Abstract: A dehumidification device and an electrified desorption device thereof are provided. The electrified desorption device includes a conductive water-absorbing material containing titanosilicates; a conductive layer containing a metal component or a mixture of the metal component and graphite, attached to end surfaces at two sides of the water-absorbing material; a pair of electrode structures, coupled to the two sides of the water-absorbing material respectively and each having multiple sub-electrodes insulated from each other; and a voltage source, coupled to the pair of electrode structures. The electrodes are coupled to the conductive water-absorbing material, and the conductive water-absorbing material is directly electrified with a current, so that the conductive water-absorbing material generates heat to achieve a desorption effect, and further maintains a re-adsorbing capability to continue operation.

Abstract: An electrified desorption device, including a conductive water-absorbing material containing titanosilicates, wherein a ratio of silicon atoms to titanium atoms in the titanosilicates of the conductive water-absorbing material is 1 ? Si Ti ? 10 ; a conductive layer selected from the group consisting of a metal component, an alloy material, a conductive oxide component, and a mixture including either (a) more than one of the foregoing components or (b) the metal component, the alloy material, and graphite, attached to end surfaces at two sides of the water-absorbing material; a pair of electrode structures, coupled to two sides of the water-absorbing material respectively, and each having multiple sub-electrodes insulated from each other; and a voltage source, coupled to the pair of electrode structures.

Abstract: The present invention provides a device and system for desorption and dehumidification, comprising a conductive electrode, a moisture absorber, and a power source. The conductive electrode comprises a first surface and a second surface opposite to the first surface, and the first surface has a plurality of protrusion elements. The moisture absorber comprises a third surface formed on the plurality of protrusions. The power source provides power to the conductive electrode such that a uniform and stable micro-discharge phenomenon is generated thereby forming a continuous charge flow. The continuous charge flow can further generate an electrical interruption for depolarizing the attraction between the moisture molecules and moisture absorber whereby the moisture molecules can be desorbed from the moisture absorber more easily.

Abstract: The present invention provides a low power consumption desorption apparatus, which utilizes a pair of electrodes coupled to an absorbing material to provide an electric current flowing through the absorbing material so as to desorb the substances absorbed within the absorbing material. By means of the desorption apparatus of the present invention, the absorbing material is able to enhance the desorbing efficiency and reducing power consumption during desorption. The present invention further provides a dehumidifier using the low power consumption desorption apparatus for providing a continuous dry air flow to desorb and regenerate the moisture from the absorbing material so that the dehumidifier is capable of removing moisture in the air repeatedly to reduce the humidity.

Abstract: A method and an apparatus for desorption and a dehumidifier are provided in the present invention, in which an electrical potential is applied to electrodes disposed on both ends of an absorbing material so as to desorb the substances absorbed within the absorbing material whereby the absorbing material is capable of being maintained for cycling the absorbing operation. By means of the method and the apparatus of the present invention, the desorbing efficiency can be enhanced and the energy consumption can be reduced during desorption.

Abstract: The present invention provides a low power consumption desorption apparatus, which utilizes a pair of electrodes coupled to an absorbing material to provide an electric current flowing through the absorbing material so as to desorb the substances absorbed within the absorbing material. By means of the desorption apparatus of the present invention, the absorbing material is able to enhance the desorbing efficiency and reducing power consumption during desorption. The present invention further provides a dehumidifier using the low power consumption desorption apparatus for providing a continuous dry air flow to desorb and regenerate the moisture from the absorbing material so that the dehumidifier is capable of removing moisture in the air repeatedly to reduce the humidity.

Abstract: A plasma reformer includes a first electrode, a second electrode, an insulating member, an atomizing device and a power supply. A discharge gap is defined between the first electrode and the second electrode. The insulating member is arranged between the first electrode and the second electrode to insulating the first electrode and the second electrode, and a vortex gas flow route is formed between the insulating member and the first electrode, the second electrode. The second electrode penetrates the insulating member. The atomizing device is arranged on the first electrode and/or the second electrode. The power supply is connected with the first electrode and the second electrode.

Abstract: A method and an apparatus for desorption and a dehumidifier are provided in the present invention, in which an electrical potential is applied to electrodes disposed on both ends of an absorbing material so as to desorb the substances absorbed within the absorbing material whereby the absorbing material is capable of being maintained for cycling the absorbing operation. By means of the method and the apparatus of the present invention, the desorbing efficiency can be enhanced and the energy consumption can be reduced during desorption.

Abstract: A plasma reformer includes a first electrode, a second electrode, an insulating member, an atomizing device and a power supply. A discharge gap is defined between the first electrode and the second electrode. The insulating member is arranged between the first electrode and the second electrode to insulating the first electrode and the second electrode, and a vortex gas flow route is formed between the insulating member and the first electrode, the second electrode. The second electrode penetrates the insulating member. The atomizing device is arranged on the first electrode and/or the second electrode. The power supply is connected with the first electrode and the second electrode.

Abstract: The present invention relates to a process of making YAG fluorescence powder which comprises steps of: (a) providing a first solution of anions and a second solution of cations; (b) mixing the first solution of anions and the second solution of cations drop by drop and forming a precipitate; (c) collecting the precipitate and drying it; (d) annealing the precipitate under a pre-determined temperature until powder occurs; (e) sintering the annealed powder with a plasma torch for at least once; and (f) collecting the sintered powder.