Abstract: Disclosed is a method for treating actinic keratosis of tissue of a patient, the method including contacting non-thermal, atmospheric pressure plasma over areas of the tissue having actinic keratosis for a time and at treatment conditions effective to give rise to an at least partial amelioration of the keratosis.

Abstract: Disclosed is a method for treating actinic keratosis of tissue of a patient, the method including contacting non-thermal, atmospheric pressure plasma over areas of the tissue having actinic keratosis for a time and at treatment conditions effective to give rise to an at least partial amelioration of the keratosis.

Abstract: Provided is a method for determining an effect of a potential active agent on a sample comprising a co-culture comprising a target cellular object, TCO, and one or more further cell types, FCT, wherein the TCO has been labelled with a flourescent live-cell marker having a first emission/excitation profile, and with a luminescent cell-death marker, and optionally the FCT has been labelled with a fluorescent live-cell marker having a second emission/excitation profile different from the first emission/excitation profile, comprising capturing, during an acquisition event using a microscope, a first fluorescent image from the fluorescent live-cell marker having the first emission/excitation profile, and optionally a second fluorescent image from the fluorescent live-cell marker having the second emission/excitation profile, and a luminescence measurement of the sample, and comparing fluorescent images and luminescent measurements between sample contacted with the potential active agent and sample not contacted wi

Abstract: A method for treating a wart on skin of a patient includes guiding non-thermal, atmospheric pressure plasma over areas of the tissue having the wart for a length of time effective to give rise to an at least partial amelioration of the wart.

Abstract: Provided is a method for determining an effect of a potential active agent on a sample comprising a co-culture comprising a target cellular object, TCO, and one or more further cell types, FCT, wherein the TCO has been labelled with a flourescent live-cell marker having a first emission/excitation profile, and with a luminescent cell-death marker, and optionally the FCT has been labelled with a fluorescent live-cell marker having a second emission/excitation profile different from the first emission/excitation profile, comprising capturing, during an acquisition event using a microscope, a first fluorescent image from the fluorescent live-cell marker having the first emission/excitation profile, and optionally a second fluorescent image from the fluorescent live-cell marker having the second emission/excitation profile, and a luminescence measurement of the sample, and comparing fluorescent images and luminescent measurements between sample contacted with the potential active agent and sample not contacted wi

Abstract: Disclosed is a method for treating actinic keratosis of tissue of a patient, the method including contacting non-thermal, atmospheric pressure plasma over areas of the tissue having actinic keratosis for a time and at treatment conditions effective to give rise to an at least partial amelioration of the keratosis.

Abstract: Disclosed is a method for treating actinic keratosis of tissue of a patient, the method including contacting non-thermal, atmospheric pressure plasma over areas of the tissue having actinic keratosis for a time and at treatment conditions effective to give rise to an at least partial amelioration of the keratosis.

Abstract: Applications of dielectric barrier discharge (DBD) based atmospheric pressure plasma jets are often limited by the relatively small area of treatment due to their 1D configuration. This system generates 2D plasma jets permitting fast treatment of larger targets. DBD evolution starts with formation of transient anode glow, and continues with development of cathode-directed streamers. The anode glow can propagate as an ionization wave along the dielectric surface through and outside of the discharge gap. Plasma propagation is not limited to 1D geometry such as tubes, and can be organized in a form of a rectangular plasma jet, or other 2D or 3D shapes. Also described are a method for generating 2D plasma jets and use of the 2D plasma jets for cancer therapy.

Abstract: Applications of dielectric barrier discharge (DBD) based atmospheric pressure plasma jets are often limited by the relatively small area of treatment due to their 1D configuration. This system generates 2D plasma jets permitting fast treatment of larger targets. DBD evolution starts with formation of transient anode glow, and continues with development of cathode-directed streamers. The anode glow can propagate as an ionization wave along the dielectric surface through and outside of the discharge gap. Plasma propagation is not limited to 1D geometry such as tubes, and can be organized in a form of a rectangular plasma jet, or other 2D or 3D shapes. Also described are a method for generating 2D plasma jets and use of the 2D plasma jets for cancer therapy.

Abstract: Disclosed is a method for treating actinic keratosis of tissue of a patient, the method including contacting non-thermal, atmospheric pressure plasma over areas of the tissue having actinic keratosis for a time and at treatment conditions effective to give rise to an at least partial amelioration of the keratosis.

Abstract: A method for treating a wart on skin of a patient includes guiding non-thermal, atmospheric pressure plasma over areas of the tissue having the wart for a length of time effective to give rise to an at least partial amelioration of the wart.

Abstract: Applications of dielectric barrier discharge (DBD) based atmospheric pressure plasma jets are often limited by the relatively small area of treatment due to their 1D configuration. This system generates 2D plasma jets permitting fast treatment of larger targets. DBD evolution starts with formation of transient anode glow, and continues with development of cathode-directed streamers. The anode glow can propagate as an ionization wave along the dielectric surface through and outside of the discharge gap. Plasma propagation is not limited to 1D geometry such as tubes, and can be organized in a form of a rectangular plasma jet, or other 2D or 3D shapes. Also described are a method for generating 2D plasma jets and use of the 2D plasma jets for cancer therapy.

Abstract: Methods and apparatus of providing a joint replacement parts with a pharmaceutical delivery system is provided. The pharmaceutical delivery system is placed within the joint replacement parts to provide, over a period of time, sustained release of a controlled concentration of pharmaceuticals within the joint space of the joint replacement and to produce a local or systemic physiological of pharmacological effect.

Abstract: Methods and apparatus of providing a joint replacement parts with a pharmaceutical delivery system is provided. The pharmaceutical delivery system is placed within the joint replacement parts to provide, over a period of time, sustained release of a controlled concentration of pharmaceuticals within the joint space of the joint replacement and to produce a local or systemic physiological of pharmacological effect.

Abstract: Methods and apparatus of providing a joint replacement parts with a pharmaceutical delivery system is provided. The pharmaceutical delivery system is placed within the joint replacement parts to provide, over a period of time, sustained release of a controlled concentration of pharmaceuticals within the joint space of the joint replacement and to produce a local or systemic physiological of pharmacological effect.

Abstract: Methods and apparatus of providing a joint replacement parts with a pharmaceutical delivery system is provided. The pharmaceutical delivery system is placed within the joint replacement parts to provide, over a period of time, sustained release of a controlled concentration of pharmaceuticals within the joint space of the joint replacement and to produce a local or systemic physiological of pharmacological effect.

Abstract: Methods and apparatus of providing a joint replacement parts with a pharmaceutical delivery system is provided. The pharmaceutical delivery system is placed within the joint replacement parts to provide, over a period of time, sustained release of a controlled concentration of pharmaceuticals within the joint space of the joint replacement and to produce a local or systemic physiological of pharmacological effect.

Abstract: Methods and apparatus of providing a joint replacement parts with a pharmaceutical delivery system is provided. The pharmaceutical delivery system is placed within the joint replacement parts to provide, over a period of time, sustained release of a controlled concentration of pharmaceuticals within the joint space of the joint replacement and to produce a local or systemic physiological of pharmacological effect.