The present invention relates to a thermoelectric dehumidification rod. More particularly, the thermoelectric dehumidification rod has stronger dissipation effect and is bendable according to the actual space size and shape for fitting the space size, or the linear length of the thermoelectric dehumidification rod could be shortened to fit the curved space or the space which width, length, or height is smaller than the unbended thermoelectric dehumidification rod.
Mold is one kind of fungi, existing wildly in nature. It grows easily in the unventilated and moist environment. Because mold likes to grow in the moist environment and has well fecundity, the clothes and valuable objects must be well protected in dehumidification and damp-proof situation. The humidity in the environment can be decreased by some dehumidifier, making the environment keep in dry to decrease the growth of the mold or bacteria.
The general dehumidifiers are divided into two kinds. One kind is condensing dehumidifier, which is put at somewhere and operates by electrical power, but its volume is too huge to transport, it usually is used to improve the humidity of a big space. The other kind is some chemical materials, such as calcium chloride, which can be put in a small space and has the characteristic that can easily absorb the water molecule in the air. The moisture-proof bag put in the food package or the moisture-proof box put in the closet is common. However, in this dehumidification method, the chemical material is consumed and need to be constantly replenished, it is inconvenience.
Moreover, a thermoelectric dehumidifier for general home cabinets has been developed on the market to decrease the humidity in cabinets for keeping the stored goods dry. Please refer to
A thermoelectric dehumidification rod comprises a thermoelectric element, a bendable heat-dissipation tube formed with a wave structure at the surface, and a power cable. The thermoelectric element is set in the bendable heat-dissipation tube, and both ends of the bendable heat-dissipation tube are covered by an end cap, respectively. The power cable is through one of the end caps and electrically connected with the thermoelectric element. Accordingly, the thermoelectric dehumidification rod has bigger surface area for heat-dissipation and is bendable.
According to an embodiment of the present invention, the bendable heat-dissipation tube is a bellows structure, thereby being stretchable and bendable.
According to an embodiment of the present invention, the bendable heat-dissipation tube comprises several spiral rings. One side of each spiral ring is an embedding part and the side opposite the embedding part is a hook part, which hook part is assembled with the embedding part of the adjacent spiral ring, making the heat-dissipation tube bendable. Whether the tube is in straight or bending situation, the heat-dissipation tube is formed with a continuous and closed wall for protecting the thermoelectric element in the tube.
The advantages of the thermoelectric dehumidification rod of the present invention are described as below.
Due to the bendable characteristic of the bendable heat-dissipation tube, the linear length of the whole thermoelectric dehumidification rod is shortened to fit the shape of a space or to be put in a space which has a size that is smaller than the linear length of the unbent thermoelectric dehumidification rod, so it is convenient for use and has a greater economic benefit.
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The thermoelectric element 1 is capable of generating heat and is a soft structure, such as a thermoelectric wire.
The bendable heat-dissipation tube 2 is a hollow and bendable tube which has an internal channel extending longitudinally internally of the heat dissipation tube 2 between two ends thereof. The thermoelectric element 1 is set within the internal longitudinal channel of the bendable heat-dissipation tube 2, and both ends of the bendable heat-dissipation tube 2 are covered by an end cap 21, respectively.
One end of the power cable 3 is a plug 31 for connecting with a socket (not shown) in a building, and the other end of the power cable 3 is through one of the end caps 21 into the internal longitudinal channel of the heat-dissipation tube 2 to electrically connect to the thermoelectric element 1. The electrical power is supplied via the power cable 3 to the thermoelectric element 1.
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5640951 | Huddart | Jun 1997 | A |
7036575 | Rodney | May 2006 | B1 |
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Number | Date | Country | |
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20170299235 A1 | Oct 2017 | US |