Apparatus for plasma processing of a continuous fiber, comprising a first and a second plasma torch. Each plasma torch comprises oppositely arranged electrodes to define a plasma discharge chamber between the electrodes. The plasma discharge chamber comprises an inlet and an outlet for passing a plasma forming gas between the electrodes. The apparatus further comprises an afterglow chamber in fluid communication with the outlets of the plasma discharge chambers, which comprises a substrate inlet and a substrate outlet arranged at opposite sides of the outlets of the plasma discharge chambers. A transport system is configured to continuously transport the fiber from the substrate inlet to the substrate outlet through the afterglow chamber. The substrate inlet comprises an aperture having a cross-sectional size substantially smaller than a cross-sectional size of the afterglow chamber. The outlets of the plasma torches face each other and exhaust plasma activated species into the afterglow chamber.

Disclosed is a plasma surface treatment apparatus for conductive powder. The plasma surface treatment apparatus for conductive powder comprises: a reaction chamber including a linear gas inlet at the lower end thereof and a gas outlet at the upper end thereof, and having a vertical cross section that is funnel-shaped; and a plasma jet generation device that is located below the linear gas inlet and is configured to discharge a plasma jet into the reaction chamber from below in an upward direction through the linear gas inlet, wherein powder is accommodated in the reaction chamber and is treated by plasma while buoyed by the plasma jet.

A coat forming apparatus 100 includes a droplet supply unit 110 and an active species supply unit 120. The droplet supply unit 110 is adapted to spray or drop a droplet for coat forming toward an object 116. The active species supply unit 120 is adapted to supply an active species to be brought into contact with the droplet moving from the droplet supply unit 110 toward the object 116. The coating is formed on a surface of the object 116 by the droplet that has been brought into contact with the active species.

Elastomeric components, such as a shoe outsole, are treated with a plasma application to clean and activate the elastomeric component. The application of plasma is controlled to achieve a sufficient surface composition change to enhance adhesion characteristics while not adversely physically deforming the elastomeric component. The plasma treatment is applied to increase carbonyl functional group concentrations within an altered region of the elastomeric component to within at least a range of 2%-15% of carbon atomic percentage composition. The cleaning and activation is controlled, in part, by ensuring a defined height offset range is maintained between the elastomeric component and the plasma source by a generated tool path. The elastomeric component may then be adhered, with an adhesive, to another component.

Provided is a film forming device that deposits, on a substrate, a product generated by decomposing raw material gas by a plasma discharged from a discharge port of a double tube, the device including: an inner tube through which raw material gas containing a film-forming raw material flows and is guided to the discharge port on a downstream side; an outer tube that has the inner tube inserted thereinto and through which plasma-generating gas flows and a plasma generated by discharge is guided to the discharge port on the downstream side; a first electrode that is formed in an annular shape around the outer tube and grounded; and a second electrode that is formed in an annular shape around the outer tube and to which a voltage is applied. The second electrode is disposed on the downstream side with respect to the first electrode, and assuming that a length of the second electrode in an axial direction is L1 and a diameter of the outer tube is D1, a relationship of L1D1 is satisfied.

A treatment apparatus and a treatment method using reactive oxygen, wherein, the treatment apparatus comprising: the reactive oxygen supply device comprises a plasma actuator and an ozone decomposing device inside a housing having at least one opening portion, the plasma actuator comprises a first electrode and a second electrode across a dielectric material and generates an induced flow containing ozone when a voltage is applied between the both electrodes, the plasma actuator and the ozone decomposing device are arranged such that the induced flow flows out from the opening portion and the induced flow is supplied to a surface of the object which is conveyed by the conveying means, and an outflow direction vector of the induced flow has a vector component x which is parallel to and oriented in the same direction as specific direction A.

An active oxygen supply device comprising: a housing; a plasma actuator disposed inside the housing; and an ozone decomposing device, wherein the plasma actuator comprises a first electrode, a dielectric material, and a second electrode, the first electrode is an exposed electrode provided on a first surface, which is one surface of the dielectric material, the plasma actuator generates an induced flow containing ozone to be blown out from the first electrode in a first direction, which is one direction along the surface of the dielectric material, the ozone decomposing device decomposes the ozone contained in the induced flow to generate active oxygen, an edge portion of the second electrode leading in a second direction reverse to the first direction is provided with a protruded portion, and overlap the first electrode only in the protruded portion, and the protruded portion has a width constant in the second direction.

An active oxygen supply device equipped with a cylindrical housing having a first opening and a second opening opposite to the first opening, a plasma actuator arranged in the housing, and an ozone decomposition device, in which the plasma actuator causes dielectric barrier discharge to blow out an induction flow, the plasma actuator is arranged such that the blow direction of the induction flow faces the second opening, an air flow that flows from the first opening to the second opening is generated in the housing by the action of the induction flow, the ozone decomposition device decomposes the ozone contained in the air flow to generate active oxygen in the air flow, and the plasma actuator and the ozone decomposition device are arranged such that the air flow containing the active oxygen can flow out to the exterior of the active oxygen supply device through the second opening.

This reactive oxygen supply apparatus is characterized by comprising a humidification device, a housing having at least one opening, and a predetermined plasma actuator in the opening, and is characterized in that the humidification device humidifies the inside of the housing and generates reactive oxygen in the induced flow, so that the induced flow contains the reactive oxygen, and the plasma actuator and the humidification device are disposed such that the induced flow containing the reactive oxygen flows out of the housing through the opening.

A system to collect sensor data from an interaction between a plasma and a material and use a machine learning system to characterize the material. A method and apparatus for characterizing and evaluating a material. The method includes in one embodiment applying a cold atmospheric plasma to an interface with the material, measuring a plurality of interactions between the plasma and the interface using a plurality of sensors to generate sensor data, and utilizing a trained machine learning model to analyze the sensor data to generate characterization of the bulk and/or surface material properties based on the interactions.