Patent classifications
C23C22/68
SHAVING ARTICLE WITH SURFACE MODIFICATION
A method of making a shaving article comprising a substrate comprising stainless steel; and an external polymer coating comprising polymer brushes, the method comprising the steps of: providing said substrate; providing a initiating species comprising an anchor group that is chemically reactive with surface moieties on the substrate, and a polymerization initiator group; reacting said anchor group with said surface moieties of the substrate; providing monomers reactive for polymerization with the polymerization initiator; and polymerizing the monomers with the initiator group of the initiating species.
Aluminum-zinc plated steel sheet and method for producing the same
The aluminum-zinc plated steel sheet according to the present invention includes a plated steel sheet and a covering film that covers the plated steel sheet. The covering film contains a basic compound of transition metal other than cobalt and chromium, and metallic cobalt, or metallic cobalt and a cobalt compound. An amount of the covering film per one side is within a range of 0.01 to 0.8 g/m.sup.2. An amount in terms of mass of transition metal other than cobalt in the covering film per one side of the plated steel sheet is within a range of 4 to 400 mg/m.sup.2. An amount in terms of mass of cobalt in the covering film per one side of the plated steel sheet is within a range of 0.1 to 20 mg/m.sup.2.
Aluminum-zinc plated steel sheet and method for producing the same
The aluminum-zinc plated steel sheet according to the present invention includes a plated steel sheet and a covering film that covers the plated steel sheet. The covering film contains a basic compound of transition metal other than cobalt and chromium, and metallic cobalt, or metallic cobalt and a cobalt compound. An amount of the covering film per one side is within a range of 0.01 to 0.8 g/m.sup.2. An amount in terms of mass of transition metal other than cobalt in the covering film per one side of the plated steel sheet is within a range of 4 to 400 mg/m.sup.2. An amount in terms of mass of cobalt in the covering film per one side of the plated steel sheet is within a range of 0.1 to 20 mg/m.sup.2.
Abrasion- and Peel-Resistant Sol-Gel Coating on Aluminum and Method for Producing a Coating of This Type
Provided herein is an aluminum surface having an abrasion- and peel-resistant sol-gel coating. To obtain the coating, the aluminum surface is treated with an aqueous, oxidizing solution, such that said surface provides a suitable base for the subsequent sol-gel coating.
Abrasion- and Peel-Resistant Sol-Gel Coating on Aluminum and Method for Producing a Coating of This Type
Provided herein is an aluminum surface having an abrasion- and peel-resistant sol-gel coating. To obtain the coating, the aluminum surface is treated with an aqueous, oxidizing solution, such that said surface provides a suitable base for the subsequent sol-gel coating.
PROCESS FOR THE PREPARATION OF A TOPOGRAPHY FOR IMPROVED PROTEIN ADHERENCE ON A BODY MADE OF TITANIUM OR A TITANIUM ALLOY
A process for the preparation of a topography for improved protein adherence on a body made of titanium or a titanium alloy wherein the process includes the subsequent steps of pre-treating the surface including etching the surface with an etching solution containing a mineral acid, and forming on the pre-treated surface obtained under titanate-including sub-microscopic structures by treating the pre-treated surface with an aqueous solution containing an oxidative agent, the sub-microscopic structures extending in at least two dimensions to 1 m at most.
PROCESS FOR THE PREPARATION OF A TOPOGRAPHY FOR IMPROVED PROTEIN ADHERENCE ON A BODY MADE OF TITANIUM OR A TITANIUM ALLOY
A process for the preparation of a topography for improved protein adherence on a body made of titanium or a titanium alloy wherein the process includes the subsequent steps of pre-treating the surface including etching the surface with an etching solution containing a mineral acid, and forming on the pre-treated surface obtained under titanate-including sub-microscopic structures by treating the pre-treated surface with an aqueous solution containing an oxidative agent, the sub-microscopic structures extending in at least two dimensions to 1 m at most.
PICKLING AND PASSIVE FILM TREATING AGENT FOR REMOVING SCALES AND RUSTS ON WELDING PARTS OF STAINLESS STEEL PIPES AND STRUCTURES
A composition for pickling a welded portion and a rust-generated portion according to installation of pipes, structures, plants, and so on formed of stainless steel, and for forming a passive state film thereon is provided. More particularly, the present disclosure relates to a neutral agent for passivating a surface of stainless steel metal in which a neutral agent is obtained by neutralizing a basic aqueous solution to 6.9 pH to 7.1 pH and aerated with carbon dioxide-free air to increase the amount of dissolved oxygen, so that an oxidation reduction potential in a range of 170 mV to 310 mV is obtained.
PICKLING AND PASSIVE FILM TREATING AGENT FOR REMOVING SCALES AND RUSTS ON WELDING PARTS OF STAINLESS STEEL PIPES AND STRUCTURES
A composition for pickling a welded portion and a rust-generated portion according to installation of pipes, structures, plants, and so on formed of stainless steel, and for forming a passive state film thereon is provided. More particularly, the present disclosure relates to a neutral agent for passivating a surface of stainless steel metal in which a neutral agent is obtained by neutralizing a basic aqueous solution to 6.9 pH to 7.1 pH and aerated with carbon dioxide-free air to increase the amount of dissolved oxygen, so that an oxidation reduction potential in a range of 170 mV to 310 mV is obtained.
Method for coating metallic surfaces with nanocrystalline zinc oxide layers, aqueous compositions therefor and use of the surfaces coated in this way
A method for coating metallic surfaces with an aqueous composition, which contains an aqueous solution of a zinc salt, by flooding, spraying and/or immersion, wherein, for spraying or immersion, the initial temperature of the substrate lies in the range from 5 to 400? C., in that, for flooding, the initial temperature of the substrate lies in the range from 100 to 400? C. and in that an anticorrosive nanocrystalline zinc oxide layer is formed on the metallic surface. Corresponding aqueous composition, the nanocrystalline zinc oxide layer and the use of the coated substrates are also disclosed.