Precipitant Induced Porosity Augmentation (PIPA) scaffold: A polymeric scaffold with biocompatibles drug reservoir coating of controllable thickness and stiffness

Description:

Modify the surface of the Desclaymr scaffold to improve drug delivery ? modify all polymeric scaffolds

 

Technical Field

 

Regenerative Medicine, Biotech

 

Business opportunity

 

Research collaboration to validate the technology

 

Current state of technology

 

The lab has this technology within 4 separate studies: One polycaprolactone (PCL) version of the technology demonstrates vastly improved retention of nanoparticles i.e. a controlled release kinetic and improved drug loading.

 

 In a 3 week stem cell experiment, the technology improved the rate of osteogenic differentiation which peaked one week earlier than on conventional and enabled comparable proliferation. The technology approximately tripled the amount of mineralized matrix after 3 weeks.

 

Commercial Value

 

The advent and the introduction of Nanobiotechnology in the healthcare sector has had a vast impact in the field of drug discovery, diagnostics and drug delivery. Such technology highlight opportunities that exist at the intersection of nanotechnology and traditional pharmaceutical R&D, though much uncertainty remains on how this will affect the industry. Frost & Sullivan believes the global market for nanobiotechnology is currently estimated at $21.1 billion and is expected to reach $36.2 billion by 2017.

 

The value of this technology is to increase the surface morphology of a polymer scaffold drug delivery device and therefore offer an improved drug loading.

 

The Technology

 

The invention is a process technology that complements polymer scaffold technology in the regenerative medicine field.

 

A key aspect of scaffolds is the surface morphology, or the surface area. A key goal in tissue engineering is an environment where cells can proliferate that helps tissue development. The invention is a highly configurable process which develops an open-cell, microporous membrane around a scaffold. This acts to dramatically alter the surface morphology. This process could be applied to the Desclaymr scaffold or any polymeric implantable scaffold.

 

Intellectual Property Rights

 

Aarhus University has filed a patent application with priority date December 2011

 

Patent Information:
For Information, Contact:
Eoin Galligan
Business Development Manager
Aarhus University
+45 60202690
ega@au.dk
Inventors:
Dang Quang Svend Le
Morten Østergaard Andersen
Muwan Chen
Cody E Bünger
Jørgen Kjems
Flemming Besenbacher
Menglin Chen
Anette Overgaard Baatrup
Helle Lysdahl
Keywords:
MedTech
White Biotech
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