A drying apparatus according to the present invention and a laundry drying machine including the same circulate only some of humid air introduced from a drum and discharge the remaining humid air through a discharge port, and then introduce mixed air, in which external air introduced through an introduction port and circulated humid air are mixed, into the drying duct to supply the air to the drum. Accordingly, since air in which there is little moisture may be circulated, drying performance of the drying apparatus may be improved. Further, by disposing an introduction fan or a discharge fan adjacent to the discharge port and mixing the humid air with the external air, since the air of which the moisture amount is little may be discharged to the outside of a cabinet, or the air discharged through the discharge port may be quickly discharged to the outside of the cabinet by the discharge fan, occurrence of dew condensation in the cabinet may be prevented.

Disclosed is a vacuum drying and solvent recovery device, including a vacuum drying system for drying an ink jet printing (IJP) ink by volatilizing a solvent in the IJP ink and a solvent recovery system for recovering the solvent volatilized from the IJP ink. By integrating the solvent recovery system outside the vacuum drying system and providing a plurality of solvent recovery chambers in the solvent recovery system to condense and recover solvents for various systems, the recycling of the solvents in the IJP inks and the reduction of production costs can be achieved.

A drying system and a drying method for a cleaning solution on a mask are disclosed. The drying system includes: a drying chamber having a first side wall and a second side wall arranged opposite to the first side wall; a plurality of first air knives on the first side wall and the second side wall for air-drying a cleaned mask; and a separation device for allowing a mask strip and a supporting and shielding strip to move away from each other at a spatial intersection region to increase a spacing between the mask strip and the supporting and shielding strip at the spatial intersection region, when the plurality of first air knives are air-drying the cleaned mask.

A locker includes a pair of spaced-apart upstanding sidewalls and at least one shelf extending between the sidewalls, the shelf and sidewalls defining a compartment. A rack is disposed in the compartment and extends upwardly from the shelf. The rack is dimensioned and configured to support at least a pair of shoulder pads and preferably both pads and a helmet. The rack optionally includes a ventilation system, and the ventilation system, may be incorporated into a multi-locker ventilation system.

A method for at least partially drying a substrate. The method includes: (a) directing a supply air flow onto the substrate with a direction component in either the transport direction, or the opposite direction and (b) directing an exhaust air flow away from the substrate. The method is reproducible and effective and achieves an improved result with respect to the homogeneity and speed of drying because the exhaust air flow is split into a plurality of sub-flows by supplying each of the sub-flows to an individual intake channel, and because, in the event of a supply air flow in the transport direction of movement of the substrate, the supply air flow is arranged spatially upstream of the exhaust air flow and, in the event of a supply air flow in the opposite direction, the supply air flow is arranged spatially downstream of the exhaust air flow.

Provided are a surface drying device for a sheet-like non-permeable base material with enhanced drying efficiency on a surface of a sheet-like non-permeable base material having a liquid adhering to a surface thereof, and a printing apparatus and a printing method using the surface drying device. The surface drying device for a sheet-like non-permeable base material includes: a loading port for loading a sheet-like non-permeable base material with a liquid adhering surface; an air nozzle configured to spray high-temperature air; an unloading port for unloading the sheet-like non-permeable base material; an air shield zone forming portion, which is formed between the loading port and the unloading port, and is configured to form a heat-insulating air shield so as to cover the liquid adhering surface of the sheet-like non-permeable base material; and a retained air exhaust portion configured to exhaust retained air retained on the liquid adhering surface of the sheet-like non-permeable base material to outside of the air shield zone forming portion through use of a Coanda effect, to thereby replace liquid adhering surface air on the liquid adhering surface of the sheet-like non-permeable base material.

The present invention is a drying system for a car wash facility. In various aspects, the drying apparatus according to the system may include a plurality of nozzles, with each nozzle emanating a jet of air that impacts an upper surface of a vehicle with the jets arranged to successively force water on the upper surface laterally with respect to a vehicle centerline toward sides of the vehicle. In various aspects, the methods of use of the drying apparatus may include the step of receiving a vehicle in the drying apparatus, and the step of successively forcing water on the upper surface of the vehicle laterally with respect to the vehicle centerline toward sides of the vehicle by impacting the upper surface of the vehicle with a plurality of jets of air emanating from a corresponding plurality of nozzles.

The disclosure discloses a water blowing device which is composed of a wheel positioning rotating part and a wheel water blowing part. The water blowing requirement of the wheel can be met.

A spray drying system for drying liquid into powder including an elongated body and a closure arrangement at opposite upper and lower ends of the elongated body for forming a drying chamber within the elongated body. One of the closure arrangements including a drying gas inlet for introducing drying gas into the drying chamber. A spray nozzle assembly is supported in one of the closure arrangements. The lower end closure arrangement including a powder collection vessel for collecting powder dried in the drying chamber. The powder collection vessel is configured such that a blanketing gas may be directed into the interior of the powder collection vessel to blanket the powder in the powder collection chamber and thereby protect the powder from exposure to the drying gas from the drying chamber.

Provided is a device for drying objects that are, for example, moving on a conveyor belt or assembly line. The objects may be container such as, for example, empty or filled can, empty or filled bottles, or non-container objects.