Abstract: The present invention relates to a substrate processing apparatus: including a chamber comprising a body having an inner space and a top lid provided on an upper part of the body, the top lid having at least one gas input port; a substrate supporting unit rotatably installed inside the chamber to support a plurality of substrates; and a gas injection device comprising a central injection unit provided on an upper part of the substrate supporting unit to inject a gas into a central region of the substrate supporting unit, a source gas injection unit provided around the central injection unit to inject a source gas into the substrate supporting unit, a reaction gas injection unit provided around the central injection unit to inject a reaction gas into the substrate supporting unit and a purge gas injection unit disposed between the source gas injection unit and the reaction gas injection unit; wherein at least one of the source gas injection unit and the reaction gas injection unit comprises a main injection un

Abstract: Provided are a deposition apparatus and a method of manufacturing a semiconductor device. In the method, a reaction chamber provided with a gaseous source supply unit and a liquid source supply unit is prepared, and an etch stop layer is formed on a substrate by using a gaseous source. Then, an interlayer insulation layer is formed on the etch stop layer by using a vaporized liquid source and a vaporized dopant source. In this way, the etch stop layer and the interlayer insulation layer are formed in-situ in the same reaction chamber.

Abstract: The present invention relates to a substrate processing apparatus: including a chamber comprising a body having an inner space and a top lid provided on an upper part of the body, the top lid having at least one gas input port; a substrate supporting unit rotatably installed inside the chamber to support a plurality of substrates; and a gas injection device comprising a central injection unit provided on an upper part of the substrate supporting unit to inject a gas into a central region of the substrate supporting unit, a source gas injection unit provided around the central injection unit to inject a source gas into the substrate supporting unit, a reaction gas injection unit provided around the central injection unit to inject a reaction gas into the substrate supporting unit and a purge gas injection unit disposed between the source gas injection unit and the reaction gas injection unit; wherein at least one of the source gas injection unit and the reaction gas injection unit comprises a main injection un

Abstract: Provided are methods and apparatuses for manufacturing a multilayer metal thin film without additional heat treatment processes. The method of manufacturing a multilayer metal thin film including steps of: (a) forming a first metal layer on a substrate by flowing a first metal precursor into a first reaction container; and (b) forming a second metal layer on the first metal layer by flowing a second metal precursor into a second reaction container, wherein the step (b) is performed in a range of a heat treatment temperature of the first metal layer so that the second metal layer is formed as the first metal layer is heat-treated.

Abstract: Disclosed are a method for manufacturing a solar cell by processing a surface of a silicon substrate for a solar cell, a solar cell manufactured by the method, and a substrate processing system for performing the method. The method for manufacturing a solar cell comprises protrusion forming step including wet-etching process and for forming a plurality of minute protrusions on a light receiving surface of a crystalline silicon substrate, and planarization step of planarizing the bottom surface, the opposite surface to the light receiving surface of the substrate during or after the protrusion forming step.

Abstract: An apparatus for semiconductor processing capable of performing semiconductor processing such as etching, depositing, etc. on a surface of a substrate such as a wafer. The apparatus for semiconductor processing, comprises: a reaction chamber having a gate through which a substrate to be processed is transferred; one or more shower heads disposed at an upper side of the reaction chamber, for spraying gas so as to perform semiconductor processing; one or more wafer supporting units disposed at an inner lower side of the reaction chamber in correspondence to each of the shower heads, for supporting the substrate; a processing space forming unit disposed in the reaction chamber, for forming a processing space for semiconductor processing by sealing the shower heads and the wafer supporting units; and an exhausting system connected to the processing space forming unit for controlling a pressure and air exhaustion inside the reaction chamber and the processing space formed by the processing space forming unit.

Abstract: Disclosed is a surface processing method of a crystalline silicon substrate for a solar cell, and a method for manufacturing a solar cell. The surface processing method of a substrate for a solar cell comprises first surface processing step for forming a plurality of first protrusions on surfaces of a substrate by etching the crystalline silicon substrate by using an aqueous solution, second surface processing step for forming a plurality of second protrusions smaller than the first protrusions by adhering etching residues onto an upper surface, a light receiving surface among the surfaces of the substrate, by using first etching gas, and residue removing step for removing etching residues adhered onto the upper surface of the substrate having undergone the second surface processing step.

Abstract: The present invention relates to a semiconductor manufacturing device, which can be applied in a semiconductor metal interconnection process, and a manufacturing method thereof. The semiconductor manufacturing device includes a loadlock chamber, at least one process chamber, a transfer chamber, and an oxidation preventing gas supply unit. The process chamber processes an annealing process by receiving a substrate. The transfer chamber transfers the substrate between the loadlock chamber and the process chamber. The oxidation preventing gas supply unit supplies oxidation preventing gas into either the transfer chamber or the loadlock chamber.

Abstract: Provided is a thin film deposition apparatus which comprises a chamber, a susceptor, a source gas supply part, and a susceptor support. The chamber has an inner space in which a deposition process is performed. The susceptor is disposed within the chamber to directly support a plurality of substrates along a circumference of a center of a top surface or support a substrate holder on which at least one substrate is disposed. The source gas supply part supplies first and second source gases into a central portion of an upper side of the susceptor in a state where the first and second gases are separated from each other. Also, the source gas supply part respectively injects the first and second source gases separated from each other toward a circumference of the susceptor through vertically arranged source gas injection holes to supply the first and second source gases onto the substrates disposed on the susceptor.

Abstract: A solar cell and a fabricating method thereof are provided. In the method of fabricating the solar cell, a p-type semiconductor substrate on whose light-receiving surface an anti-reflection coating is formed is loaded into a processing chamber. In this case, the p-type semiconductor substrate may be loaded on a substrate support of an apparatus of processing a plurality of substrates along the circumference of the substrate support, in the state where the back surface of the p-type semiconductor substrate faces upward. Then, a back surface field (BSF) layer having the characteristic of Negative Fixed Charge (NFC) is formed with AlO, AN or ALON on the back surface of the p-type semiconductor substrate.

Abstract: Provided is a method of manufacturing a semiconductor device. In the method, after a thin liner is formed on a substrate on which a lower interconnection is formed, a silicon source is supplied to form a silicide layer under the liner by a reaction between the silicon source and the lower interconnection, and the silicide layer is nitrided and an etch stop layer is formed. Therefore, the lower interconnection is prevented from making contact with the silicon source, variations of the surface resistance of the lower interconnection can be prevented, and thus high-speed devices can be fabricated.

Abstract: Provided are a showerhead assembly for depositing a thin film on a substrate and a thin film deposition apparatus having the same. The showerhead assembly includes a plurality of gas injection units radially disposed above a substrate, each of the plurality of gas injection units comprising a receiving part configured to receive a gas supplied from the outside and a plurality of injection holes configured to inject the gas within the receiving part.

Abstract: Disclosed is an apparatus for manufacturing semiconductors, to be used for various processes in semiconductor manufacture processing, such as the forming of layers on wafers. A tube has a processing space therein and a discharge hole at a side thereof. A boat can be loaded and unloaded through a lower opening of the tube. Susceptors are vertically separated from one another and supported within the boat, have a central hole defined in the respective centers of rotation thereof, and have a plurality of wafers stacked around a central perimeter on the respective top surfaces thereof. A supply tube is installed at the top of the boat and passes through each central hole of the susceptors, and defines discharge holes for discharging processing gas supplied from the outside onto each top surface of the susceptors.

Abstract: Provided are a gas injection device and substrate processing apparatus using the same. The gas injection device includes a plurality of gas injection units disposed above a substrate support part rotatably disposed within a chamber to support a plurality of substrates, the plurality of gas injection units being disposed along a circumference direction with respect to a center point of the substrate support part to inject a process gas onto the substrates. Wherein each of the plurality of gas injection units includes a top plate in which an inlet configured to introduce the process gas is provided and an injection plate disposed under the top plate to define a gas diffusion space between the injection plate and the top plate along a radius direction of the substrate support part, the injection plate having a plurality of gas injection holes under the gas diffusion space to inject the process gas introduced through the inlet and diffused in the gas diffusion space onto the substrate.

Abstract: Provided are a gas injection device and substrate processing apparatus using the same. The gas injection device includes a plurality of gas injection units disposed above a substrate support part rotatably disposed within a chamber to support a plurality of substrates, the plurality of gas injection units being disposed along a circumference direction with respect to a center point of the substrate support part to inject a process gas onto the substrates. Each of the plurality of gas injection units includes a top plate in which an inlet configured to introduce the process gas is provided and an injection plate disposed under the top plate to define a gas diffusion space between the injection plate and the top plate along a radius direction of the substrate support part, the injection plate having a plurality of gas injection holes under the gas diffusion space to inject the process gas introduced through the inlet and diffused in the gas diffusion space onto the substrate.

Abstract: Disclosed is an apparatus for manufacturing semiconductors, to be used for various processes in semiconductor manufacture processing, such as the forming of layers on wafers. A tube has a processing space therein and a discharge hole at a side thereof. A boat can be loaded and unloaded through a lower opening of the tube. Susceptors are vertically separated from one another and supported within the boat, have a central hole defined in the respective centers of rotation thereof, and have a plurality of wafers stacked around a central perimeter on the respective top surfaces thereof. A supply tube is installed at the top of the boat and passes through each central hole of the susceptors, and defines discharge holes for discharging processing gas supplied from the outside onto each top surface of the susceptors.