The present disclosure discloses a precise temperature control device and method for a fluid circulation unit. The device includes a temperature controller, a cold source container, and a liquid cooling vest. The temperature controller includes a shell. a water tank, a first water pump, a second water pump, and a main control panel. The first water pump is connected to the cold source container and the water tank. The second water pump is connected to the water tank and the liquid cooling vest. The liquid cooling vest is connected to the cold source container and the water tank. The water tank is provided with a temperature sensor. The main control panel is electrically connected to an operation apparatus.

A helmet cooling system includes a reservoir for holding a chilled medium and includes fan that that draws ambient air into the reservoir so that the air will pass over the chilled medium and exit the reservoir through a tube that is connected to a helmet. The helmet includes several channels for distributing the chilled air to the wearer's head to help keep the wearer comfortable. The reservoir can include a diverter valve to preserve the chilled medium when it is not necessary by sealing off the chilled medium and preventing air from circulating past it or otherwise contacting the chilled medium.

An electric component mounting unit for an air-conditioned garment, which is used in combination with a garment body having a fan opening and which is mounted on a body, includes a fan which takes air from outside into the garment body, a mounter which mounts the fan on the body, and a fan attacher which attaches the fan to the mounter. The fan includes a fan-side linker which links the fan with the fan opening.

An apparatus comprises a cooling medium compartment between first and second beverage compartments, and a water permeable membrane. The cooling medium compartment comprises a topside zipper and underside zipper. When the underside zipper is closed, there is no opening between the cooling medium compartment and the water permeable membrane. When the underside zipper is at least a partially open, there is an opening between the cooling medium compartment and the permeable membrane to allow water to move from the cooling medium compartment to the permeable membrane. The apparatus provides the option of whether or not to cool the back of the user's neck with a cooling medium placed in the apparatus that wets a water permeable portion of the apparatus that is in contact with the neck of the user.

In selected examples, a hanger couples to an electrically-powered garment, to provide electrical energy to the garment to recharge the battery of the garment. The electrical energy may be transferred from the hanger to the garment using inductive coupling. The electrical energy may also or instead be transferred using contact coupling facilitated by magnet(s) in the interfaces of the hanger system and the garment. The garment may include biometric, environmental, and other sensors to collect data. The hanger system-garment interfaces may provide for data flow between the hanger and the garment. In selected examples, a smart garment may be controlled by a smartphone or another mobile device. The smartphone may control several smart garments, which may be connected in series and/or in parallel, with one of the smart garments being a master connected to the smartphone, and the other garments being slave garments connected to the smartphone through the master.

The present invention provides, among other things, a clothing and fabric storage container including a heat exchanger operable to reduce the temperature of clothing and fabric located in an interior of the container in order to reduce or eliminate odor causing bacteria from the clothing and fabric. In some embodiments, the container includes a controller. In some such embodiments, the controller operates the heat exchanger to reduce an interior container temperature and to maintain the temperature of the interior of the container below a pre-determined temperature. In some embodiments, the clothing storage device generates cold air inside of the clothing storage device with at least one cooling mechanism that is powered by an electrical cord and plug that is plugged into an electrical wall socket. The clothing storage device is designed to cool the clothing while the clothing is inside the clothing storage device.

In selected examples, a clothes storage system includes a garment holder designed to receive and store at least one garment, an electromagnetic radiator attached to the garment holder, power circuitry configured to provide electrical drive to the electromagnetic radiator to cause the electromagnetic radiator to radiate radio frequency (RF) power, and a data interface configured to establish short range wireless communication links. The garment holder may be, e.g., a clothes hanger, a garment bag, a travel garment bag, or a walled enclosure such as a closet in a dwelling or an office. The data interface may be a short range RF transceiver, e.g., a Bluetooth® transceiver. The radiated RF power is received by the powered garments in/on the garment holder and converted into DC charging power used to recharge batteries of the powered garments. The data interface may allow the powered garments to communicate with external networks, e.g., the Internet.

An air-conditioning garment includes a garment, a miniature air conditioner, and a convenient strap for carrying the miniature air conditioner on the garment. The garment includes an outer layer and an inner layer sealed together to form an air channel, at least two air holes are arranged across the outer layer of the garment, the garment and the miniature air conditioner are connected by an air inlet tube and an air outlet tube, and one end of the air inlet tube and one end of the air outlet tube are respectively connected to at least two of the air holes, so as to be connected to the air channel of the garment.

A portable thermoelectric unit has a face towards the user's body. The unit includes at least one flexible layer containing a non-woven fabric or a fabric and/or a polymeric membrane facing the body; a casing having a thermally active area and fixed to a distal face of the layer opposite the face so that the area is in thermal exchange with the layer towards the body; a thermoelectric heat pump device housed in the casing and configured to generate or absorb heat through the area and the layer; a fan housed in the casing and next to the device; a channel in the casing next to the device to receive an air flow generated by the fan in heat exchange with the device and to guide the air flow towards a distal opening from the fan; and a heat exchanger connected to the device on the opposite side of the area to receive the air flow towards the channel.

An apparatus comprises first and second fabric layers having corresponding and aligned elongated rectangular sections, which are stitched together at one or more periphery seams. A water-permeable compartment is located between the first and second elongated rectangular sections at the respective middle portions the first and second fabric layers. The water-permeable compartment has an elongated rectangular topside section and an elongated rectangular underside section, each having a length that is less than the length of the elongated rectangular sections of the first and second fabric layers. The second fabric layer and water-permeable compartment collectively define an opening at the middle portion of the second fabric layer, wherein the opening is configured to receive a cooling medium or a heating medium. The apparatus provides the option of whether to wet the middle portion of the second fabric layer that is in contact with the neck of a user.