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Warpspeed13
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How would you generate extreme electric fields between two small surface area parallel plates.
What a simple question.Warpspeed13 said:How would you generate extreme electric fields between two small surface area parallel plates.
Warpspeed13 said:I want a tunable electric field to experiment on ferrofluid with. Since it will react to both electric and magnetic fields. I want electric because I haven't seen anyone actually demonstrating its reaction to an electric field. Everyone always demonstrates with magnetic fields.
Alkali-free glass is a material for you. In a slowly varying electric fields it has breakdown strenght > 1000 kV/mmWarpspeed13 said:How would you generate extreme electric fields between two small surface area parallel plates.
So if I were to use conductive oil or increase the concentration of nano particles. It should react to a current running through it?Mike_In_Plano said:Generally, after the density of conductive particles trapped in a dielectric exceed a given level becomes conductive.
With a fluid, particles are free to align and form conducive paths.
mfb said:Sharp tips of electrodes close together allow to reach high electric field strengths with a reasonable overall voltage.
Regions of stronger field where your ferrofluid can accumulate and get influenced by the voltage. There are also regions of weaker field, but those can be filled with air.berkeman said:Is there an advantage to using sharp tips spaced a distance d apart, versus parallel plates a distance d apart? I can see that if you want to vary the strong field at high frequencies, the lower capacitance of the sharp tips will help, but for static fields you should get the same E = V/d, right?
To generate a powerful electric field in a small space, you can use a high voltage power supply and a specialized electrode configuration. This will create a strong electric potential difference between the electrodes, resulting in a powerful electric field.
To generate a powerful electric field, you will need a high voltage power supply, specialized electrodes, and a dielectric material to insulate the electrodes. Additionally, you may need other components such as capacitors and transformers depending on your specific setup.
Unfortunately, it is not possible to generate a powerful electric field without using high voltages. This is because the strength of an electric field is directly proportional to the potential difference between two points, and high voltages create a large potential difference.
Yes, it is important to take safety precautions when working with high voltages and powerful electric fields. This includes wearing appropriate protective gear, using insulated tools, and following proper procedures for handling and storing equipment.
Powerful electric fields in a small space have several practical applications, such as in particle accelerators, medical devices, and high voltage testing equipment. They can also be used in research and development for various fields such as materials science and plasma physics.