High Temperature Superconductors

In summary, the conversation discusses the possibility of producing High Temperature Superconductors through laser radiation and observing their energy spectrum using a mass spectrometer. There is confusion about the specifics of this process and the parameters of the setup required. The responder suggests being more clear and detailed in the question to avoid confusion.
  • #1
Woozya
11
0
Hello, frineds

I have a question

How is it possible to get High Temperature Supercondactor produced by laser radiation?

Maybe we can irradiate a target and the producing plasma will serrle down substrate

Do you have an idea?
 
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  • #2
I don't understand the question.
Are you referring to pulsed laser deposition of high-Tc superconductors?
 
  • #3
I want to observe an energy spectrum of high-Tc superconductors using mass spectrometer. If it is possible what parametrs of the setup required?
 
  • #4
Woozya said:
I want to observe an energy spectrum of high-Tc superconductors using mass spectrometer. If it is possible what parametrs of the setup required?

This is getting utterly puzzling. You want to observe "an energy spectrum" of HTS ".. using a mass spectrometer"??

How is this related to your first post?

May I suggest that you be a bit more verbose in your question here, because the very short posts that you have made so far have been very confusing.

Zz.
 

1. What are high temperature superconductors?

High temperature superconductors (HTS) are materials that can conduct electricity with zero resistance at relatively high temperatures compared to traditional superconductors. They typically exhibit superconductivity at temperatures above 30K (-243.2°F) and some can even maintain superconductivity at room temperature.

2. How do high temperature superconductors work?

HTS materials work by allowing electrons to move through them with no resistance, meaning that no energy is lost as heat. This is due to the formation of Cooper pairs, which are pairs of electrons that are bound together and can move through the material without being repelled. This phenomenon occurs at very low temperatures in traditional superconductors, but HTS materials allow for superconductivity at higher temperatures.

3. What are the potential applications of high temperature superconductors?

HTS materials have the potential to revolutionize many industries, including transportation, energy, and healthcare. They can be used to create more efficient power transmission lines, faster and more powerful electronic devices, and even levitating trains. They also have potential applications in MRI machines and particle accelerators.

4. What are the challenges in developing high temperature superconductors?

One of the main challenges in developing HTS materials is finding ways to make them more cost-effective and practical for widespread use. Currently, many HTS materials require extremely low temperatures and expensive cooling mechanisms to maintain superconductivity. Another challenge is understanding the mechanisms behind superconductivity in these materials, which is still not fully understood.

5. Are there any drawbacks to using high temperature superconductors?

While HTS materials have many potential benefits, there are also some drawbacks. One is that they can be quite brittle and difficult to manufacture in large quantities. They also require specialized equipment and techniques for handling and processing. Additionally, the high temperatures required for superconductivity can be dangerous and costly to maintain.

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