Cold Plasma - Avimetal

Project Information

  • Name Cold Plasma Reactor
  • Model Laboratory Model 1 Reactors 10 Reactors 20 Reactors
  • Power DC48V 100 - 2000 Amphere
  • Order Turnaround Time 90 - 120 days

Cold Plasma

Cold plasma, also known as non-thermal plasma, is a partially ionized gas that is created at low temperatures and pressures. It is called “cold” because even though the temperature of the plasma is high, it does not significantly increase the temperature of the surrounding environment.

Cold plasma is created by applying an electrical field to a gas, typically by applying a high voltage to two electrodes that are separated by a small distance in a gas-filled chamber. This causes some of the gas molecules to become ionized, forming a plasma.

Cold plasma has a number of unique properties that make it useful for various applications. It can be used to sterilize surfaces, treat wounds, and even modify materials. Cold plasma can also be used to generate reactive species, such as ozone, that can be used to break down pollutants or to clean contaminated water.

One of the advantages of cold plasma is that it can be generated using a wide variety of gases, including air, nitrogen, oxygen, and hydrogen. This makes it a versatile tool for a range of applications. Additionally, because the temperature of the plasma is relatively low, it can be used to treat temperature-sensitive materials, such as food products or biological tissues, without damaging them.

Overall, cold plasma is an exciting area of research with many potential applications, and scientists continue to explore new ways to use this technology in a variety of fields.

A form of matter made up wholly or partially of ions and electrons is known as plasma (charged particles). A gas will disintegrate into atoms, positive ions and electrons when energy is applied to it. There are two types of plasma, thermal and non-thermal. All particles (electrons, ions, atoms and
molecules) are in thermal equilibrium in thermal plasmas (which means the average kinetic energy is the same for all kinds). Thermal plasmas (also known as ‘hot plasmas’) have temperatures ranging from a few thousand to a few million degrees Kelvin. Atoms, positive ions and molecules have substantially lower kinetic energy than electrons in nonthermal plasmas, which are also termed ‘cold plasmas’.

In cold plasmas the temperature ranges from room temperature to a few hundred Kelvin. Cold plasma (CP) is a new technology that has captured the imagination of researchers all around the world. It was created to improve the printing and adhesive capabilities of polymers, as well as a number of electronic applications. Its uses have expanded in the recent decade as a potent instrument for non-thermal processing, with a variety of applications.

Cold plasma technology is widely used to  manufacture semiconductors, printed circuit boards, magnetic media, special glasses, coating metals, and surface-treating some fabrics. A corona discharge can produce cold plasma by applying an electric field to the gas. This technology is ‘dry’, in the sense that it requires no solvents or other chemicals, only gases such as air, nitrogen, oxygen, argon or hydrogen. As a result, it is environmentally sustainable.

A revolutionary cold plasma device designed by Richard Woodford and James Gim is ready to be commercialized for metallurgical refining applications. When a DC-pulsed, electric power is delivered to a hydrogen-containing gas, it ionizes, resulting in various radicals. The hydrogen radicals formed in the molten metal react with the contaminants. When they reach the surface, they react with impurities containing Sulphur, nitrogen or phosphorus to generate the volatile chemicals H2S, NH3, and PH3. These chemicals are transported away by the fluent gas since they are insoluble in the melts. As a result, the metal’s impurity elements are eliminated.

In a cold plasma device containing a reactor, a positive electrode, a negative electrode, a membrane and an agitator, the electrode is set up to produce cold plasma with a temperature range of 65 to 120 degrees Fahrenheit (18 to 49C, 291 to 322 K). We developed the membrane and electrodes ourselves. The metals are then removed with the use of an electrolyte containing NaCl and unique compounds. Different metals can then be recovered by adjusting the pH level.

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