Abstract: A shieldable winged needle assembly includes a hub and a cannula projecting distally beyond the hub. A spring is telescoped over the cannula and engages with or into distal portions of the hub. A hub guide projects radially out from the hub. A first wing includes a center sleeve rotationally mounted on the hub and axially movable along the hub when a slot formed in the center sleeve aligns with the hub guide. A second wing has proximal and distal sleeves mounted at opposite ends of the center sleeve. The proximal and distal sleeves each are rotationally mounted relative to the hub and each include slots that enable sliding movement of the hub guide when the slots of the second wing align with the slot of the first wing. The spring propels the cannula and hub into a shielding position when the slots of the wings are rotated into alignment with one another.

Abstract: A device for delivering a substance into the skin of a patient includes a housing and a plurality of microneedles for penetrating the skin. The housing includes a bottom wall with a plurality of apertures for supplying the substance to the microneedles. The housing also includes a flexible top cover member enclosing a bladder containing the substance to be delivered. The bottom wall of the housing has at least one cannula facing the bladder. Pressing on the top cover member causes the cannula to puncture the bladder and deliver the substance to the microneedles for delivery to the patient. In one embodiment, the cannula is surrounded by a flexible member to prevent piercing of the bladder until sufficient pressure is applied to the cover member to depress the flexible member.

Abstract: A delivery device for delivering a substance intradermally into the skin of a patient including a housing for contacting the surface of the skin and a disposable cartridge to be received in the housing. The cartridge includes an internal reservoir containing a substance to be delivered to the patient, a plurality of micro skin penetrating members and a fluid channel extending between the micro skin penetrating members and the reservoir. The housing includes a bottom wall with a central opening and a cover member. The cartridge is positioned in the housing with the micro skin penetrating members extending through the central opening of the bottom wall and positioned on the surface of the skin of a patient. The cover is closed onto the cartridge to dispense the substance from the cartridge through the micro skin penetrating members and into or through the skin of the patient.

Abstract: An intradermal delivery device for delivery a substance into the skin of a patient has a fluid chamber for containing the substance, at least one micro skin penetrating member, and a valve controlling the flow of the substance from the fluid chamber to the micro skin penetrating member. An adhesive releasably attaches the device to the skin of the patient, the fluid chamber can be sized to hold a unit dose of the substance, and, in some embodiments, the fluid chamber can be releasably coupled to a housing of the device.

Abstract: A device for delivering a substance into the skin of a patient includes a body and a skin penetrating device having at least one skin penetrating member, such as a microneedle. The body includes an internal cavity and a device for indicating the delivery of a sufficient amount of the substance to the patient and for producing a dispensing pressure to dispense and deliver the substance from the cavity. The indicating device is visible from the exterior of the delivery device. In some embodiments, the indicating device is an elastic expandable diaphragm which, when the cavity is filled with a substance, creates the dispensing pressure.

Abstract: A safety assembly includes a holder with a proximal end, a distal end and a tubular sidewall extending between the ends. The proximal end is configured to engage a needle assembly. The distal end is configured to slidably receive a fluid collection tube. A shield is hingedly mounted to the distal end of the holder and can rotate from a first position where the shield lies adjacent the holder to a second position where the needle is shielded. A spring is disposed for biasing the shield to the second position. A latch is disposed on the holder for movement between a locking position where the latch holds the shield in the first position and a release position where the latch permits the shield to be propelled to the second position.

Abstract: A safety needle assembly has a needle hub and a needle cannula projecting from the hub. Wings project transversely from the hub to facilitate manipulation and positioning of the needle assembly. A shield is hingedly attached to the needle hub and can be rotated from a first position where the needle cannula is exposed to a second position where the needle cannula is shielded. At least one latch may be disposed on the shield for secure locked engagement with the hub, the wings and/or the tubing extending from the hub. A spring may also be provided for propelling the shield into the second position.

Abstract: The present invention is directed to a shieldable blood collection set as well as a needle assembly for use therein. The needle assembly includes a needle cannula having a puncture tip at a distal end thereof and a hub which supports the needle cannula. A hollow outer shield co-axially surrounds a distal end of the hub and has an inner surface which is in cooperating engagement with an outer surface of the hub. The hub includes a first tab extending outwardly at a position which is exposed from the outer shield, and the outer shield includes a second tab. The first tab and the second tab are configured such that opposing forces applied against the tabs cause the outer shield to move from a retracted position in which the puncture tip of the needle cannula is exposed, to an extended position in which the outer shield covers the puncture tip.

Abstract: The present invention is directed to a shieldable blood collection set as well as a needle assembly for use therein. The needle assembly includes a needle cannula having a puncture tip at a distal end thereof and a hub which supports the needle cannula. A hollow outer shield co-axially surrounds a distal end of the hub and has an inner surface which is in cooperating engagement with an outer surface of the hub. The hub includes a first tab extending outwardly at a position which is exposed from the outer shield, and the outer shield includes a second tab. The first tab and the second tab are configured such that opposing forces applied against the tabs cause the outer shield to move from a retracted position in which the puncture tip of the needle cannula is exposed, to an extended position in which the outer shield covers the puncture tip.

Abstract: A retractable safety needle apparatus is provided. The apparatus includes a needle holder with opposite proximal and distal ends. A needle assembly is mounted in the needle holder for movement from a first position where a distal cannula projects distally beyond the needle holder and a second position where the distal cannula is entirely within the needle holder. A spring is provided for propelling the needle assembly proximally and into the second position. The needle assembly includes a deflectable actuator for releasably holding the needle assembly in the first position and against the biasing forces of the spring. Portions of the needle holder adjacent the distal end are tapered to facilitate alignment of the needle assembly and to provide visual cues for proper orientation and gripping locations.

Abstract: A passively shieldable needle assembly set is provided for use with a tube holder. The assembly includes a needle cannula, a hub mounted to the needle cannula and a tip guard slidably movable along the needle cannula. The tip guard can be slid into a distal position where the tip of the needle cannula is safely shielded. A collapsible guard drive is mounted to the hub and includes a pair of collapsible leaves extending from the hub to the tip guard. The leaves have a length that enable the tip guard to move into shielding engagement around the tip of the needle cannula, while preventing complete removal of the tip guard from the needle cannula. The leaves are resiliently deformable and can be collapsed onto themselves and onto the hub. The leaves can be retained in their collapsed condition by a packaging cover and subsequently by the grip of a medical practitioner.

Abstract: A biological fluid collection device with a pivotable faucet is disclosed. The device is designed to collect, hold and transfer a biological specimen into a non-evacuated tube through an integrated pivotable faucet component. This device uses no needles, either blunt or sharp, and provides safety from needle puncture. The device works with a non-evacuated tube and a specially designed cap that attaches to the container via the pivotable faucet. The device includes a container for collecting, holding and transferring the biological fluid. The design of the container facilitates use of the tube as a handle in order to position the container to receive collection of the biological fluids. The method of collection begins with using the non-evacuated tube as a handle to hold the container and collecting the biological specimen in the container. A lid is attached to the top of the container to prevent contamination and exposure to the specimen during transfer into the non-evacuated tube.

Abstract: A needle assembly includes a needle and a hub mounted to each other. The hub includes a sidewall spaced outwardly from the needle cannula and extending to a distal position between the opposed ends of the needle cannula. A housing integral with the hub defines a sidewall to partially confine a safety shield. The safety shield is slidably disposed about the needle cannula and releasably retained in a proximal position and can be moved to a distal position where the safety shield completely surrounds that portion of the needle hub projecting distally from the hub. The needle assembly includes a spring for propelling the safety shield to the distal position and a latch for releasing the safety shield from the proximal position. The latch may be passively activated by normal usage of the medical implement to which the needle assembly is mounted or alternately activated manually.

Abstract: A container assembly and method for storing, treating, transporting and stabilizing a biological sample includes a container, a closure member and a sample holder removably received in the container. The sample holder can be a platform-like device dimensioned to be supported on a ledge formed in the side wall of the container. The sample holder includes a central cavity for receiving the sample and immersing the sample in the stabilizing agent in the container. The closure member includes a body member to close the top end of the central cavity of the sample holder and to limit movement of the sample holder in the container. In another embodiment, the sample holder has a closure cap for closing the open top end of the cavity. The container includes a liquid reagent in an amount sufficient to treat the biological sample.

Abstract: A container assembly for storing and stabilizing a biological sample includes a container, a closure cap and a sample holder coupled to the closure cap and removably received in the container. The sample holder can be a basket-like device coupled to an inner face of the cap and includes a central cavity for receiving the sample and immersing the sample in the reagent in the container. The closure cap includes a body member with a dimension to displace a volume of air and reduce the head space to ensure that the sample holder is completely immersed in the reagent. The sample holder has a closure member for closing the open top end of the cavity.

Abstract: A fluid collection or infusion set is provided. The set includes flexible tubing with a fitting attached to a proximal end and a needle assembly attached to the distal end. The needle assembly includes a needle hub and a needle cannula secured in the hub. An actuator arm extends proximally and outwardly from the needle hub and has an actuator button at its free end. The needle assembly is disposed in a barrel and can move from a distal position where the needle cannula is exposed to a proximal position where the needle cannula is shielded. A spring is disposed in the barrel for propelling the needle assembly to the proximal position. The barrel includes an actuating aperture that receives the actuator button for locking the spring in a compressed condition. Depression of the actuator button enables the spring to propel the needle assembly into its proximal shielded position.

Abstract: The present invention is directed to a shieldable blood collection set. The shieldable blood collection set includes a fixture for connecting the blood collection set to a receptacle, an intravenous needle assembly including a needle cannula having a puncture tip, and a flexible tube extending between the fixture and the intravenous needle assembly. A shield assembly is in engagement with the needle assembly. The shield assembly is adapted for movement from a first position to a second position for protectively shielding the puncture tip of the needle cannula. The flexible tube includes a plurality of helical turns establishing a coiled structure. Such a coiled structure provides the blood collection set with an enlarged surface area for grasping by the palm of a user, thereby facilitating one-handed activation of the safety shield assembly.