Eli Lilly and Company

Battelle Memorial Institute

Timothy Mark Blum

Amy M Heintz

Jeffrey L Ellis

Corrie Bennison

Christopher Paul McKenzie

Christopher H Muenzer

Steven Risser

Roy Howard Byerly

Steven Michael Madland

Brian J Kaseman

Eric C Scribben

John D Clay

Jared Alden Judson

Rossano Claudio Massari

Giorgio Maria Sardo

Paolo Degan

Andrea Concu

Marco Cortinovis

Benjamin David Bauer

Christopher P Mckenzie

William Godwin Atterbury

John P Tallarico

David Arthur Holley

Andrew Sweeney

Amin Sedighiamiri

Kimberly Ann Ringenberger

Michael Scott Ulrich

Marco Vergani

Steven M Madland

Steven M Risser

Krenar Shquau

Andrew Vankirk Sweeney

Dose detection systems for medication delivery devices are described. One is a module for removable attachment to a dose button of a medication delivery device. A device with a dose detection system is also disclosed. The module includes a processor and at least one measurement sensor operably coupled to the processor and configured to detect the positon of a sensed component within the delivery device. Medication identification system may also be provided with an identification sensor and a light guide member.

Dose detection system module for a medication delivery device

A medication delivery device including a device body and a dose setting component coupled to the device body. Component is rotatable relative to the device body in relation to an amount of a set or delivered dose. An annular sensed element, such as a metal or magnetic ring, is positioned on a proximal surface of the dose setting component. A carrier secures the sensed element to the dose setting component. The carrier includes a proximal overlapping support that is contactable against the sensed element opposite the proximal surface of the dose setting component. The carrier is configured to axially and rotationally fix the sensed element to the dose setting component. The device may include a dose detection system operable with the sensed element.

Medication delivery device with a sensed element

An autoinjector and method of injection are described. A power spring causes rotation of a drive nut about the central axis of the autoinjector that, in turn, causes a middle screw to rotate in the same direction as the drive nut and also to move in the distal direction while pushing a center screw in the distal direction that pushes the syringe and needle. The center screw also pushes a plunger that pushes the fluid out of the syringe. After injection, a locked retract screw is freed and rotates in the same direction as the middle screw causing the syringe to retract the syringe into the housing.

Autoinjector and method of injecting fluids

Core annular flow is used to enable the subcutaneous delivery of a viscous fluid such as a protein therapeutic formulation. The high-viscosity fluid is surrounded by a low-viscosity fluid, and the low-viscosity fluid lubricates the passage of the high-viscosity fluid. This allows the use of protein formulations that have a higher concentration and a higher viscosity at comparatively reduced injection forces and reduced injection times. Several different embodiments of injection devices that provide core annular flow are described herein.

Processes for delivery of viscous drug therapies

Dose detection systems for medication delivery devices are described. One is a module for removable attachment to a dose button of a medication delivery device. A device with a dose detection system is also disclosed. The module includes a processor and a plurality of magnetic sensors, such as, for example, five or six sensors, operably coupled to the processor and configured to detect the positon of a rotating bipolar magnetic ring within the delivery device. Medication identification system may also be provided.

Dose detection system module for medication delivery device

Injection devices with ergonomic enhancements are disclosed. Generally, the injection devices include large oversized grips, including flanges at the base end of the device for enhanced stability. Push-type and squeeze-type devices are described, as well as manual injectors and auto-injectors. Such injection devices are useful for delivering a fluid (e.g. medication) to a patient.

Injection devices with ergonomic enhancements

Processes and devices for delivering a fluid by chemical reaction are disclosed. A chemical reaction is initiated in a reaction chamber to produce a gas, and the gas acts upon a piston to deliver the fluid. An exemplary device may include an upper chamber, a lower chamber, a fluid chamber, a piston between the lower chamber and the fluid chamber, and a one-way valve between the upper chamber and the lower chamber.

Process and device for delivery of fluid by chemical reaction

Processes and devices for delivering a fluid by chemical reaction are disclosed. A chemical reaction is initiated in a reaction chamber to produce a gas, and the gas acts upon a piston to deliver the fluid. Preferred devices typically include an upper chamber, a lower chamber, a fluid chamber, a piston between the lower chamber and the fluid chamber, and a barrier between the upper chamber and the lower chamber. When the barrier is broken, reagents in the upper chamber and the lower chamber are mixed together to generate the gas.

Chemical engines and processes for their use and construction are described. The chemical engines can provide powerful and compact devices, especially autoinjectors for the rapid, powered injection of viscous medicines. Novel formulations and designs of chemical engines and delivery technologies employing the chemical engines are described.

Chemical engines and methods for their use, especially in the injection of highly viscous fluids

Growing community of inventors

Columbus, OH, United States of America

Timothy Mark Blum