C23C16/453

PROCESS OF FORMING SILICON-CONTAINING FILM AND METHOD OF MANUFACTURING INTEGRATED CIRCUIT DEVICE USING THE SAME

A silicon compound, a composition for depositing a silicon-containing film, a process of forming a silicon-containing film, and a method of manufacturing an integrated circuit device, the silicon compound is represented by Chemical Formula (1):

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PROCESS OF FORMING SILICON-CONTAINING FILM AND METHOD OF MANUFACTURING INTEGRATED CIRCUIT DEVICE USING THE SAME

A silicon compound, a composition for depositing a silicon-containing film, a process of forming a silicon-containing film, and a method of manufacturing an integrated circuit device, the silicon compound is represented by Chemical Formula (1):

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OBJECT WITH A HIGH-TEMPERATURE-RESISTANT OMNIPHOBIC NON-STICK COATING, AND METHOD FOR PRODUCING SUCH AN OBJECT

An object having a high temperature resistance includes an inorganic substrate, an omniphobic non-stick coating, and an adhesion-promoting coating containing amorphic silicon dioxide and located between the inorganic substrate and the omniphobic non-stick coating.

METHOD FOR PRODUCING ORIENTED ELECTRICAL STEEL SHEET WITH ULTRA-LOW IRON LOSS
20210054472 · 2021-02-25 ·

Provided is a method for producing an oriented electrical steel sheet with an ultra-low iron loss.

The method for producing an oriented electrical steel sheet according to the present disclosure comprises: a step of preparing an oriented electrical steel sheet; and a step of forming a ceramic coating layer by subjecting a gas-phase ceramic precursor to a contact reaction in a plasma state using the atmospheric pressure plasma CVD (APP-CVD) process, on a part of or the entire one or both surfaces of the electrical steel sheet.

METHOD FOR PRODUCING ORIENTED ELECTRICAL STEEL SHEET WITH ULTRA-LOW IRON LOSS
20210054472 · 2021-02-25 ·

Provided is a method for producing an oriented electrical steel sheet with an ultra-low iron loss.

The method for producing an oriented electrical steel sheet according to the present disclosure comprises: a step of preparing an oriented electrical steel sheet; and a step of forming a ceramic coating layer by subjecting a gas-phase ceramic precursor to a contact reaction in a plasma state using the atmospheric pressure plasma CVD (APP-CVD) process, on a part of or the entire one or both surfaces of the electrical steel sheet.

METHOD FOR PRODUCING ORIENTED ELECTRICAL STEEL SHEET WITH ULTRA-LOW IRON LOSS
20210062342 · 2021-03-04 ·

Provided is a method for producing an oriented electrical steel sheet with an ultra-low iron loss.

The method for producing an oriented electrical steel sheet according to the present disclosure is a method for producing an oriented electrical steel sheet comprising the processes of performing reheating, hot rolling, hot-rolled sheet annealing, cold rolling, primary recrystallization annealing and secondary recrystallization annealing on a steel slab, whereby a ceramic coating layer is formed by subjecting a gas-phase ceramic precursor to a contact reaction in a plasma state using the atmospheric pressure plasma CVD (APP-CVD) process, on a part of or the entire one or both surfaces of a steel sheet which has been subjected to the primary recrystallization annealing, and then secondary recrystallization annealing is performed thereon.

Shaping equipment and facility for gas-phase chemical infiltration of fibrous preforms

A shaping tooling for chemical vapor infiltration of a fiber preform includes a structural enclosure formed by supports each provided with a multiply-perforated zone. Each of the supports has in its inside face an uncased zone that includes the multiply-perforated zone. The shaping tooling further includes first and second shaping mold functional elements, each present in a respective one of the uncased zones of the support. Each shaping mold functional element has a first face of a determined shape corresponding to the shape of the part that is to be made and a second face that is held facing the inside face of a support. Each functional element has a plurality of perforations and presents a number of perforations, a size of perforations, or a shape of perforations that differs from the number, the size, or the shape of the perforations present in the facing support.

Shaping equipment and facility for gas-phase chemical infiltration of fibrous preforms

A shaping tooling for chemical vapor infiltration of a fiber preform includes a structural enclosure formed by supports each provided with a multiply-perforated zone. Each of the supports has in its inside face an uncased zone that includes the multiply-perforated zone. The shaping tooling further includes first and second shaping mold functional elements, each present in a respective one of the uncased zones of the support. Each shaping mold functional element has a first face of a determined shape corresponding to the shape of the part that is to be made and a second face that is held facing the inside face of a support. Each functional element has a plurality of perforations and presents a number of perforations, a size of perforations, or a shape of perforations that differs from the number, the size, or the shape of the perforations present in the facing support.

METHOD AND APPARATUS FOR COATING CONTAINERS
20200307859 · 2020-10-01 ·

Provided is a method for coating containers, and in particular beverage containers which are suitable and intended to receive a liquid, wherein the container to be coated has a main body, a shoulder region, a base region and a mouth region, wherein for coating of an inner wall and/or an outer wall of the container a silicon-containing coating material is produced from a flowable precursor, which is applied to the inner wall and/or the outer wall of the container. The container to be coated is a container made from a fiber-based material.

Composites including silicon-oxy-carbide layers and methods of making the same

Composites comprising at least one silicon-oxy-carbide (SOC) layer deposited onto a polymeric matrix substrate to enhance their thermo-oxidative stability are provided. The SOC layer is formed onto the polymeric matrix substrate by atmospheric plasma deposition to produce an thermo-oxidative barrier coating or an adhesion-promoting layer to enable the deposition of a variety of known (or future developed) metallic and/or ceramic materials as oxygen and/or thermal barriers.