Patent classifications
C23C16/10
COATING APPARATUS AND METHOD OF USING
Apparatus is described for coating of three dimensional objects such as glass jars or bottles, during a continuous manufacturing process, by Chemical Vapour Deposition (CVD). The objects pass through tunnel having one or more vertical arrays of nozzles located in the sidewalls. The nozzles deliver CVD precursors and, being independently variable, allow for variation of the precursor concentration along the height of the object. Thus, the thickness of the resultant coating may be so varied. Preferred embodiments include corresponding exhaust arrays, aligned with the nozzles and one or more air curtains which isolate the interior of the tunnel from the external environment.
COATING APPARATUS AND METHOD OF USING
Apparatus is described for coating of three dimensional objects such as glass jars or bottles, during a continuous manufacturing process, by Chemical Vapour Deposition (CVD). The objects pass through tunnel having one or more vertical arrays of nozzles located in the sidewalls. The nozzles deliver CVD precursors and, being independently variable, allow for variation of the precursor concentration along the height of the object. Thus, the thickness of the resultant coating may be so varied. Preferred embodiments include corresponding exhaust arrays, aligned with the nozzles and one or more air curtains which isolate the interior of the tunnel from the external environment.
METAL FLUORIDE COATED LITHIUM INTERCALATION MATERIAL AND METHODS OF MAKING SAME AND USES THEREOF
Provided herein is a method of reducing the charge/discharge capacity fade rate of a rechargeable lithium-ion battery (LIB) during cycling, and extending the life and the number of discharge/recharge cycles thereof, effected by coating particles of lithium intercalation materials used for making the electrodes of the LIB, with a uniform layer of a metal fluoride effected by atomic layer deposition (ALD). Also provided are coated particulate lithium intercalation materials, electrodes and lithium-ion batteries having electrodes made with particulate lithium intercalation materials coated with a uniform later of a metal fluoride using ALD.
METAL FLUORIDE COATED LITHIUM INTERCALATION MATERIAL AND METHODS OF MAKING SAME AND USES THEREOF
Provided herein is a method of reducing the charge/discharge capacity fade rate of a rechargeable lithium-ion battery (LIB) during cycling, and extending the life and the number of discharge/recharge cycles thereof, effected by coating particles of lithium intercalation materials used for making the electrodes of the LIB, with a uniform layer of a metal fluoride effected by atomic layer deposition (ALD). Also provided are coated particulate lithium intercalation materials, electrodes and lithium-ion batteries having electrodes made with particulate lithium intercalation materials coated with a uniform later of a metal fluoride using ALD.
Method for nitride free vapor deposition of chromium coating
A process for applying a chromium layer on a substrate, specifically a turbine engine airfoil, by contacting at least a portion of the substrate with a gaseous chromium wherein the gaseous chromium is generated from a substantially nitrogen free source.
Method of depositing material
Material is deposited in a desired pattern by spontaneous deposition of precursor gas at regions of a surface that are prepared using a beam to provide conditions to support the initiation of the spontaneous reaction. Once the reaction is initiated, it continues in the absence of the beam at the regions of the surface at which the reaction was initiated.
Method of depositing material
Material is deposited in a desired pattern by spontaneous deposition of precursor gas at regions of a surface that are prepared using a beam to provide conditions to support the initiation of the spontaneous reaction. Once the reaction is initiated, it continues in the absence of the beam at the regions of the surface at which the reaction was initiated.
Corrosion resistant coating application method
A process for applying a chromized layer on a substrate by first applying an overlay coating to a portion of the substrate, and subsequently contacting a different portion of the substrate and the overlay with a gas containing gaseous chromium, wherein the gaseous chromium can be generated from a chromium source and an activator. The process prepares the substrate, often a jet engine airfoil, for service.
Methods of applying chromium diffusion coatings onto selective regions of a component
Unique and improved chromizing processes are disclosed. The processes involve forming localized chromizing coatings onto selected regions of a substrate. The chromium diffusion coatings are locally applied to selected regions of substrates in a controlled manner, in comparison to conventional chromizing processes, and further in a manner that produces less material waste and does not require masking. A second coating can be selectively applied onto other regions of the substrate.
Group VI precursor compounds
The invention provides a facile process for preparing various Group VI precursor compounds useful in the vapor deposition of such Group VI metals onto solid substrates, especially microelectronic semiconductor device substrates. The process provides an effective means to obtain such volatile materials, which can then be sources of molybdenum, chromium, or tungsten-containing materials to be deposited on such substrates. Additionally, the invention provides a method for vapor deposition of such compounds onto microelectronic device substrates.