An apparatus and associated methods for a pipe doping apparatus is disclosed. The apparatus may include a pump fluidly coupled to a reservoir and a dope manifold, the pump positioned to pump pipe dope from the reservoir to the dope manifold. The automated pipe doping apparatus may include an ejector coupled to the dope manifold, where the ejector positioned to supply a fixed volume of pipe dope from the dope manifold to a dope distribution line. The automated pipe doping apparatus may also include a pipe dope applicator, the pipe dope applicator fluidly coupled to the dope distribution line positioned to deposit pipe dope on a threaded connection.

Provided are a pump position feedback type dispenser and dispensing method, in which an image of a work, to which a viscous liquid is to be dispensed, is captured to determine an accurate position and direction of the work, and then a position of a pump is received in real time so as to dispense the viscous liquid to the work while ensuring that the pump reaches the accurate position of the work.

In a substrate processing method, a substrate holding unit holds a substrate in a horizontal position, a processing liquid supplying unit supplies first and second processing liquids to the surface of the substrate held by the substrate holding unit, a substrate rotating unit rotates the substrate held by the substrate holding unit, a heater opposes the substrate held by the substrate holding unit, and a moving unit moves at least one of the substrate holding unit and the heater supporting member such that the heater and the substrate are held in two different relative positions.

[PROBLEM TO BE SOLVED] To provide a method and apparatus for applying a coating material that reacts at ordinary temperatures and increases in viscosity with lapse of time or a coating material that is difficult to handle, such as an unstable slurry in which sedimentation occurs at high rate, to a high-value-added object to be coated. [SOLUTION] Before at least applying coating material to an object to be coated, the coating amount is automatically measured using a highly-accurate measuring device set in an atmosphere that does not substantially affect the measurement to control the coating amount during production. Therefore, high-quality products can be mass-produced with a low production cost.

A method and apparatus for applying resin to a cut edge of a composite structure, the cut edge having exposed carbon fibers. The method comprises scanning the cut edge of the composite structure with a vision system to form scanned data. The method further determines an application path for the cut edge of the composite structure using the scanned data. The method also applies the resin to the cut edge of the composite structure by controlling movement of an application tip along the application path using a controller.

A thin-film coating applicator assembly is disclosed for coating substrates in outdoor applications. The innovative thin-film coating applicator assembly is adapted to apply performance enhancement coatings on installed photovoltaic panels and glass windows in outdoor environments. The coating applicator is adapted to move along a solar panel or glass pane while applicator mechanisms deposit a uniform layer of liquid coating solution to the substrate's surface. The applicator assembly comprises a conveyance means disposed on a frame. Further disclosed are innovative applicator heads that comprise a deformable sponge-like core surrounded by a microporous layer. The structure, when in contact with a substrate surface, deposits a uniform layer of coating solution over a large surface.

An apparatus and method for coating a substrate includes preheating a first portion of the substrate to a first temperature. The method includes ejecting a first material from a material applicator so that the first material is applied to the preheated first portion of the substrate. The first material includes a first solvent component and a first coating component. The first temperature is greater than an ambient temperature and less than a boiling point of the first coating component.

A substrate processing apparatus 5 includes a holder 52 (52A), a supply 53 and a cover body 6. The holder 52 (52A) is configured to attract and hold a substrate W. The supply 53 is configured to supply a heated plating liquid to the substrate W attracted to and held by the holder 52 (52A). The cover body 6 is configured to cover the substrate W attracted to and held by the holder 52 (52A), and heat the plating liquid on the substrate W by using a heating device 63 provided in a ceiling member 61 thereof facing a top surface of the substrate W. The holder 52 (52A) includes protrusions 130 projecting from a facing surface 110 thereof facing a bottom surface of the substrate W toward the bottom surface of the substrate W, and each protrusion has a protruding height equal to or larger than 1 mm.

An insulation-coating overlay control system, an electrode plate for a secondary battery, and an insulation-coating overlay control method are provided. The system includes an insulation coater configured to coat an insulating material to allow the insulating material to cover a partial region of a coated part and a non-coated part in an electrode plate along a boundary part. The coated part has an electrode slurry coated thereon and the non-coated part does not have the electrode slurry coated thereon. An insulation-coating width measuring means is configured to measure an overlay width. An insulation coater moving means is configured to move the insulation coater and a controller is configured to control the insulation coater moving means to adjust the overlay width by comparing the measured overlay width with a predetermined overlay width setting range or an overlay width reference value.

A computer-readable recording medium having stored thereon a computer program that, in response to execution, causes a computer to perform a method. The method includes acquiring a moving image of a discharger of a substrate processing apparatus configured to discharge a liquid to a substrate as a processing target; inputting a frame image included in the acquired moving image into a learning model that has been machine learning-trained to receive an image of the discharger as an input and output information related to a discharge state of the liquid from the discharger; acquiring the information related to the discharge state output by the learning model; and determining appropriateness of the discharge of the liquid based on the acquired information.