Abstract:
Coated articles, systems incorporating the coated articles, and processes of applying the coating to form the coated articles are disclosed. The coated article a substrate and a coating on the substrate. The coating includes silicon, carbon, and hydrogen. A post-exposure water contact angle of the coating, after being exposed to ultrasonic agitation using an aqueous solution of a caustic salt, remains above 80 degrees, remains greater than 60% of a pre-exposure water contact angle, or both.
Abstract:
Pharmaceutical manufacturing processes and products are disclosed. A pharmaceutical manufacturing process includes flowing a liquid through a pathway. The liquid contacts a non-polymeric coating on a substrate within the pathway. The substrate is a metal or metallic substrate. A pharmaceutical product is produced by flowing a liquid through a pathway. The liquid contacts a non-polymeric coating on a substrate within the pathway. The substrate is a metal or metallic substrate.
Abstract:
Chemical vapor deposition articles and processes include a chemical vapor deposition functionalization on a material, the material including an sp3 arrangement of carbon. The chemical vapor deposition functionalization is positioned to be contacted by a process fluid, a hydrocarbon, an analyte, exhaust, or a combination thereof. Additionally or alternatively, the chemical vapor deposition functionalization is not of a refrigerator shelf or a windshield.
Abstract:
A coated article and a chemical vapor deposition process are disclosed. The coated article includes a functionalized layer applied to the coated article by chemical vapor deposition. The functionalized layer is a layer selected from the group consisting of an oxidized-then-functionalized layer, an organofluoro treated layer, a fluorosilane treated layer, a trimethylsilane treated surface, an organofluorotrialkoxysilanes treated layer, an organofluorosilylhydrides-treated layer, an organofluoro silyl treated layer, a tridecafluoro 1,1,2,2-tetrahydrooctylsilane treated layer, an organofluoro alcohol treated layer, a pentafluoropropanol treated layer, an allylheptafluoroisopropyl ether treated layer, a (perfluorobutyl) ethylene treated layer, a (perfluorooctyl) ethylene treated layer, and combinations thereof. The process includes applying the functionalized layer.
Abstract:
A coated article and a chemical vapor deposition process are disclosed. The coated article includes a functionalized layer applied to the coated article by chemical vapor deposition. The functionalized layer is a layer selected from the group consisting of an oxidized-then-functionalized layer, an organofluoro treated layer, a fluorosilane treated layer, a trimethylsilane treated surface, an organofluorotrialkoxysilanes treated layer, an organofluorosilylhydrides-treated layer, an organofluoro silyl treated layer, a tridecafluoro 1,1,2,2-tetrahydrooctylsilane treated layer, an organofluoro alcohol treated layer, a pentafluoropropanol treated layer, an allylheptafluoroisopropyl ether treated layer, a (perfluorobutyl) ethylene treated layer, a (perfluorooctyl) ethylene treated layer, and combinations thereof. The process includes applying the functionalized layer.
Abstract:
A wear coating is disclosed that includes a layer treated by a trifunctional organosilane. An article is also disclosed, the article having a surface to which the wear coating is applied. A method of applying the wear coating is also disclosed. In some embodiments, the organosilane is trimethylsilane and the wear coating is applied by chemical vapor deposition, followed by heat treating the wear coating in the presence of the trimethylsilane.
Abstract in simplified Chinese:本发明描述了半导体制造方法。所述半导体制造方法的一个实施例包括提供通过经化学气相沉积使二甲基硅烷分解而形成的层,所述层由流体材料施加;然后将所述层定位在系统中以便生产半导体产品。除此之外或作为另外一种选择,生产所述半导体产品和/或所述层位于衬底上。
Abstract in simplified Chinese:在此揭示一种热化学气相沉积涂覆对象以及热化学气相沉积方法。该对象包括一基材以及在该基材上之一热化学气相沉积涂层。该热化学气相沉积涂层包括经由限制扩散速率之热化学气相沉积产生之特性。该热化学气相沉积方法包括将一气态物种引入一容器,以及通过该气态物种之限制扩散速率之反应,在该容器内之一对象上产生一热化学气相沉积涂层。
Abstract:
Un método (200) de deposición química de vapor térmica, comprendiendo el método (200): la preparación de (202) un sustrato (100) en una cámara de deposición química de vapor; la descomposición térmica (204) de dimetilsilano en la cámara de deposición química de vapor para formar un recubrimiento (102), realizándose la descomposición térmica en ausencia de energías de deposición adicionales, tales como campos de plasma y microondas, y en las siguientes condiciones: - a una presión de entre 6,8948x10-3 MPa (6,8948x10-2 bar (1,0 l.p.c.a.)) y 0,68948 MPa (6,8948 bar (100 l.p.c.a.)), preferentemente a una presión de entre 3,4474x10-2 MPa (3,4474x10-1 bar (5 l.p.c.a.)) y aproximadamente 0,27579 MPa (2,7579 bar (40 l.p.c.a.)); y - a una temperatura de entre 300 °C y 600 °C; y - durante un tiempo de 30 minutos a 24 horas.
Abstract:
Thermal chemical vapor deposition coated articles and thermal chemical vapor deposition processes are disclosed. The article includes a substrate and a thermal chemical vapor deposition coating on the substrate. The thermal chemical vapor deposition coating includes properties from being produced by diffusion-rate-limited thermal chemical vapor deposition. The thermal chemical vapor deposition process includes introducing a gaseous species to a vessel and producing a thermal chemical vapor deposition coating on an article within the vessel by a diffusion-rate-limited reaction of the gaseous species. 107--,,. 115