Liquid applicators and methods. The liquid applicators include a frame and an applicator head operably coupled to the frame and configured to support a section of an applicator fabric for operable application of a liquid to a substrate. The liquid applicators further include a fabric conveyance system that is operably coupled to the frame and includes a fabric pay-out assembly configured to supply the applicator fabric to the applicator head and a fabric take-up assembly configured to receive the applicator fabric from the applicator head. The liquid applicators further include a liquid delivery system configured to deliver the liquid to the section of the applicator fabric. The methods include delivering the liquid to the section of applicator fabric, engaging the section of applicator fabric with the substrate, and moving the section of the applicator fabric across the substrate to apply the liquid thereto.

A method and apparatus for supplying insulating liquid to form an insulating coating layer on an electrode is disclosed herein. In some embodiments, an apparatus includes a storage tank for storing an insulating liquid; a coating die for coating the insulating liquid on an electrode; a supply line which supplies the insulating liquid from the storage tank to the coating die; a pump connected to the supply line; a defoaming tank connected to the storage tank and supplies defoamed insulating liquid to the storage tank; a vacuum pump which defoams bubbles of the insulating liquid by applying vacuum to the defoaming tank; a bubble sensor connected to the supply line, wherein the bubble sensor senses generation of bubbles in the supply line in real time; and a controller for adjusting an operating condition of the apparatus based on an amount of bubbles sensed by the bubble sensor.

Provided is a slot die coater with a uniform flow of coating solution without stagnation. The slot die coater includes at least two die blocks; a shim plate provided between the two die blocks to form a slot; and a manifold provided in the die block and communicatively connected with the slot as a chamber in the shape of indention accommodating a coating solution, wherein the coating solution is discharged and applied to a surface of a continuously traveling substrate through a discharge port communicatively connected with the slot, and a region of the die block from a front end of the manifold to a die lip which is a front end of the die block is a land, and a ratio A/B of a land length A to a manifold length B is in a range of 0.5 to 3.55.

A fluid dispensing system includes a housing, an inertial measurement unit supported by the housing and operable to sense linear and rotational acceleration of the housing, a nozzle supported by the housing operable to expel a fluid, a pressure source in fluid communication with the housing and the nozzle and operable to pressurize the fluid, a valve positioned fluidically upstream from the nozzle and operable to regulate fluid flow to the nozzle, and a controller in operable to receive an application value relating to a predetermined volume of fluid to be applied to a surface of an article, to receive movement data relating to the linear and rotational acceleration of the housing sensed by the inertial measurement unit, and to regulate the valve based on the movement data and the application value.

An apparatus (200) for smoothing a surface of an object (100). The apparatus includes a chamber (210), a reservoir (324) configured to hold a liquid (322), and a nebulizer assembly (212) configured to generate a mist (104) from the liquid into the chamber. The nebulizer assembly includes a mesh (732), a vibrating element (731), and a wick (736). The object is received in the chamber and the mist is configured to surround the object.

Disclosed is a device for pressurizing a viscous fluid contained in a drum, the device includes a follower plate vertically movable along a perpendicular axis passing through the center of the drum, the follower plate: is movable between a first position outside the drum and a second position inside the drum, to exert pressure on the viscous fluid; has a transfer port intended to be connected to a means of pumping capable of transferring the pressurized fluid. The device further includes an energy storage unit and restoration connected to the support system, the storage unit being capable of storing energy under the effect of the pressure exerted by the support system and of restoring it to the follower plate in order to maintain the viscous fluid under pressure.

An apparatus for supplying a liquid medium to a metering unit comprises a housing in which media channels are arranged. One of the media channels is connected to a fluid reservoir that can be acted on by compressed air.

A liquid processing device includes: a nozzle configured to discharge, onto a substrate, a processing liquid supplied from a processing liquid source, the processing liquid being configured to process the substrate; a main flow path which connects the processing liquid source and the nozzle; a filter provided in the main flow path; a branch path branched from the main flow path; a pump provided at an end of the branch path; and a controller configured to output a control signal to perform a first process of sucking the processing liquid supplied from the processing liquid source by the pump to flow the processing liquid into the branch path and then a second process of discharging the processing liquid of a smaller amount than a capacity of the branch path from the pump to the branch path to discharge the processing liquid from the nozzle.

The purpose of the present invention is to provide a viscous material application apparatus capable of reliably applying an appropriate amount of a viscous material to a shaft-shaped member. A seal application apparatus (1) is provided with a flexible tubular nozzle (2), which is capable of discharging a sealing agent from an opening (6) formed on the tip thereof, and an actuator (3) for moving the nozzle (2). After or during discharge of the sealing agent by the nozzle (2), the tip of the nozzle (2) moves in the circumferential direction along the outer circumferential surface of a fastener (20), and as the nozzle (2) is stopping the discharge of the sealing agent, the tip of the nozzle (2) moves in a direction away from the outer circumferential surface of the fastener (20).

A vacuum impregnation system and processes that subject a part to a vacuum, immerse the part in a polymer impregnating liquid, and apply positive pressure to the part to introduce the polymer impregnating liquid into part porosities, releasing the pressure to atmospheric pressure and solidifying the polymer impregnating liquid, preferably without an active polymerization step.