Abstract:
A deposit removal method for removing deposits deposited on the surface of a pattern formed on a substrate by etching, includes an oxygen plasma treatment process for exposing the substrate to oxygen plasma while heating the substrate and a cycle treatment process for, after the oxygen plasma treatment process, repeating multiple cycles of a first period and a second period. In the first period, the substrate is exposed to a mixture of hydrogen fluoride gas and alcohol gas inside a processing chamber and the partial pressure of the alcohol gas is set to the first partial pressure. In the second period, the partial pressure of the alcohol gas is set to the second partial pressure lower than the first partial pressure by exhausting the inside of the processing chamber.
Abstract:
The invention relates to a coating installation, in particular for painting motor vehicle bodies, comprising a transport path (2, 12), along which a plurality of coating objects (1) are transported one after the other through the coating installation, and a plurality of treatment stations (13-17, 18-22, 23-27), in which the coating objects (1) are treated. It is proposed that the transport path (2, 12) branches into a plurality of parallel branches (5-9), in each of which at least one of the treatment stations (13-17, 18-22, 23-27) is arranged.
Abstract:
A method for forming an electronic device having a multilayer structure, comprising: embossing a surface of a substrate so as to depress first and second regions of the substrate relative to at least a third region of the substrate; depositing conductive or semiconductive material from solution onto the first and second regions of the substrate so as to form a first electrode on the first region and a second electrode on the second region, wherein the electrodes are electrically insulated from each other by the third region.
Abstract:
The method of forming an organic film, includes: an organic film formation step of forming an organic film on a surface of a base member using a silane coupling agent; and a post-processing step including a water vapor introduction step of holding the base member on which the organic film has been formed in an atmosphere containing at least water vapor, and a dehydration processing step of holding the base member in an atmosphere having a smaller presence of water vapor than the atmosphere in the water vapor introduction step.
Abstract:
A stimulation electrode is produced having a porous film layer and being partially coated with an insulating parylene (polyparaxylylene) film, whose insulating film has a dielectric breakdown voltage of greater than 100 V. Parylene is deposited on the entire surface of a porous film coating and then partially removed again by plasma. After the partial removal of the parylene, this porous film still has a capacitance of greater than 15 mF/cm2 in a physiological NaCl solution at a frequency of 0.1 Hz. For the stimulation electrode, the transition from the insulating film to the porous film is formed so that the film thickness of the parylene film decreases continuously. In this way, a stimulation electrode having a porous film layer and being partially coated with an insulating parylene film is provided, whose electrode on the non-insulating parylene film-coated surface has a capacitance of greater than 15 mF/cm2 in a physiological NaCl solution at a frequency of 0.1 Hz and whose insulating film advantageously has a dielectric breakdown voltage of greater than 100 V.
Abstract translation:产生具有多孔膜层并部分涂覆绝缘聚对二甲苯(聚对二甲苯)膜的刺激电极,其绝缘膜具有大于100V的绝缘击穿电压。聚对二甲苯沉积在多孔膜涂层的整个表面上, 然后再次通过等离子体去除。 部分去除聚对二甲苯之后,该多孔膜在0.1Hz的频率下在生理NaCl溶液中仍然具有大于15mF / cm 2的电容。 对于刺激电极,形成从绝缘膜到多孔膜的过渡,使得聚对二甲苯膜的膜厚度连续降低。 以这种方式,提供了具有多孔膜层并部分地涂有绝缘聚对二甲苯膜的刺激电极,其非绝缘聚对二甲苯膜涂覆表面上的电极在生理NaCl中具有大于15mF / cm 2的电容 溶液,其频率为0.1Hz,其绝缘膜有利地具有大于100V的介电击穿电压。
Abstract:
Material treatment is effected in a treatment region by at least two energy sources, such as (i) an atmospheric pressure plasma and (ii) an ultraviolet laser directed into the plasma and optionally onto the material being treated. Precursor materials may be dispensed before, and finishing material may be dispensed after treatment. Electrodes for generating the plasma may comprise two spaced-apart rollers. Nip rollers adjacent the electrode rollers define a semi-airtight cavity, and may have a metallic outer layer.
Abstract:
A method for producing hyperthermal molecular hydrogen is disclosed and use of same for selectively breaking C—H or Si—H bonds without breaking other bonds are disclosed. A hydrogen plasma is maintained and protons are extracted with an electric field to accelerate them to an appropriate kinetic energy. The protons enter into a drift zone to collide with molecular hydrogen in gas phase. The cascades of collisions produce a high flux of hyperthermal molecular hydrogen with a flux many times larger than the flux of protons extracted from the hydrogen plasma. The nominal flux ratio of hyperthermal molecular hydrogen to proton is controlled by the hydrogen pressure in the drift zone, and by the length of the drift zone. The extraction energy of the protons is shared by these hyperthermal molecules so that average energy of the hyperthermal molecular hydrogen is controlled by extraction energy of the protons and the nominal flux ratio. Since the hyperthermal molecular hydrogen projectiles do not carry any electrical charge, the flux of hyperthermal hydrogen can be used to engineer surface modification of both electrical insulating products and conductive products. When this method of generating a high flux of hyperthermal molecular hydrogen is applied to bombard organic precursor molecules (or silicone, or silane molecules) with desirable chemical functionality/functionalities on a substrate, the C—H or Si—H bonds are thus cleaved preferentially due to the kinematic selectivity of energy deposition from the hyperthermal hydrogen projectiles to the hydrogen atoms in the precursor molecules. The induced cross-linking reactions produce a stable molecular layer having a controllable degree of cross-linking and retaining the desirable chemical functionality/functionalities of the precursor molecules.
Abstract:
The invention relates to a process for the preparation of a composite material, said composite material comprising a substrate and a layer on the substrate, comprising a vapor-depositing step in which a compound comprising a triazine compound is deposited on the substrate at a pressure below 1000 Pa, whereby the layer is formed, wherein during the vapor-depositing step the temperature of the substrate lies between −15° C. and +125° C. The invention further relates to a composite material, obtainable by the process as disclosed.
Abstract:
The method of forming an organic film, includes: a pre-processing step including a plasma treatment step of carrying out plasma treatment to a surface of a base member, and an exposure processing step of exposing the surface of the base member that has undergone the plasma treatment, in an atmosphere containing at least water; and an organic film formation step of thereafter forming an organic film on the surface of the base member using a silane coupling agent.
Abstract:
The invention relates to a coating installation, in particular for painting motor vehicle bodies, comprising a transport path (2, 12), along which a plurality of coating objects (1) are transported one after the other through the coating installation, and a plurality of treatment stations (13-17, 18-22, 23-27), in which the coating objects (1) are treated. It is proposed that the transport path (2, 12) branches into a plurality of parallel branches (5-9), in each of which at least one of the treatment stations (13-17, 18-22, 23-27) is arranged.