Abstract:
Exemplary systems and methods associated with trans-tissue substance delivery using non-thermal plasma to porate skin or tissues using contoured dielectrics/electrodes and grounding techniques. In some embodiments, a substance delivery system may be incorporated into the plasma generating device for automatically controlled skin treatments. In other embodiments, a skin treatment patch may include the electrode and the treatment substance.
Abstract:
Exemplary methods of opening pores and moving molecules into tissue comprising, applying plasma to the surface of tissue and applying a carrier including one or more molecules to the surface of the tissue are disclosed herein.
Abstract:
Exemplary systems and methods associated with skin treatments using non- thermal plasma to porate skin or tissues using conductive elements to direct an electric field through targeted regions of the skin or tissue. Various configurations of conductive elements and associated circuitry may be used to tune and control the electric field.
Abstract:
Exemplary apparatuses and methods of killing or deactivating bacteria are disclosed herein. An exemplary apparatus for killing or deactivating bacteria includes a plasma vapor chamber. The plasma vapor chamber has a vapor inlet for allowing a vapor into the chamber, a high voltage electrode, one or more grounding electrodes. The one or more grounding electrodes at least partially surrounding the plasma vapor chamber. The plasma vapor chamber includes an outlet for allowing fluid to flow out of the chamber. When the chamber is filled with vapor for a period of time sufficient to saturate the chamber with vapor, the high voltage electrode is energized to generate plasma throughout the chamber.
Abstract:
A medical device for directly applying DBD plasma includes a plasma generation module having an electrode surrounded by a dielectric barrier. In one embodiment, when a high voltage source is applied to the electrode, plasma is produced from ambient gas on an outside surface of the plasma generation module. In another embodiment, an enclosure is deployed around the distal end of the plasma generation module surrounding the electrode. Gas flows past the electrode and into the enclosure. In some embodiments, some or all of the gas is removed or pumped out of the enclosure by suction/vacuum. When a high voltage source is applied to the electrode, plasma is produced using the gas flowing into the enclosure.
Abstract:
A treated crop plant or plant food product with decreased bacterial viability relative to an untreated crop plant or plant food product. The treated crop plant or plant food product has at least a 1-log reduction in bacterial viability relative to the untreated crop plant or plant food product. Methods and apparatuses of producing the treated crop plant or plant food product are also provided.
Abstract:
Exemplary embodiments of shape conforming dielectric barrier discharge (DBD) plasma generators are disclosed herein. One exemplary embodiment includes a flexible pad and a plurality of electrodes located in the pad within close proximity of each other, and a flexible dielectric barrier surrounding the plurality of electrodes and separating the plurality of electrodes from each other. Wherein when a high voltage pulse is applied to one or more of the plurality of electrodes, plasma is produced between a surface of the flexible pad and a portion of the body in close proximity to the flexible pad.
Abstract:
Exemplary embodiments of systems for generating large volumes of plasma activated liquids are disclosed herein. An exemplary system for creating a large volume of plasma- activated liquid includes a gas pump that moves a gas and liquid entrained in the gas, one or more plasma generators for generating plasma to activate at least one of the gas and the liquid entrained in the gas, a supply of liquid to be activated, a liquid aerator for creating an aerated liquid to be entrained in the gas, an activation chamber for activating the aerated liquid by contacting at least one of the aerated liquid or aerated liquid entrained in gas with plasma or plasma activated gas to form an activated liquid gas mixture. The exemplary system also includes a liquid gas separator positioned downstream of the activation chamber. The liquid gas separator separates at least a portion of the activated liquid gas mixture into an activated liquid and the gas. The activated liquid flows out of a first portion of the liquid gas separator and the gas flows out of a second portion of the liquid gas separator.
Abstract:
A cleaning, sanitizing or disinfecting scrubbing device includes a body, a non-thermal plasma generator and damp wipe. Generated plasma activates fluid in the wipe. The device may include spacer posts between the body and wipe and a conductive mesh between the body and wipe or embedded in the wipe. Another embodiment includes a reservoir for holding a water- based fluid, a fluid delivery element connected to the reservoir by a tube through which the fluid can flow and a non-thermal plasma generator. The non-thermal plasma generator activates the fluid. In one embodiment the scrubbing device is a mitt. In another embodiment the scrubbing device is a glove.
Abstract:
System and method for printing a three-dimensional object include a 3D printing device (100) and a plasma applicator (102). In some embodiments the plasma applicator is rotatably connected to the 3D printing device and may apply plasma to a molten layer of 3D printing material immediately after the material is laid, or to a solidified layer immediately before the next layer is laid. In some embodiments a second plasma applicator is included for application of plasma both before and after each layer. In some embodiments plasma is applied to the final layer of a finished 3D printed object.