Stem cell engineering is a rapidly emerging interdisciplinary field that integrates principles of stem cell biology with the physical sciences and engineering to advance regenerative cell therapies and in vitro diagnostic platforms to commercially viable and scalable technologies that will significantly impact the biomedical sciences and society at large. While stem cell research is on the verge of broadly impacting many elements of the medical field regenerative medicine, drug discovery and development, cell-based diagnostics and cancer the bioprocess engineering that will be required to manufacture sufficient quantities of functional stem cells for these diagnostic and therapeutic applications is at an early stage of development. The current state of the field of stem cell research offers a unique opportunity for scientists and engineers, working together, to contribute significantly to the generation of robust, reproducible and scalable methods for phenotypic characterization, propagation, differentiation and bioprocessing of stem cells.

Many of the unique challenges posed by stem cell research could be addressed by applying innovative technological advances occurring in adjacent disciplines for similar purposes, but different applications. Presentations during the workshop will include talks on fundamental basics of stem cell biology, scaleable culture techniques, bioanalytical characterization, manufacturing practices and enabling technologies. This program provides a unique opportunity for trainees and researchers to learn about common and quantitative methods for stem cell isolation, characterization, propagation and differentiation in a scalable manner to efficiently produce sufficient numbers of stem cells and derivatives in accessible formats in order to yield a spectrum of novel therapeutic and diagnostic applications of stem cells.

Intellectual Merit: The intellectual merit of the proposed workshop is the stimulation of creative, original, and potentially transformative new ideas and concepts and the identification of future directions in regenerative medicine manufacturing, thus generating a broader impact to the fields of stem cell biology, engineering, manufacturing and medicine.

Broader Impacts: The discussions at this workshop will advance our understanding of the underlying scientific and technological issues and challenges in further developing regenerative medicine biomanufacturing, and facilitate interdisciplinary interactions that may lead to new global collaborations and initiatives. By having female and minority participants attend the workshop, it will broaden the participation of underrepresented groups. This workshop will also stimulate translational research and innovation, facilitate the integration of education and research, and inspire and help train the young future leaders of stem cell engineering and manufacturing. Workshop Website - http://berg.ist.utl.pt/regenerative-medicine/

Project Report

The next healthcare revolution will apply human cells and tissues for regenerative medicine therapies. The primary aim of regenerative medicine approaches is to create biological therapies or substitutes in vitro for the replacement or restoration of tissue function in vivo lost due to injury or disease. However, while science has revealed the tremendous potential, and early products have demonstrated the power of such therapies, there is an immediate and long term need for a properly trained workforce with the necessary skills to address the engineering and biology challenges of biomanufacturing before the predicted benefits of regenerative medicine to human healthcare can be realized. The last 15-20 years has witnessed the growth of a massive, global healthcare industry based on human proteins produced by engineered organisms. There is now a similar opportunity to replicate this phenomenon in the burgeoning industry of regenerative medicine. For regenerative medicine to become a reality in the healthcare system, and to realize the potential of new biological therapies, the field requires a growing capacity of engineers and scientists with the multidisciplinary skills to generate new products using consistent manufacturing processes, as well as comprehend appropriate business and cost structures that meet stringent clinical and regulatory requirements. This inaugural international advanced course brought together experts from around the world and various fields to equip trainees with the necessary skills so that the area of regenerative medicine can grow as an industry and realize its potential to contribute to the global economy. This 5-day workshop was held in Algarve, Portugal and organized into multiple topical sessions, with each session consisting of 2-3 lectures, short presentations and a panel discussion. The lectures not only showcased the cutting edge research in stem cell biology and engineering, but also identified critical issues and future directions necessary to move the field forward. This funds for this workshop provided a unique opportunity for trainees and researchers to come together to learn about common quantitative methods for stem cell isolation, characterization, propagation and differentiation in a scalable manner to efficiently produce sufficient numbers of stem cells and derivatives in accessible formats in order to yield a spectrum of novel therapeutic and diagnostic applications of stem cells.

Project Start
Project End
Budget Start
2013-06-01
Budget End
2013-11-30
Support Year
Fiscal Year
2013
Total Cost
$22,000
Indirect Cost
Name
Georgia Tech Research Corporation
Department
Type
DUNS #
City
Atlanta
State
GA
Country
United States
Zip Code
30332