A cool box includes: a first temperature holding chamberthat stores a first object to be cooled, a first cold insulator temperature, and a first indoor electricity generator that generates electricity on the basis of a difference between the temperatures of the first object to be cooledand the first cold insulator and holds the temperature of the first object to be cooled; a second temperature holding chamberthat stores a second object to be cooled, a second cold insulator temperature, and a second indoor electricity generatorthat generates electricity on the basis of a difference between the temperatures of the second object to be cooledand the second cold insulator and holds the temperature of the second object to be cooled; and an intra-chamber electricity generatorthat generates electricity on the basis of a difference between the temperatures of the first temperature holding chamberand the second temperature holding chamber .

A vehicle seat system is provided that includes heating, cooling, and occupant sensing functionality in a single unit. The system includes carbon nanotube (CNT) elements disposed adjacent the seat surface. The CNT elements may be woven or stitched to a vehicle seat cover, or may be disposed in a mat that is placed between a seat cushion and the seat cover. The CNT elements may be used for heating, cooling, and occupant sensing, without requiring separate units or circuits. The system may include Peltier elements attached to the CNT elements, with the Peltier elements transferring heat between the CNT elements and a heat bank. The heat bank may be in the form of a heat sink, or the heat bank may be the seat rails of the vehicle seat, with the Peltier elements attached to the seat rails.

The present invention provides a water-cooled radiator internally provided with a semiconductor refrigeration system and a fan, the water-cooled radiator comprising: a radiation fin, a water tank structure, water-cooled pipes, a water pump, a water-cooled gear, a semiconductor refrigeration structure and a radiator fan assembly, wherein the radiation fin, the water tank structure, the semiconductor refrigeration structure and the radiator fan assembly are connected into an integrated structure. By means of the semiconductor refrigeration structure, the water temperature of a water storage tank can be rapidly lowered, and the radiator fan assembly can dissipate the heat of and cool a semiconductor, and can dissipate the heat of and cool electronic components around a main board.

A portable gas water maker comprises a water maker body with a shell having a hollow structure. A water inlet communicating with the shell and used for injecting water into the shell is formed at an upper end of the water maker body. The water maker body is inverted U-shaped, so that the lower half part of the water maker body is divided into a left cavity and a right cavity. One group of Peltier semiconductor assemblies is arranged in each of the left cavity and the right cavity. A front-end semiconductor and a rear-end semiconductor in each group of Peltier semiconductor assemblies are connected through a wire. The group of semiconductor assemblies in the left cavity is used for generating electricity, and the group of semiconductor assemblies in the right cavity is used for refrigeration.

A refrigerator include: an inner case having a storage chamber; a thermoelectric module including a thermoelectric element and a cooling sink; a fan configured to circulate air, to the storage chamber; a fan cover configured to cover the fan and having an upper discharge hole, a lower discharge hole, and an inner suction hole formed between the upper discharge hole and the lower discharge hole; a first receiving member disposed in the storage chamber; and a second receiving member disposed over the first receiving member to be spaced apart from the first receiving member. At least a portion of each of the inner suction hole and the lower discharge hole faces a portion between the first receiving member and the second receiving member, and at least a portion of the upper discharge hole faces a portion between a top surface of the storage chamber and the second receiving member.

In one aspect, a portable-smart refrigerator includes a lid assembly comprising a lid coupled with a lid bottom cover for fastening the lid assembly to an internal upper portion of a Polypropylene chamber assembly. The portable-smart refrigerator includes a grill assembly comprising a top base, a pump bracket, a middle base, a bottom base. The top based hold the pump bracket. the top base is coupled with the middle base. The middle base is coupled with the bottom base. The portable-smart refrigerator includes a cooling-coil assembly comprising a feeding tube, a top elbow, a bottom tube, a cooling coil. The top elbow is installed between two lengths of tubing/pipe to enable a change of direction and couples the feeding tube with the cooling coil. The cooling coil is coupled with the bottom tube. The portable-smart refrigerator includes the phase change material (PCM) chamber assembly that holds the cooling coil. The polypropylene chamber assembly is placed within an outer cylinder. A bottom portion of the Polypropylene chamber assembly is coupled with the grill assembly. A sleeve assembly forming a portion of the outer cylinder.

An entrance refrigerator having a front surface embedded in a partition partitioning an indoor area and an outdoor area, a front opening formed on a front surface of a cabinet that is exposed to the outdoor area, a side opening formed on a side surface of the cabinet exposed to the indoor area, and a cold air supply assembly provided at a rear of the cabinet.

Embodiments are disclosed of a fluid delivery and distribution apparatus. The apparatus includes an energy-generating fluid distributor with a hot manifold including a hot chamber fluidly coupled to one or more fluid return inlets and a distributor return outlet, a cold manifold including a cold chamber fluidly coupled to a distributor supply inlet and one or more fluid supply outlets, and one or more thermoelectric devices sandwiched between the hot manifold and the cold manifold so that the thermoelectric device is in thermal contact with the hot chamber and in thermal contact with the cold chamber. The outlet of a main supply line is fluidly coupled to the distributor supply inlet, and the main supply line has a pump fluidly coupled therein that is electrically coupled to the thermoelectric device. The outlet of a main return line is fluidly coupled to the distributor return outlet.

A refrigerator includes a main body defining a storage space, a cryogenic freezing compartment having an insulation space that is independent with respect to the storage space, an evaporator disposed inside the storage space to cool the storage space, and a thermoelectric module assembly disposed at one side of the cryogenic freezing compartment so that the cryogenic freezing compartment is cooled to a temperature less than that of the storage space. The thermoelectric module assembly includes a thermoelectric module, a cold sink coming into contact with a heat absorption surface of the thermoelectric module and disposed in the cryogenic freezing compartment, and a heat sink coming into contact with a heat generation surface of the thermoelectric module. The heat sink is cooled by introducing a refrigerant supplied to the evaporator.

An electronic apparatus includes an interface unit including a connection unit, a heat transfer unit, a heat dissipation unit, and a fixation member. The connection unit is attachable to an interface terminal of an external apparatus. The fixation member is couplable to a fixation unit of the external apparatus. When the electronic apparatus is attached to the external apparatus, the heat dissipation unit, the heat transfer unit, and the interface unit are arranged in a layered manner in this order and are thermally coupled, and, along therewith, the fixation member is thermally coupled to the heat dissipation unit and the fixation unit.