Abstract:
Provided is a method of manufacturing a stacked semiconductor device, which includes forming a stacked film on a semiconductor substrate, the stacked film including a plurality of silicon oxide films and a plurality of silicon nitride films, which are alternately arranged on top of each other, and the stacked film being obtained by repeatedly performing a series of operations of forming the silicon oxide film on the semiconductor substrate using one of triethoxysilane, octamethylcyclotetrasiloxane, hexamethyldisilazane and diethylsilane gases, and forming the silicon nitride film on the formed silicon oxide film; etching the silicon nitride films in the stacked film; removing carbons contained in the silicon oxide films, which are not removed in the etching, to reduce a concentration of the carbons; and forming electrodes in regions where the silicon nitride films are etched in the etching.
Abstract:
Provided is a method of forming a seed layer as a seed of a thin film on an underlayer, which includes: forming a first seed layer on a surface of the underlayer by heating the underlayer, followed by supplying an aminosilane-based gas onto the surface of the heated underlayer; and forming a second seed layer on the surface of the underlayer with the first seed layer formed thereon by heating the underlayer, followed by supplying a disilane or higher order silane-based gas onto the surface of the heated underlayer.
Abstract:
A silicone oxide film forming method includes forming a silicon oxide film on a plurality of target objects by supplying a chlorine atom-containing silicon source into a reaction chamber accommodating the plurality of target objects. Forming the silicon oxide film includes making an interior of the reaction chamber be under a hydrogen atmosphere by supplying a hydrogen gas into the reaction chamber.
Abstract:
A support member includes: a mounting unit having a first main surface and a second main surface, the first main surface being configured to mount a first object to be processed thereon and the second main surface being configured to mount a second object to be processed thereon; and a wall installed in a part of the outer peripheral portion along the outer periphery of the mounting unit, the wall having a first portion protruding in a vertical direction than the first object to be processed mounted on the first main surface of the mounting unit. The inner peripheral surface of the first portion of the wall is formed in a first shape that allows the first object to be processed to be held by the first portion of the wall.
Abstract:
Provided is a method of forming a film including a silicon film on a base, including: forming a seed layer on a surface of the base by heating the base and supplying an aminosilane-based gas onto the surface of the heated base; and forming the silicon film on the seed layer by heating the base and supplying a silane-based gas containing no amino group onto the seed layer of the surface of the heated base, wherein a molecule of the aminosilane-based gas used in forming a seed layer comprises two or more silicon atoms.
Abstract:
A method of forming a laminated film includes forming a silicon oxide film on a plurality of target objects loaded in a reaction chamber, and forming a silicon oxynitride film on the plurality of target objects by supplying a silicon source, an oxidizing agent and a nitride agent to the reaction chamber, wherein forming the silicon oxide film and forming the silicon oxynitride film are repeatedly performed for a predetermined number of times on the plurality of target objects to form a laminated film including the silicon oxynitride film and the silicon oxide film.
Abstract:
According to an embodiment of present disclosure, a method of forming a carbon film on a substrate to be processed is provided. The method includes loading a substrate to be processed with a carbon film formed thereon into a processing chamber of a film forming apparatus (Process 1), and thermally decomposing a hydrocarbon-based carbon source gas in the processing chamber to form a carbon film on the substrate to be processed (Process 2). In Process 2, a film forming temperature of the carbon film is set to a temperature less than a thermal decomposition temperature of a simple substance of the hydrocarbon-based carbon source gas without plasma assistance, the hydrocarbon-based carbon source gas and a thermal decomposition temperature drop gas containing a halogen element are introduced into the processing chamber, and a non-plasma thermal CVD method is performed.
Abstract:
A method of forming a silicone oxide film includes: forming a silicon oxide film on a plurality of target objects by supplying a chlorine-containing silicon source into a reaction chamber accommodating the plurality of target objects; and modifying the silicon oxide film, which is formed by forming the silicon oxide film, by supplying hydrogen and oxygen or hydrogen and nitrous oxide into the reaction chamber and making an interior of the reaction chamber be under a hydrogen-oxygen atmosphere or a hydrogen-nitrous oxide atmosphere.