Abstract: A wall-mounted insulin caddy according to the present invention includes a caddy body having a flat rear surface, an outer front surface, a pair of rounded corners, a top caddy body surface and a bottom caddy body surface, one or more removable adhesive strips coupled to the flat rear surface for mounting the caddy body to a wall and label on the outer front surface for identifying contents of any vials stored within the caddy body. The caddy body has a plurality of cylindrical storage locations, each of the plurality of cylindrical storage locations comprises a cavity within the caddy body accessible from a top caddy body surface for storing a vial, and a drainage hole from within the cylindrical storage locations through a bottom caddy surface. The caddy body reduces external light passing into vials placed within one of the plurality of cylindrical storage locations and each of the plurality of cylindrical storage locations has a chamfered vial slot opening for easier vial installation.

Abstract: A wall-mounted insulin caddy according to the present invention includes a caddy body having a flat rear surface, an outer front surface, a pair of rounded corners, a top caddy body surface and a bottom caddy body surface, one or more removable adhesive strips coupled to the flat rear surface for mounting the caddy body to a wall and label on the outer front surface for identifying contents of any vials stored within the caddy body. The caddy body has a plurality of cylindrical storage locations, each of the plurality of cylindrical storage locations comprises a cavity within the caddy body accessible from a top caddy body surface for storing a vial, and a drainage hole from within the cylindrical storage locations through a bottom caddy surface. The caddy body reduces external light passing into vials placed within one of the plurality of cylindrical storage locations and .each of the plurality of cylindrical storage locations has a chamfered vial slot opening for easier vial installation.

Abstract: An article of manufacture for providing a diabetes overlay patch shield is disclosed. The diabetes overlay patch shield includes a vertical supporting wall structure having an outer surface, a top edge and a bottom edge, the vertical supporting wall structure surrounds a cavity configures to match a shape of an on-body device, a set of supporting fingers coupled to the bottom edge of the vertical supporting wall structure radiating outward from the outer surface, the set of supporting fingers having a bottom surface, and adhesive attached to the bottom surface of the set of supporting fingers to hold the diabetes overlay patch shield. An overlay patch sized to cover the entire the diabetes overlay patch shield is attached over the diabetes overlay patch shield once in place.

Abstract: A medical instrument uses solid tapered cones mounted to a preferably concave, spherically curved, piezoelectric ultrasound transducer which focuses and concentrates the ultrasound energy to a narrow tip so very high levels of ultrasound can be delivered to the tissue adjacent to the tip. Ultrasound matching layers or variable curvature geometries are employed at the tip aid in transferring the energy from the tip to the tissue. Alternative embodiments employing cooling technology are also described.

Abstract: A medical instrument uses solid tapered cones mounted to a preferably concave, spherically curved, piezoelectric ultrasound transducer which focuses and concentrates the ultrasound energy to a narrow tip so very high levels of ultrasound can be delivered to the tissue adjacent to the tip. Ultrasound matching layers or variable curvature geometries are employed at the tip aid in transferring the energy from the tip to the tissue. Alternative embodiments employing cooling technology are also described.