A rapid chemical delivery system is presented. The system includes a portable handheld chemical storage receiving receptacle, wherein the receptacle is configured to receive and mate with an insertable chemical container and wherein the container houses a chemical. The system also includes a base affixed to the chemical storage receptacle, wherein a side of the base is configured to connect with an object and another opposing side is configured to attach to the chemical storage receptacle. The system further includes a rapid chemical deployment mechanism utilizing the portable handheld chemical storage receptacle and arranged to deploy the chemical from the chemical container when activated.

A drug delivery device includes a housing, a needle having a retracted position and an extended position, a needle actuator body received within the housing and configured to move from a pre-use position where the needle is in the retracted position to a use position where the needle is in the extended position, a container received within the housing, with the container having a first position and a second position spaced axially from the first position, and an actuator button moveable relative to the housing from a first position to a second position to actuate the needle actuator body from the pre-use position to the use position. The actuator button includes a container holder configured to restrict movement of the container from the first position to the second position when the needle actuator body is in the pre-use position.

A rapid chemical delivery system is presented. The system includes a portable handheld chemical storage receiving receptacle, wherein the receptacle is configured to receive and mate with an insertable chemical container and wherein the container houses a chemical. The system also includes a base affixed to the chemical storage receptacle, wherein a side of the base is configured to connect with an object and another opposing side is configured to attach to the chemical storage receptacle. The system further includes a rapid chemical deployment mechanism utilizing the portable handheld chemical storage receptacle and arranged to deploy the chemical from the chemical container when activated.

An electronic automatic injection device including a housing configured to receive an injection module containing a material to be injected, an electric motor having a rotary drive output, at least one forward driving spring and a multifunctional electric motor driven drive assembly responsive to the rotary drive output of the electric motor and being operative in a first mode of operation, when the injection module includes a prefilled syringe, to enable the at least one forward driving spring to displace the prefilled syringe in a forward direction and in a second mode of operation, when the injection module includes a needleless cartridge, to eject the injectable liquid from the prefilled syringe through a needle.

The invention relates to an injection device with a luer fitting. The injection device has a compressible syringe body defining a reservoir. A male luer fitting has a channel therethrough for conducting contents of the reservoir, and a luer tip at an end of said male luer fitting opposing said base end. A first connecting structure is arranged on said male luer fitting between said base end and said luer tip. A shield cap is arranged on the male luer fitting. The shield cap has a second connecting structure interacting with said first connecting structure to prevent inadvertent movement of said shield cap relative to said male luer fitting when said shield cap is arranged at said first position. A first seal is provided for sealing said channel at said luer tip and a second seal is provided for sealing the outer surface and the luer tip.

An electronic automatic injection device including a housing configured to receive an injection module containing a material to be injected, an electric motor having a rotary drive output, at least one forward driving spring and a multifunctional electric motor driven drive assembly responsive to the rotary drive output of the electric motor and being operative in a first mode of operation, when the injection module includes a prefilled syringe, to enable the at least one forward driving spring to displace the prefilled syringe in a forward direction and in a second mode of operation, when the injection module includes a needleless cartridge, to eject the injectable liquid from the prefilled syringe through a needle.

A delivery device for delivering liquid from a flexible container is presented having a housing having a first wall provided with a housing first linear gear having housing first linear gear teeth, the housing being configured to receive the flexible container, a first roller having a first compound gear having a first gearwheel provided with first gearwheel teeth and a second gearwheel provided with second gearwheel teeth, and an actuator comprising an actuator first linear gear provided with actuator first linear gear teeth, wherein the first gearwheel teeth are configured to mesh with the housing first linear gear teeth and the second gearwheel teeth are configured to mesh with the actuator first linear gear teeth, wherein the actuator is configured to be moved linearly from a first position to a second position along a longitudinal axis defined by the longitudinal extension of the housing first linear gear.

Disclosed is a plunger piston for use in a syringe and especially in a micro-dosing syringe pump application. The plunger piston comprises a front face opposite a rear face and at least one annular groove positioned between the front face and the rear face. The plunger piston includes a plurality of channels extending from the front face into the groove, the channels providing communication between the front face and the groove. An O-ring is received in the groove and the channels serve to equalize pressures around a first side of the O-ring to improve sealing performance and micro-dosing accuracy of a syringe or a micro-dosing syringe pump utilizing the plunger piston.

An autoinjector includes a case configured to receive a syringe, a slidable member that is movable axially within the case to cause at least a portion of the syringe to move axially when the syringe is disposed within the case for dispensing a medicament through a needle of the syringe, a locking member configured to prevent actuation of the slidable member when the autoinjector is in a pre-dispense configuration, a sleeve coupled to a distal end of the case and surrounding at least a portion of a needle of the syringe when the syringe is disposed within the case, an elongate member extending proximally from the sleeve and configured to deflect the locking member to allow actuation of the plunger, and two drive springs coupled to the slidable member and configured to apply a biasing force that acts on the slidable member to move the slidable member distally.

Described is an autoinjector comprising a case, a door hingedly coupled to the case and having an open position and a closed position, a plunger slidably disposed in the case, and at least one drive spring applying a biasing force on the plunger relative to the case, wherein the door is operably coupled to the plunger, and wherein rotation of the door from the closed position to the open position moves the plunger from a distal position in the case to a proximal position in the case and compresses the at least one drive spring.