Abstract: Production efficiency of a substrate (in particular, a substrate on which a SiC epitaxial film is formed) is improved and formation of the film inside a gas supply port is suppressed. This is accomplished by a substrate processing apparatus including a reaction chamber configured to accommodate a plurality of substrates 14, a heating part installed to surround the reaction chamber and configured to heat the reaction chamber, and a first gas supply pipe 60 extending in the reaction chamber, wherein the first gas supply pipe 60 includes a first gas supply port 68 configured to inject a first gas toward the plurality of substrates 14, and first shielding walls installed at both sides of the first gas supply port to expose the first gas supply port 68, the first shielding walls extending toward the plurality of substrates 14 from the first gas supply port 68.

Abstract: Provided is a substrate processing apparatus capable of maintaining a temperature of a furnace port part at a heat-resistant temperature or less of each member constituting the furnace part. The substrate processing apparatus includes a process chamber configured to process a plurality of substrates vertically stacked at predetermined intervals; a substrate retainer configured to hold the plurality of substrates in the process chamber; and a first heat exchanger installed in the process chamber to support the substrate retainer from a lower portion of the substrate retainer, and configured to perform a heat exchange with a gas flowing in a downward direction from a side of the substrate retainer in the process chamber, wherein the first heat exchanger includes a hollow cylindrical insulating tube vertically extending in the downward direction and an insulating plate installed in the insulating tube, and regions in the insulating tube over and under the insulating plate are spatially connected to each other.

Abstract: Provided is a heat treatment apparatus having a temperature detection unit installed outside a reaction chamber and capable of preventing a process gas from contacting the temperature detection unit to form a film and improving reliability and reproduction of a measurement value of the temperature detection unit.

Abstract: Provided is a heat treatment apparatus in which the temperature of an insulator heated by an induction current can be kept low and a susceptor can be efficiently heated. The heat treatment apparatus is provided for growing silicon carbide single crystal films or silicon carbide polycrystal films on a plurality of silicon carbide substrates. The heat treatment apparatus comprises a coil installed around an outside of a reaction tube to generate a magnetic field, a susceptor installed in the reaction tube and configured to be heated by an induction current, and an insulator installed between the susceptor and the reaction tube. The insulator is divided into parts in a circumferential direction, and an insulating material is inserted between the divided parts of the insulator.

Abstract: A substrate processing apparatus comprises: a reaction chamber to process a substrate; a heating target object disposed in the reaction chamber to surround at least a region where the substrate is disposed, the heating target object having a cylindrical shape with a closed end; an insulator disposed between the reaction chamber and the heating target object to surround the heating target object, the insulator having a cylindrical shape with a closed end facing the closed end of the heating target object; an induction heating unit disposed outside the reaction chamber to surround at least the region where the substrate is disposed; a first gas supply system to supply at least a source gas into the reaction chamber; and a controller to control the first gas supply system so that the first gas supply system supplies at least the source gas into the reaction chamber for processing the substrate.

Abstract: Provided is a substrate processing apparatus. The substrate processing apparatus comprises a reaction tube; a heating device configured to heat the reaction tube; and a manifold installed outward as compared with the heating device and made of a nonmetallic material. A first thickness of the manifold defined in a direction perpendicular to a center axis of the reaction tube is greater than a second thickness of the manifold defined at a position adjacent to the reaction tube in a direction parallel to the center axis of the reaction tube. The manifold comprises a protrusion part of which at least a portion protrudes inward more than an inner wall of the reaction tube, and a gas supply unit disposed at at least the protrusion part for supplying gas to an inside of the reaction tube.