Abstract: Microarray applicator (10000), a method of using the same and a kit. The microarray applicator comprising a housing (2000), a microarray holder (8100) and a plunger (7000). The plunger comprising a first ridge (7310) and a second ridge (7320), both engagable to a notch (2320). Microarray applicator does not uses springs or pre-biased mechanisms to reduce costs.

Abstract: Microarray applicator (10000), a method of using the same and a kit. The microarray applicator comprising a housing (2000), a microarray holder (8100) and a plunger (7000). The plunger comprising a first ridge (7310) and a second ridge (7320), both engagable to a notch (2320). Microarray applicator does not uses springs or pre-biased mechanisms to reduce costs.

Abstract: Microarray applicator (10000) including a microarray carrier (8000), which is retained within a housing (2000) by virtue of microarray carrier (8100) being engaged withholder (2400). Microarray patch (8200) and flexible backing (8220) are positioned such that the central portion (8210) has microneedles (8211) protrude in the direction opposite from the bottom (7200) of plunger (7000). Plunger (7000) is in a first position, having first notch (7310) engaged with ridge (2320). After activation, wherein plunger (7000) is in a second position such that second notch (7320) is engaged with ridge (2320). Here, bottom (7200) of plunger (7000) extends below first major surface (2100) of housing (2000) and has ejected microarray patch (8200).

Abstract: A microneedle patch includes a base, at least one collapsible side wall extending from the base, and a lip disposed along the at least one collapsible sidewall and opposite the base. An adhesive is disposed along the base, and a microneedle array is affixed to the base.

Abstract: An applicator and method for applying a microneedle device to skin. The applicator can include a microneedle device and a housing configured to house the microneedle device. The housing can have a first surface configured to be positioned toward the skin. The applicator can include (i) an unactuated state in which the microneedle device is located within the housing and does not extend beyond the first surface of the housing, and (ii) an actuated state in which at least a portion of the microneedle device extends beyond the first surface of the housing. The applicator can further include a locking mechanism configured to lock the applicator in the actuated state. The method can include positioning the first surface of the housing of the applicator adjacent the skin; actuating the applicator to cause the applicator to change to the actuated state; and locking the applicator in the actuated state.

Abstract: A microneedle patch includes a base, at least one collapsible side wall extending from the base, and a lip disposed along the at least one collapsible sidewall and opposite the base. An adhesive is disposed along the base, and a microneedle array is affixed to the base.

Abstract: An applicator and method for applying a microneedle device to skin. The applicator can include a microneedle device and a housing configured to house the microneedle device. The housing can have a first surface configured to be positioned toward the skin. The applicator can include (i) an unactuated state in which the microneedle device is located within the housing and does not extend beyond the first surface of the housing, and (ii) an actuated state in which at least a portion of the microneedle device extends beyond the first surface of the housing. The applicator can further include a locking mechanism configured to lock the applicator in the actuated state. The method can include positioning the first surface of the housing of the applicator adjacent the skin; actuating the applicator to cause the applicator to change to the actuated state; and locking the applicator in the actuated state.

Abstract: A microneedle patch (30) includes a base (32), at least one collapsible side wall (34) extending from the base, and a lip (36) disposed along the at least one collapsible sidewall and opposite the base. An adhesive (38) is disposed along the base, and a microneedle array (40) is affixed to the base.

Abstract: A medical device (20) is provided that is suitable for use in the delivery of active component into or through the skin. The medical device comprises: an extension member (22) having a first major surface (24) and a second major surface (26), the first major surface comprising a first portion and a second portion; an array retaining member (28) extending from the first portion of the first major surface of the extension member, the array retaining member comprising an array surface (30) having at least one microneedle (32) extending from the array surface; and pressure sensitive adhesive (34) disposed on the second portion of the first major surface of the extension member to facilitate the adhesive attachment of the device to mammalian skin when the at least one microneedle is inserted through the stratum corneum.

Abstract: A patch application device wherein the patch is retained in position within the collar until delivery through contact of at least one obstruction inside the collar with a portion of an adhesive on the front surface (e.g., microneedle-containing surface) of the patch. The collar and patch can be used to form separate replaceable cartridges, and the combination can be provided as a kit.

Abstract: The present invention provides novel “patch in a bottle” technology in which a fluid composition, e.g., an aerosol spray, is applied onto a surface as a fluid, but then dries to form a covering element, such as a patch, having a tack free outer surface covering an underlying adhesive that helps adhere the patch to the substrate. The fluid compositions have a unique chemical formulation that allows such composite patches to form in situ. Specifically, the fluid compositions include a tacky component, such as an adhesive, and a film-forming, non-tacky component. The non-tacky and tacky components are selected to be immiscible with each other so that the components undergo phase separation as the fluid composition dries.

Abstract: The present invention provides novel “patch in a bottle” technology in which a fluid composition, e.g., an aerosol spray, is applied onto a surface as a fluid, but then dries to form a covering element, such as a patch, having a tack free outer surface covering an underlying adhesive that helps adhere the patch to the substrate. The fluid compositions have a unique chemical formulation that allows such composite patches to form in situ. Specifically, the fluid compositions include a tacky component, such as an adhesive, and a film-forming, non-tacky component. The non-tacky and tacky components are selected to be immiscible with each other so that the components undergo phase separation as the fluid composition dries.

Abstract: The present invention provides novel “patch in a bottle” technology in which a fluid composition, e.g., an aerosol spray, is applied onto a surface as a fluid, but then dries to form a covering element, such as a patch, having a tack free outer surface covering an underlying adhesive that helps adhere the patch to the substrate. The fluid compositions have a unique chemical formulation that allows such composite patches to form in situ. Specifically, the fluid compositions include a tacky component, such as an adhesive, and a film-forming, non-tacky component. The non-tacky and tacky components are selected to be immiscible with each other so that the components undergo phase separation as the fluid composition dries.

Abstract: The present invention provides novel “patch in a bottle” technology in which a fluid composition, e.g., an aerosol spray, is applied onto a surface as a fluid, but then dries to form a covering element, such as a patch, having a tack free outer surface covering an underlying adhesive that helps adhere the patch to the substrate. The fluid compositions have a unique chemical formulation that allows such composite patches to form in situ. Specifically, the fluid compositions include a tacky component, such as an adhesive, and a film-forming, non-tacky component. The non-tacky and tacky components are selected to be immiscible with each other so that the components undergo phase separation as the fluid composition dries.

Abstract: Actuator system is used to dispense a defined volume of a formulation from a pressurized vial. The system houses the vial in a receptacle of a base section that also includes a dispensing section (e.g., a funnel) through which the formulation is sprayed. The system includes a sleeve that fits over at least the vial and that can be pumped by the user to controllably spray the formulation from the vial onto the host animal. For instance, in a preferred mode of operation, the user places the system onto the host at the desired treatment site and then pushes or pulls down on the sleeve. This actuates a valve mechanism on the vial to spray an amount of the formulation through the dispensing section onto the host.