrode structure can enhance the conductivity of electrodes and increase the reliability and yield of the solar cell, thereby achieving the purposes of increasing the photo-electro transition efficiency of the solar cell and decreasing the manufacturing cost.

Abstract: An electrode structure is disposed on a substrate of a solar cell. The electrode structure includes a plurality of bus electrodes and a plurality of finger electrodes. The bus electrodes are separately disposed on the substrate. The finger electrodes are disposed on two sides of the bus electrodes and electrically connect to the bus electrodes. The bus electrodes and the finger electrodes are formed by at least two screen printing processes, and at least one of the screen printing processes does not form the bus electrodes. Thus, the thicknesses of the finger electrodes are greater than those of the bus electrodes.

Abstract: A fluorescent material of Formula (I) is provided. In Formula (I), all the variables thereof are described in the specification. The invention also provides a solar cell with the disclosed fluorescent material. The solar cell with the fluorescent material includes a solar cell and a fluorescent layer including the disclosed fluorescent material of Formula (I) coating on the solar cell.