Abstract: A method for delivering permeant substances transdermally into a membrane of an animal includes forming at least one delivery opening in the skin tissue, with the at least one delivery opening having a mean opening depth of between about 40 and about 90 microns.

Abstract: A transdermal permeant delivery of at least one permeant composition into a tissue membrane of a subject including a disposable substrate having at least a portion of a bottom surface of a first release liner connected to an upper surface of the substrate and a patch having a backing layer and a reservoir that is selectively removable from the top surface of the first release liner. In a connected position, a first portion of the backing layer of the patch is releaseably mounted to a top surface of the first release liner in spaced registration with a poration area of the substrate.

Abstract: A method of enhancing the permeability of a biological membrane, including the skin or mucosa of an animal or the outer layer of a plant to a permeant is described utilizing microporation of selected depth and optionally one or more of sonic, electromagnetic, mechanical and thermal energy and a chemical enhancer. Microporation is accomplished to form a micropore of selected depth in the biological membrane and the porated site is contacted with the permeant. Additional permeation enhancement measures may be applied to the site to enhance both the flux rate of the permeant into the organism through the micropores as well as into targeted tissues within the organism.

Abstract: Providing a method for monitoring an analyte extracted from a patient and delivering a permeant composition to the patient. The method includes the steps of a) contacting a poration device to a tissue membrane of the patient, the poration device including at least one porator array; b) actuating poration of the tissue membrane using the at least one porator array in the poration device; c) extracting the analyte from the porated tissue membrane by way of the at least one porator array; d) analyzing the analyte to determine a concentration of the analyte within the tissue membrane; and e) delivering a permeant composition to the tissue membrane by way of the at least one porator array.

Abstract: A method for delivering permeant substances transdermally into a membrane of an animal includes forming at least one delivery opening in the skin tissue, with the at least one delivery opening having a mean opening depth of between about 40 and about 90 microns.

Abstract: A method for delivering permeant substances transdermally into a membrane of an animal includes forming at least one delivery opening in the skin tissue, with the at least one delivery opening having a mean opening depth of between about 40 and about 90 microns.

Abstract: Providing a method for monitoring an analyte extracted from a patient and delivering a permeant composition to the patient. The method includes the steps of a) contacting a poration device to a tissue membrane of the patient, the poration device including at least one porator array; b) actuating poration of the tissue membrane using the at least one porator array in the poration device; c) extracting the analyte from the porated tissue membrane by way of the at least one porator array; d) analyzing the analyte to determine a concentration of the analyte within the tissue membrane; and e) delivering a permeant composition to the tissue membrane by way of the at least one porator array.

Abstract: The invention provides for a device for delivering a drug comprising: a. forming one or more micropores in a tissue membrane; and b. applying a patch containing a drug to the one or more micropores formed in the tissue membrane The invention also provides for methods of making and methods of using the same.

Abstract: A transdermal permeant delivery system for delivery of at least one permeant composition into a tissue membrane of a subject including a disposable substrate having at least a portion of a bottom surface of a first release liner connected to an upper surface of the substrate and a patch having a backing layer and a reservoir that is selectively removable from the top surface of the first release liner. In a connected position, a first portion of the backing layer of the patch is releaseably mounted to a top surface of the first release liner in spaced registration with a poration area of the substrate.

Abstract: The invention provides for an integrated device for forming a cavity in a surface of a tissue of an animal comprising: a) a controller board connected to an energy source for actuating at least one porator; b) a fluid reservoir in fluid communication with the tissue; and c) a tissue interface layer, the tissue interface layer containing the at least one porator, the porator in contact with the tissue for forming the cavity. The invention also provides for methods of making and methods of using the same.

Abstract: A method for delivering permeant substances transdermally into a membrane of an animal includes forming at least one delivery opening in the skin tissue, with the at least one delivery opening having a mean opening depth of between about 40 and about 90 microns.

Abstract: A transdermal permeant delivery system for delivery of at least one permeant composition into a tissue membrane of a subject including a disposable substrate having at least a portion of a bottom surface of a first release liner connected to an upper surface of the substrate and a patch having a backing layer and a reservoir that is selectively removable from the top surface of the first release liner. In a connected position, a first portion of the backing layer of the patch is releaseably mounted to a top surface of the first release liner in spaced registration with a poration area of the substrate.

Abstract: A transdermal permeant delivery system for delivery of at least one permeant composition into a tissue membrane of a subject including a disposable substrate having at least a portion of a bottom surface of a first release liner connected to an upper surface of the substrate and a patch having a backing layer and a reservoir that is selectively removable from the top surface of the first release liner. In a connected position, a first portion of the backing layer of the patch is releaseably mounted to a top surface of the first release liner in spaced registration with a poration area of the substrate.

Abstract: The invention provides for an integrated device for forming a cavity in a surface of a tissue of an animal comprising: a) a controller board connected to an energy source for actuating at least one porator; b) a fluid reservoir in fluid communication with the tissue; and c) a tissue interface layer, the tissue interface layer containing the at least one porator, the porator in contact with the tissue for forming the cavity. The invention also provides for methods of making and methods of using the same.

Abstract: A method for delivering permeant substances transdermally into a membrane of an animal includes forming at least one delivery opening in the skin tissue, with the at least one delivery opening having a mean opening depth of between about 40 and about 90 microns.

Abstract: A method of enhancing the permeability of a biological membrane, including the skin or mucosa of an animal or the outer layer of a plant to a permeant is described utilizing microporation of selected depth and optionally one or more of sonic, electromagnetic, mechanical and thermal energy and a chemical enhancer. Microporation is accomplished to form a micropore of selected depth in the biological membrane and the porated site is contacted with the permeant. Additional permeation enhancement measures may be applied to the site to enhance both the flux rate of the permeant into the organism through the micropores as well as into targeted tissues within the organism.

Abstract: A method of enhancing the permeability of a biological membrane, including the skin or mucosa of an animal or the outer layer of a plant to a permeant is described utilizing microporation of selected depth and optionally one or more of sonic, electromagnetic, mechanical and thermal energy and a chemical enhancer. Microporation is accomplished to form a micropore of selected depth in the biological membrane and the porated site is contacted with the permeant. Additional permeation enhancement measures may be applied to the site to enhance both the flux rate of the permeant into the organism through the micropores as well as into targeted tissues within the organism.

Abstract: A method of enhancing the permeability of a biological membrane, including the skin or mucosa of an animal or the outer layer of a plant to a permeant is described utilizing microporation of selected depth and optionally one or more of sonic, electromagnetic, mechanical and thermal energy and a chemical enhancer. Microporation is accomplished to form a micropore of selected depth in the biological membrane and the porated site is contacted with the permeant. Additional permeation enhancement measures may be applied to the site to enhance both the flux rate of the permeant into the organism through the micropores as well as into targeted tissues within the organism.

Abstract: The invention provides for an integrated device for forming a cavity in a surface of a tissue of an animal comprising: a) a controller board connected to an energy source for actuating at least one porator; b) a fluid reservoir in fluid communication with the tissue; and c) a tissue interface layer, the tissue interface layer containing the at least one porator, the porator in contact with the tissue for forming the cavity. The invention also provides for methods of making and methods of using the same.

Abstract: The invention provides for a transdermal drug delivery device for forming a drug delivery patch system comprising: a) an actuator comprising: i) an outer body defining a top of the actuator, the outer body containing a cavity; ii) a controller board comprising driving electronics and a battery, the controller board being positioned within the cavity; and iii) an interface connection port for receiving a porator array, the interface connection port containing an anode and a cathode; b) the porator array comprising: i) a top surface, with a removable adhesive attached to the top surface, the top surface containing two concentric electrical contact rings for contacting the interface connection port at the anode and the cathode upon removal of the adhesive layer; ii) a bottom surface comprising a tissue interface membrane, the tissue interface membrane further comprising a substrate with at least one porator contained on or within the substrate, the bottom surface further comprising an adhesive layer for a