Abstract:
A method of controlling application of at least one material onto a substrate includes configuring a material applicator having an array plate with an applicator array. The applicator array has a plurality of micro-applicators with a first subset of micro-applicators and a second subset of micro-applicators. Each of the plurality of micro-applicators has a plurality of apertures through which fluid is ejected. The first subset of micro-applicators and the second subset of micro-applicators are individually addressable, and a liquid flows through the first subset of micro-applicators and a shaping gas, e.g., air, flows through the second subset of micro-applicators. The flow of shaping gas shapes the flow of the liquid from the first subset of micro-applicators to the substrate.
Abstract:
In at least one embodiment, a paint applicator robot is provided. The robot may include a robotic arm including a hollow joint and a paint applicator, a color tree disposed between the hollow joint and the paint applicator, and a dual-lumen line extending through the hollow joint to the color tree. The dual-lumen line may include a paint supply path to the color tree and a paint return path from the color tree. The robot may include a plurality of the dual-lumen lines, for example, up to 48 dual-lumen lines, each providing a paint color to the color tree. The robot may be included in a robotic paint station and may be configured to receive paint from and return paint to a drop box connected to a paint recirculation system.
Abstract:
A method of controlling application of at least one material onto a substrate includes configuring a material applicator having an array plate with an applicator array. The applicator array has a plurality of micro-applicators with a first subset of micro-applicators and a second subset of micro-applicators. Each of the plurality of micro-applicators has a plurality of apertures through which fluid is ejected. The first subset of micro-applicators and the second subset of micro-applicators are individually addressable, and a liquid flows through the first subset of micro-applicators and a shaping gas, e.g., air, flows through the second subset of micro-applicators. The flow of shaping gas shapes the flow of the liquid from the first subset of micro-applicators to the substrate.
Abstract:
A method comprising scanning a first painted surface of a first vehicle having two or more paint layers with a robotic terahertz radiation instrument to obtain a first painted surface thickness data and map for each of the two or more paint layers, comparing the first thickness map to a control map, and adjusting one or more paint application parameters based on a comparison of the first thickness map with the control map for painting a second surface of a second vehicle different than the first vehicle.
Abstract:
A method comprising scanning a first painted surface of a first vehicle having two or more paint layers with a robotic terahertz radiation instrument to obtain a first painted surface thickness data and map for each of the two or more paint layers, comparing the first thickness map to a control map, and adjusting one or more paint application parameters based on a comparison of the first thickness map with the control map for painting a second surface of a second vehicle different than the first vehicle.