A dehumidification device including a main body including a treatment chamber; a heat exchanger to cool air discharged from the treatment chamber; a water collection container that is installable inside the main body so that water condensed by the heat exchanger is collected therein; and a sensing unit including first, second, and third terminals, the sensing unit being configured so that in response to the water collection container is installed inside the main body, the second terminal becomes electrically connected to the first terminal to thereby detect the installation of the water collection container inside the main body, and in response to a predetermined amount of water is collected in the water collection chamber while the water collection container is installed inside the main body, the third terminal becomes electrically connected to the first terminal through the water to thereby detect the predetermined amount of water being collected in the water collection chamber.

A locker includes a pair of upstanding walls, at least one shelf, and a rack coupled to the shelf. The shelf extends at least partially between the sidewalls. The rack includes a pair of upstanding, spaced-apart posts, a cross member extending between the posts, and a third post coupled to the cross member. The pair of posts and the cross member are a tubular shape. The third post is configured to contact and support the interior of a helmet.

The invention relates to a method of manufacturing a component (21) from metal-containing powder. A paste is prepared by mixing at least a powder (11) comprising metal, a binder (12) in an amount of 2 to 8 weight % of the paste (10), and liquid (13), such as water, in an amount of 5 to 25 weight % of the paste (10). The paste is transferred to an extruder (31), and the paste is extruded into a green body (20) by using an extrusion pressure (P) of more than 50 bar. Then the green body (20) is dried and sintered or oxidized to obtain the final component.

A thermal energy storage system is provided, comprising an outer shell defining an outer shell volume, an energy transfer module, comprising an input port for providing energy to the energy storage system, an output port for retrieving energy from energy storage system, wherein the outer shell is provided with a fluid distribution network.

Provided herein is a portable clothes drying device, which includes a base unit and an air outlet unit; wherein the base unit is configured to not only enable the portable clothes drying device to be used in various kinds of use spaces, but also provide the portable clothes drying device with the functions of heating, drying, disinfecting, etc.; and wherein the air outlet unit is configured to correspond to various kinds of clothes with different geometric shapes.

A device (1) and a method for drying dialysis filters are provided. The device (1) has a drying chamber (2) and a microwave generating unit (3), which emits microwaves into the drying chamber (2). This allows effectuate rapid drying cost-effectively. The microwave generating unit (3) has a variable frequency and/or a variable power.

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.

The invention relates to a device for drying and/or for disinfecting objects, comprising a cabinet having a receiving chamber through which a gas can flow, and a fan unit, a heating device being provided for heating the gas. According to the invention, a dehumidifying unit is provided for the condensation drying of the gas, and a gas treatment chamber of the cabinet is provided which, in the installed state of the cabinet, is situated behind the receiving chamber, wherein the gas treatment chamber is separated from the receiving chamber by a partition, the heating device is provided in the gas treatment chamber for heating the gas in the gas treatment chamber, and the heated gas flows from the gas treatment chamber into the receiving chamber.

Assemblies and methods for drying apparel, for example, footwear or gloves, are provided. The assemblies include a panel; projections or pegs pivotally mounted to the panel, the projections each having an inlet, an outlet, an internal passage communicating the inlet to the outlet, and the projections can be oriented in a position adapted to receive the apparel; and a source of air having an outlet in fluid communication with the inlets of the projections. The air, for example, from a fan, passes into the inlets of the projections, through the internal passages, and out of the outlets to contact and dry the apparel mounted on the projections. The methods may include heating the air to enhance the drying. Projection modules that can be pivotally mounted to extend and retract into the panel are also disclosed. The retracted projection may be flush with the panel when not in use.

The invention disclosed is an ammunition cartridge case dryer for use in the cleaning, drying and reloading of ammunition cartridge cases. It comprises an upper housing, a base, means for forcing air into a hollow space defined by the upper housing and base, an array of cups or nozzles that are located on the upper surface of the dryer and are adapted to receive a wet cartridge case. The nozzles have apertures in communication with the hollow space such that air can be expelled through said nozzles into said cases for quick drying.