A method of drying print agent is disclosed. The method comprises blowing hot air onto an absorbent printable medium that bears water- and/or solvent-based print agent to reduce the viscosity of the print agent and to promote absorption of at least some water and/or solvent in the print agent by the printable medium; and, subsequent to the blowing of hot air, irradiating the printable medium with ultraviolet radiation to dry the unabsorbed portion of print agent on the printable medium. A printer ink drying apparatus and a print apparatus are also disclosed.

The present disclosure relates to a towel maintenance device for storing and keeping a towel and for heating and drying the towel stored and kept therein. The towel maintenance device—provides a structure in which heated air flows in a first staying space formed in a heat transfer plate and heats the heat transfer plate, thereby allowing a textile product such as a towel and the like in contact with the heat transfer plate to be heated based on thermal conduction, and the heated air discharged through a communicating hole of the heat transfer plate is discharged while passing through the textile product such as a towel and the like or flows around the textile product such as a towel and the like, thereby allowing the product to be dried to be heated based on convection. The towel maintenance device according to the present disclosure enables entire objects to be dried to be rapidly heated and dried.

The present invention provides a drying method to dry a to-be-dried object by allowing the to-be-dried object to contact with gas having a different temperature. The method includes comprising: an introduction process of introducing the to-be-dried object; a first heating/cooling process of heating or cooling the to-be-dried object to have a first temperature; a transportation process of transporting the heated or cooled to-be-dried object; a humidity comparison process of comparing the to-be-dried object humidity of the to-be-dried object with the gas humidity of gas used for dehumidification; an atmosphere temperature adjustment process of adjusting, when the to-be-dried object humidity is high, the temperature of the gas used for dehumidification to a second temperature lower than the first temperature and adjusting, when the gas humidity is high, the temperature of the gas used for dehumidification to the second temperature higher than the first temperature; a dehumidification process of allowing the to-be-dried object to contact with the gas of the second temperature to thereby dehumidify the to-be-dried object; and a removal process of removing the to-be-dried object.

The present invention provides a drying method to dry a to-be-dried object by allowing the to-be-dried object to contact with gas having a different temperature. The method includes comprising: an introduction process of introducing the to-be-dried object; a first heating/cooling process of heating or cooling the to-be-dried object to have a first temperature; a transportation process of transporting the heated or cooled to-be-dried object; a humidity comparison process of comparing the to-be-dried object humidity of the to-be-dried object with the gas humidity of gas used for dehumidification; an atmosphere temperature adjustment process of adjusting, when the to-be-dried object humidity is high, the temperature of the gas used for dehumidification to a second temperature lower than the first temperature and adjusting, when the gas humidity is high, the temperature of the gas used for dehumidification to the second temperature higher than the first temperature; a dehumidification process of allowing the to-be-dried object to contact with the gas of the second temperature to thereby dehumidify the to-be-dried object; and a removal process of removing the to-be-dried object.

Thermal energy is supplied to a fluid mixture on a substrate that has a first component, for example water, and a second component, for example cosolvent, such that the proportion of the second component in the fluid mixture is increased at relatively high temperatures of the fluid mixture. It may thus be reliably produced that an optimally small quantity of the second component is located on the surface of the substrate following the drying process.

A temperature control apparatus for controlling the temperature, in particular for the drying, of objects, in particular vehicle bodies, having a housing, in which a cooling zone having a cooling chamber that defines a longitudinal direction is accommodated. The cooling chamber is assigned at least one cooling-air temperature control device, by means of which temperature-controlled cooling air can be produced, which can be fed to the cooling chamber. In the longitudinal direction, the cooling zone comprises a supply chamber on one longitudinal side of the cooling chamber, in which supply chamber the cooling-air temperature control device is arranged.

A drying assembly is disclosed. An example apparatus includes fans; a temperature sensor; a print engine to access instructions to cause a printer to perform a printing operation on media; and a processor responsive to an output of the temperature sensor to control the fans to force air onto the media to cause a substantially uniform temperature to be maintained across a width of the media during the printing operation and to cause a sum of air flow output by the fans to be maintained at a substantially constant value.

A drying assembly is disclosed. An example apparatus includes fans; a temperature sensor; a print engine to access instructions to cause a printer to perform a printing operation on media; and a processor responsive to an output of the temperature sensor to control the fans to force air onto the media to cause a substantially uniform temperature to be maintained across a width of the media during the printing operation and to cause a sum of air flow output by the fans to be maintained at a substantially constant value.

A modular produce drying tunnel system comprising a loading module, at least one drying module, an end module, and a conveyor. The drying module may comprise at least one gullwing style access door which houses an independent heating element and a blower and which opens upwardly to provide broad access to the interior of the tunnel. The system may be customizable for different types and volumes of produce, comprising a plurality of drying modules, each having at least one access door, and each access door having an independent heating element and blower.

A modular produce drying tunnel system comprising a loading module, at least one drying module, an end module, and a conveyor. The drying module may comprise at least one gullwing style access door which houses an independent heating element and a blower and which opens upwardly to provide broad access to the interior of the tunnel. The system may be customizable for different types and volumes of produce, comprising a plurality of drying modules, each having at least one access door, and each access door having an independent heating element and blower.