Abstract:
A dielectric barrier discharge lamp includes a lamp tube, a discharge gas, a support member, a first electrode, and a second electrode. The lamp tube has a first and a second sealed end. The discharge gas is filled in the lamp tube. The support member is disposed at the first sealed end and extended toward the inside of the lamp tube. The support member has an accommodating space with its opening facing the inside of the lamp tube. The first electrode is disposed in the lamp tube. A first terminal of the first electrode passes through the opening of the accommodating space. A gap exists between an end of the first terminal of the first electrode and a closed end of the accommodating space. A second terminal of the first electrode penetrates and is closely fitted with the second sealed end. The second electrode is disposed outside the lamp tube.
Abstract:
Molybdenum-silicon carbide composite powder and a fabrication method thereof are provided. The molybdenum-silicon carbide composite powder includes a micro-scale silicon carbide powder and a plurality of submicron-scale molybdenum particles bonding on the surface of the silicon carbide powder.
Abstract:
A dielectric barrier discharge lamp includes a lamp tube, a discharge gas, a support member, a first electrode, and a second electrode. The lamp tube has a first and a second sealed end. The discharge gas is filled in the lamp tube. The support member is disposed at the first sealed end and extended toward the inside of the lamp tube. The support member has an accommodating space with its opening facing the inside of the lamp tube. The first electrode is disposed in the lamp tube. A first terminal of the first electrode passes through the opening of the accommodating space. A gap exists between an end of the first terminal of the first electrode and a closed end of the accommodating space. A second terminal of the first electrode penetrates and is closely fitted with the second sealed end. The second electrode is disposed outside the lamp tube.
Abstract:
The disclosure provides a thermoelectric module and a method for fabricating the same. The thermoelectric module includes a plurality of p-type and n-type segmented thermoelectric elements disposed in a planar array, wherein the p-type and n-type segmented thermoelectric elements are coupled in series via a plurality of first electrodes and second electrodes. Each segmented thermoelectric element includes at least two vertically homogeneous thermoelectric segments, and at least two adjacent thermoelectric segments have a fusion-bonding layer therebetween. The fusion-bonding layer includes a tin-containing material and a plurality of spacers disposed among the tin-containing material, wherein the melting point of the spacers is higher than the liquidus temperature of the tin-containing material.