Ming Chi University of Technology

Industrial Technology Research Institute

Jang-Hsing Hsieh

Shu-Chien Chang

Nima Bolouki

Shi-Wei Huang

Hsin-Hsin Hsieh

Himanshu Mishra

Chuan Li

Chi-Shiung Hsi

A method for sterilizing ambient air includes the steps of: a) installing a plasma-based smart window including an atmospheric pressure plasma device which includes first and second transparent flat patterned electrodes sandwiched between a light-transmissive substrate and a light-transmissive cover plate; and b) applying a power supply parameter of a predetermined magnitude between the first and second transparent flat patterned electrodes at ambient temperature and pressure to generate a surface plasma proximate to the light-transmissive substrate or the light-transmissive cover plate so as to inactivate microorganisms in the ambient air.

Method for sterilizing ambient air using plasma-based smart window

A plasma air purifying device includes a container and at least one plasma-generating element. The container includes a container body, a plurality of first partition plates and a plurality of second partition plates. The container body has an air inlet, an air outlet, and an accommodating space between the air inlet and the air outlet, and the accommodating space includes a plasma zone and a reaction zone. The first partition plates and the second partition plates are staggered in the reaction zone to separate a plurality of reaction chambers. The reaction chambers integrate spatially first through channels of the corresponding first partition plates and second through channels of the corresponding second partition plates so as to form a repetitive bending reaction channel, such that the plasma can purify the air flowing through the air inlet, the plasma zone, the repetitive bending reaction channel and the air outlet.

Plasma air purifying device

An electrode component for generating large area atmosphere pressure plasma is provided. The electrode component comprises a first transparent insulation substrate, a first transparent electrode pattern, a second transparent electrode pattern, and a second transparent insulation substrate. The first transparent insulation substrate has a first thickness. The first transparent electrode pattern and the second transparent electrode pattern are formed on the upper surface of the first transparent insulation substrate and has a gap therebetween. The second transparent insulation substrate has a second thickness and covers the first transparent electrode pattern and the second transparent electrode pattern. The first thickness is greater than the second thickness in order to form atmospheric pressure plasma above the second transparent insulation substrate.

Electrode component for generating large area atmospheric pressure plasma

A plasma polymerization apparatus is provided for forming a polymerization coating on an inner surface of an object. The plasma polymerization apparatus comprises a chamber, a gas supply, a monomer source, a first electrode, a second electrode, a power source, and a metal foil. The gas supply is connected to the chamber for filling the chamber with a working gas. The monomer source is connected to the chamber for providing a vaporized monomer material into the chamber. The first electrode is located at a first side of the chamber. The second electrode is located at a second side of the chamber. The power source is electrically connected to the first electrode and the second electrode for generating plasma. The metal foil is wrapped around an outer surface of the object and placed between the first electrode and the second electrode. A plasma polymerization method is also provided.

Plasma polymerization apparatus and plasma polymerization method using the same

The disclosure provides a solar cell encapsulating module including a first substrate, a first encapsulating material layer, a metal particle layer, multiple solar cells, a routing layer, a second encapsulating material layer and a second substrate. The first substrate is formed from a light transmittance material. The first encapsulating material layer is formed on the first substrate. The metal particle layer is formed on the first encapsulating material layer. The solar cells are disposed on the metal particle layer. The routing layer is disposed on the solar cells for being electrically connected to the plurality of solar cells. The second encapsulating material layer is formed on the routing layer. The second substrate is disposed on the second encapsulating material layer. The routing layer is disposed on only one side of the solar cells.

Growing community of inventors

Taipei, Taiwan

Jang-Hsing Hsieh