Plasmic Fields

Entering a high-voltage plasma field can affect biological entities such as airborne pathogens. Unicellular & multicellular organisms such as microbial and acellular organisms (viruses) can be killed or inactivated accordingly as they pass through plasma fields.

States of Matter Solid > Liquid > Gas > Plasma Temperature effects from cold to hot.
Matter exists in four primary states: solid, liquid, gas, and plasma. Each state is characterized above by the arrangement and motion of it’s constituent particles. As temperature increases, motion increases, and as you move to the left being solid to the right being plasma the energy increases affecting temperature.

As a solid everything is packed together and doesn’t move easily from place to place. Solids have a definitive shape and volume.

Liquids, like solids have particles that still close together, but can move past each other making them fluid. Liquids assume the shape of the container they are held in. Additional heat was added to achieve this state.

Gases have particles that are far apart, move freely and collide with each other. Gases will achieve steady state concentration within a specific volume. As liquids more heat is added to achieve the gaseous state.

Plasma is the fourth state of matter, where molecule are stripped of their electrons, and particles passing through plasma fields become highly conductive and react while exposed to these fields. To top this off the highest level of heat / energy is applied to achieve this state.

Reviveaire technologies harnesses this precious plasma state for elimination/disinfection of airborne pathogens that is used as a valuable tool for maintaining indoor air quality and reducing the spread of airborne infection.
Corona Virus cell wall destruction
  • Electric Discharge: When airborne pathogens enter a plasma field with a voltage of 5500 volts, they will be exposed to a strong electric field. This can induce an electric current to flow through the pathogens.
  • Thermal Effects: The high voltage and resulting electric current generate heat due to resistance within the pathogens. This heat can potentially damage the pathogens, including their genetic material, proteins, and other vital structures. However, the effectiveness of heat in killing or neutralizing pathogens depends on various factors, such as the pathogen type, its resistance to heat, and the duration and intensity of exposure.
  • Electroporation: High electric fields can disrupt the cell membranes of pathogens, including viruses and microbials. This can create temporary pores or holes in the cell membranes, allowing the plasma or other substances to enter the pathogen and interfere with its normal functioning. Electroporation can potentially render the pathogens ineffective or lead to their death.
  • Inactivation of Genetic Material: The high electric fields and associated energy can disrupt viruses and other pathogens’ genetic material (DNA or RNA). This disruption can prevent the pathogens from replicating or expressing their genetic information properly, rendering them ineffective or non-viable.