An non-thermal plasma field generating apparatus for air treatment comprising: an intake portion and an output portion; a reaction chamber located between the intake portion and output portion, wherein the reaction chamber comprises: an anode rail assembly comprising: an anode rail made of a first conductive material and having a shape of a helix about a longitudinal axis, and a plurality of discharge anode elements, wherein each of the plurality of discharge anode elements has a proximal end and a distal end, the proximal ends of the discharge anode elements are secured to the anode rail, and each of the plurality of discharge anode elements are electrically coupled to each other and to the anode rail; a cathode rail comprising a second conductive material, wherein the cathode rail is positioned along the longitudinal axis of the helical anode; and the anode rail assembly and the cathode rail being located relative to each other so as to form a cylindrical space, wherein the space separates the cathode rail from the plurality of discharge anode elements such that the discharge anode elements do not cross the cylindrical space; an intake blower located in the intake portion, wherein the intake blower is configured to draw air into the reaction chamber; and an alternating current power supply that is coupled to both the anode rail and the cathode rail, wherein the alternating current power supply is configured to deliver sufficient energy to generate a non-thermal plasma field in the space between the anode rail assembly and the cathode rail. an intake portion and an output portion; a reaction chamber located between the intake portion and output portion, wherein the reaction chamber comprises: an anode rail assembly comprising: an anode rail made of a first conductive material and having a shape of a helix about a longitudinal axis, and a plurality of discharge anode elements, wherein each of the plurality of discharge anode elements has a proximal end and a distal end, the proximal ends of the discharge anode elements are secured to the anode rail, and each of the plurality of discharge anode elements are electrically coupled to each other and to the anode rail; a cathode rail comprising a second conductive material, wherein the cathode rail is positioned along the longitudinal axis of the helical anode; and the anode rail assembly and the cathode rail being located relative to each other so as to form a cylindrical space, wherein the space separates the cathode rail from the plurality of discharge anode elements such that the discharge anode elements do not cross the cylindrical space; an intake blower located in the intake portion, wherein the intake blower is configured to draw air into the reaction chamber; and an alternating current power supply that is coupled to both the anode rail and the cathode rail, wherein the alternating current power supply is configured to deliver sufficient energy to generate a non-thermal plasma field in the space between the anode rail assembly and the cathode rail. an anode rail made of a first conductive material and having a shape of a helix about a longitudinal axis, and a plurality of discharge anode elements, wherein each of the plurality of discharge anode elements has a proximal end and a distal end, the proximal ends of the discharge anode elements are secured to the anode rail, and each of the plurality of discharge anode elements are electrically coupled to each other and to the anode rail; a cathode rail comprising a second conductive material, wherein the cathode rail is positioned along the longitudinal axis of the helical anode; and the anode rail assembly and the cathode rail being located relative to each other so as to form a cylindrical space, wherein the space separates the cathode rail from the plurality of discharge anode elements such that the discharge anode elements do not cross the cylindrical space; an intake blower located in the intake portion, wherein the intake blower is configured to draw air into the reaction chamber; and an alternating current power supply that is coupled to both the anode rail and the cathode rail, wherein the alternating current power supply is configured to deliver sufficient energy to generate a non-thermal plasma field in the space between the anode rail assembly and the cathode rail.