INJEX Needle-Free Drug Delivery Systems

Transcription

INJEX Needle-Free Drug Delivery Systems
INJEX Needle-Free Drug
Delivery Systems
TM
A Technology Presentation
by
INJEX – Equidyne Systems
Especially for
Company History
Injex™-Equidyne Systems, Inc.
1991  Founded and Incorporated in 1991
The founder was Stewart Parsons, an accomplished
mechanical engineer with more than 50 issued U.S.
Patents to his credit and Co-Inventor of the first GPS
guidance systems.
1992-1998  Conducted R & D, Testing, Prototyping,
and Clinical Studies at major hospitals.
Injex products received FDA 510(k) as well as
CE Mark Certification for sale of Injex™ in the
European Union.
Company History con’t
1999
 Injex™ released for sale in the U.S. and
European markets.
2004  Established Worldwide Distribution
in more than 40 countries for Injex sales and
distribution.
The Company forms important Strategic Alliances
with a few large pharmaceutical companies for use of
their drugs in conjunction with Injex needle-free
technology.
Company History con’t
2005  Company completes purchase of
assets of Rosch Medzintechnik, AG,
Berlin, Germany, making Injex-Equidyne
Systems, Inc., the world leader in needlefree technology.
The Company is the only company in the
needle-free industry that is currently
profitable, and is debt free
History of Needle-Free Jet Injection
1853  First hypodermic needle syringe, Charles G.
Pravaz, France and Alexander Wood, USA
1866  Needle-free technique as “Aqua puncture,” by
Dr. Beclard, France.
1936  First patent for “Jet Injection , to Marshall
Lockhard, USA
History of Needle-Free Jet Injection
1940  Development of reusable high-pressure “guns”
for large scale vaccination programs
(Hingson et al.)
1947-1965  Introduction of Jet Injection to clinical
practice
1975-1995  Evolution of needle-free devices
1999  Introduction of INJEX™
Needle-Free Technology
The Evolution
1960’s – Military utilized air powered gun that
administered 6 vaccinations to troops
at one time
1980’s – R & D CO2 powered injection devices
1990’s – More refinements newer Spring Powered
devices emerge. Other improvements
developed include orifice size, pressure
controls, velocity of liquid stream, power
curve, etc. Many clinical studies were
conducted.
Needle-Free Technology con’t.
The Evolution
2003 – Injex 30 and Injex 50 emerge as cutting
edge technology and becomes widely
accepted in some markets.
2004 – Injex – Soft Shot TM technology is
introduced.
Hypodermic Needle Syringes
History and Concerns
* 75 Year old technology
• Spreading of contagious diseases
• Contaminated used needles
• Improper disposal of dirty needles
• Sharing of needle syringes
• Pain experienced with needle injection
• Needle phobia – Fear of shots
• Children
NAPPSI
National Alliance for the Primary Prevention of Sharps Injuries
The NAPPSI Primary and Secondary
Prevention
Needle Stick Safety Device List
Injex recommended on NAPPSI list of devices
to utilize as a primary prevention device to
reduce exposure to potentially fatal injuries
from needles.
Injex – Benefits and Advantages
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Virtually painless and needle-free
Subcutaneous injection, tissue preserving
Convenient for delivering variable doses
Fast, easy and safe in use and effect
No risk of needle-stick injuries
Eliminates cross-contamination
Reduces disposal costs
User friendly, compact and can be used
everywhere
Easy to operate and long-lasting
Injex -First Generation Needle-Free
Injector 1992
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Designed to deliver liquid medicines through the skin
by means of a thin high velocity stream of fluid without
the use of a needle.
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Spring activated
Re-usable for approx. 3,500 injections
orifice
plunger
ampoule with liquid
spring (charged)
INJEX 50
Starter
Kit
Ampule and Vial Adapter
Vial
Adapter
Sterile
disposable
adapter –
Attaches to
medication
vial
Ampule
How Injex Penetrates the Skin
Needle Syringe
Pool of
Medication
Left by needle
Needle-Free Injection
Medication is
Dispensed
Uniformly in
Spray Like
Pattern
Injex Clinical Results
Thrombosis prophylaxis:
LMW-Heparin
Diabetes:
Insulin
VERSUS
Local Anaesthesia:
Lidocain
Cancer (home-care):
Cytokines: Interferon alpha
Injex Insulin Kinetics
Comparison of Blood Glucose and Insulin Kinetics following Injexand Pen Injection (Schatz,H., Pfohl,M. et al., Ruhr-Univ. Bochum)
36th Annual Conference of the German Diabetes Society (DDG), Aachen, 26.05.2001
Injex Blood Glucose Kinetics
Comparison of Blood Glucose and Insulin Kinetics following Injexand Pen Injection (Schatz,H., Pfohl,M. et al., Ruhr-Univ. Bochum)
36th Annual Conference of the German Diabetes Society (DDG), Aachen, 26.05.2001
Injex Histology
Investigation of depth of penetration and histologic
dispersion of a dye injected with the INJEX-System
(MeMiniportmbH/Rösch AG)
Results:
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Depth of penetration : 3.2 – 9.1mm
ƒ Pattern of spread of dye: conical, 5 – 18mm diameter
ƒ Compartment : subcutis
Additional Findings:
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Depth of penetration depends on the volume administered
ƒ Intact epidermis without damage of underlying tissue
ƒ Dye did not penetrate beyond the fascia into the skeletal muscle
Injex Histology
Investigation of depth of penetration and histologic
dispersion of a dye injected with the INJEX-System
(Mediport GmbH/Rösch AG)
Epidermis
Dermis
Magnification: x 40
Injected volume: 100 µl
Model-like spread of dye,
ending in the s.c.
connective tissue.
Completely intact
epidermis
Injex Histology
Epidermis
Dermis
Epidermis
Subcutis
Muscle
© MediD
esign
The injected fluid (0.2ml)
followed the fascia but did not
enter the underlying muscle
itself.
Injex Molecular Integrity
Investigation of structural features/efficacy of
various compounds after application with Injex
Results:
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No loss of drug efficacy
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Complete retention of molecular identity
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Complete retention of immunoreactivity
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Complete retention of tertiary structure
Clinical Studies
Vaccines – MMR Vaccine
Clinical Immunogenicity of measles, mumps and
rubella vaccine delivered by the INJEX needle
free jet injection device: Comparison with
standard needle syringe
The MMR vaccine can be safely and effectively
delivered by the Injex jet injector and is a safer
alternative that might reduce needle stick
accidents.
Sarno, Mark J., BA, Blasé, Erich, BA, Galindo, Nelly, RN, Ramirez,
Roberto, MD, Schirmer, Carl L., MS and Trujillo-Juarez, Daniel F.,
MD and Vision Biotech. Consulting, 2000. Pediatric Infectious
Disease Journal, Vol. 19 No. 9, September 2000.
* MMR – Trademark – Merck & Co.
Clinical Studies con’t.
Anesthesia Drugs – Subcutaneous
Injury and Wound repair – Local Anesthetic
A study using the INJEX with local anesthesia. The
device offers advantages over the subcutaneous
infiltration of various caine anesthetics via syringe
an 30 gauge needle weather used with or without
Fluori/methane when used in an outpatient clinical
setting.
Yale, William S., and Industrial Medical Clinics, Inc.,
1999.
Clinical Studies con’t.
Insulin – Blood Sugar, Kinetics, and
Structural Potency
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Comparison with conventional pen; needle-free
Injex controls blood sugar the same, lower pain
level, and causes less skin irritation.
Ehren, M., Lieder, O., Engelbert, S., Schatz, H., Pfohl,
M., Medical University Clinic Bergmannsheil, Bochum,
Germany, 2001.
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Results demonstrate no loss in insulin potency
after injection by either the Injex 30 or the syringe.
Sarno, Mark J., Vision Biotechnology Consulting,
2000, Equidyne Systems, Inc.
Clinical Studies con’t.
Insulin – Fast Acting Types
- Pharmacokinetics of Fast Acting Insulin when
injected with the Injex needle-free injector
versus a syringe and needle.
Clinical Studies con’t.
Cancer Therapy – Interferon
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Patient compliance with prescribed drug
regimens significantly improved, reducing
overall healthcare costs by allowing
treatment to be administered on an outpatient basis.
Acanthos, at Fraunhofer Institute, Hanover,
Germany, 2000.
Patient Acceptance
Preparation
Insulin Dosing
Skin Irritation
Injection Pain
Safety
Com parison w ith Pen
Future Use
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1,5
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2,5
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3,5
4
4,5
5
Results of patient evaluations, of the Injex™
(based on the German school grading system, which
starts at 1 (excellent) and ends at 6 (unsatisfactory).
Injex Proprietary Technology
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Needle-Free technology is heavily Patented
5 issued U.S. Patents
Several Patents Pending
Foreign Patents – China, Japan, S. Africa, etc.
Trademarks Issued – INJEX , The Soft Shot
Patents Protected and Methods:
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Ampule Design
Adapters – 3 Types
Manufacturing
Automated Production
Process
PCT Patents Worldwide
Regulatory Compliance
• FDA (510 K) Clearance of INJEX™ systems
• ISO-9001 and ISO-9002 Certifications
for manufacturing facility at Anaheim, CA
and Germany Manufacturing facilities
• European CE Mark Certification (CE 0482) for
pharmaceuticals suitable for subcutaneous
jet-injection
Injex Technology
Spring powered medical device – Drug Delivery
Disposable sterile medication cartridge (Ampule)
Orifice .005
inches diameter
Disposable
How Injex Works
Concept of Operation
• Ampule is filled with drug
• Ampule is attached to Injector
• Coil spring is compressed inside Injector
• Trigger is pressed, spring is released and
pushes piston forward against plunger
shaft
• Fluid is rapidly expelled out ampule
through very small orifice at tip (600 feet
per second velocity)
Prefilled Ampule
Inert Cap
• Glass lined
• Filled at Pharma filling plant
• We assist with filling
equipment
• Unit Dose
Inert Seal
Injex Product Configuration Options
A. Reusable Injector with:
- Variable dose (from Vial)
- Unit dose (0.5 ml) or (1.0 ml)
B. Reusable Injector with Pre-Filled dose
C. All Disposable Injector with:
- Variable dose ampule
- Pre-filled ampule – Unit dose
Applications
Injex Needle-Free Injection
Self-Administered drugs
Vaccinations
Drug Therapy
Special Drug Applications
Public Health - Worldwide
Mass Public Immunization
Immunization Programs
Public Health
World Health Organization- WHO
Center for Disease Control- CDC
International Sponsorship
Self Administered Drugs List
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Insulin – 50 years
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Stroke Medications
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Growth Hormone (HGH)
– Children and Older
People
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Cardiovascular Drugs
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Cancer - Interferon
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Rheumatoid Arthritis –
Embrel, Humira
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Migraine headaches
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Military Use – Chemical
and Biological Gas, etc.
Why Injex needle free injection?
A better way to inject drugs
• Virtually painless injection
• Eliminates
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Sharing of needles by patients
Risks associated with needles
Contaminated needle exposure
Hazardous waste disposal
• Better medication absorption
• Bioavailability equivalence
Technological Advantages
Factors To Be Considered
ƒ Spring powered vs. CO2 gas cartridges
ƒ Additional cost of CO2 cartridges – CO2
ƒ Size of device and ergonomics – Patient preference
ƒ Cost of disposable Ampule – 1.0 ml
ƒ Ease of use
ƒ Variable gas pressure as CO2 runs low
ƒ Over-powered CO2 start and underpowered at end
World Headquarters and Facilities
Injex – Equidyne Systems, Inc.
Anaheim, CA USA
Injex Production Facilities
Two Production Facilities
—Anaheim, California, USA
—Gottingen, Germany
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ISO-9001 Certification – Both facilities
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CE Mark Certification – Germany produced products
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FDA 510(k) – All products (Both Facilities)
Automated Production Line
Gottingen, Germany
ISO-9001 and CE Mark Certified
Tooling & Injection Molding Equipment
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8 each – 16 Cavity high performance injection
ampule molds in U.S. Facility
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9 each – 16 Cavity high performance injection
ampule molds – Germany Facility
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2 each – Automated assembly and packaging
systems. Cost $2.4 Million each.
Manufacturing Capacity / Output
ƒ Ampules – Germany production
8 million pieces per month
ƒ Ampules – U.S. production
7.5 million pieces per month
ƒ INJEX 50 Injectors – 1 million per month
Approximate capacity
Technology Comparison List
Factors to Consider
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FACTOR
INJEX 1.0 ml. OTHER
Injector cost – Estimate
$70.00
Over $200
Disposable cost
$ .35
Much more
CO2 cartridges cost
None
Extra
Size and weight
2.8 oz.
1.5 lb.
User friendliness & ease of use Easy
Complex
Ergonomics & convenience
Excellent
Portability
Excellent
Bulky
Complexity to operate
Easy
Compact size
Small
Large
Technology Comparison List con’t.
Factors to Consider
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FACTOR
INJEX 1.0 ML. OTHER
Delivers 1.0 ml dose properly
Yes
Marginal
Multi orifice 1.0 ml. ampoule
Yes
No
Prevents bolus injection
Yes
No
Force exerted during injection
Minimal Excessive
Potential bruising or bleeding
Minimal Excessive
Pain during injection
None to Min Medium
Supplier’s financial strength
Profitable
Losses
Drug efficacy and bioavailability Excellent Excellent
Preserve of molecular integrity Excellent Excellent
Injector Size Comparison
Injex 50 – 2.7 Oz. 3.8” long
Gas CO2 Type
Injector – 1.5 lbs.
8.25” long
CO2 Cartridge – 10 Shots
Comparison of Propellant Advantages
Injex
Super Spring
ƒ Highly consistent delivery
ƒ Life of Super Spring10,000 injections
ƒ No added costs or
complexity
ƒ No CO2 cartridges
ƒ No inconveniences for
patient
Other Technology
Gas CO2 Force
ƒ Variable injection force
ƒ First few shotsExcessive force
ƒ Last few shotsInsufficient force
ƒ Life of CO2 cartridge10 injections
ƒ Added cost for CO2
cartridges
ƒ Requires skill to change
cartridges
Frost & Sullivan Award - 2004
Award Recipient
Injex-Equidyne Systems
2004 U.S. Emerging Injectable Drug
Delivery Product Quality
Leadership of the Year Award
Thank you