LRIG New England Chapter





 Automated Cell Culture

Sponsored by:

 The Automation Partnership 

  • March 10th, 2009                            
    Novartis Institutes for Biomedical Research
    250 Massachusetts Avenue
    Cambridge, MA 02139

AGENDA:

6:15pm Seth Rogers, BioProcessors Corporation
High Throughput Experimentation as an Enabling Technology for Bioprocess Development
<download presentation>
6:50pm Chris Hogan, Novartis Institutes for Biomedical Research
Novartis - Of cells and Automation: A Perspective on Harnessing Cell Dynamics in the Automated HTS Environment
<download presentation>
7:25pm Brad A. Justice, Global Cell Solutions Inc.
Fully Automated 3D Cell Culture: Leveraging Relevant and Consistent Drug Discovery 
<download presentation>



Abstracts & Bios:

Novartis - Of cells and Automation: A Perspective on Harnessing Cell Dynamics in the Automated HTS Environment

Chris Hogan, Novartis Institutes for Biomedical Research

Biography

Chris Hogan is a Senior Technical Leader with the Novartis Institutes for Biomedical Research in Cambridge MA. Since 2003, he helped establish a cellular biology resources group centered around the TAP SelecT platform. His group supports all cellular screening, electrophysiology, and membrane needs for hit discovery and pre-clinical safety profiling at the Cambridge facility. Prior to Novartis, Chris worked in the Oncology department at Millennium Pharmaceuticals developing somatic cell knockout models and reporter cell lines for profiling novel protein functions. Chris will speak his thoughts on the peculiarities of living cells as discovery tools, and of the automated microcosm in which such cells are harnessed for downstream discovery efforts.

“Fully Automated 3D Cell Culture: Leveraging Relevant and Consistent Drug Discovery”

Brad A. Justice, Director of Research, Global Cell Solutions, Inc. 770 Harris Street, Suite 104, Charlottesville, VA  22903.

Biography

With a variety of research and entrepreneurial experiences, Mr. Justice possesses a wide scope of research and laboratory management expertise. Mr. Justice has created novel tools and methods to characterize and understand the action of popular antidepressants such as Prozac. Additional past projects include identifying genes relevant to Parkinson’s disease and characterization of the biological mechanisms that dictate cellular and structural polarities. At GCS, he supervises and executes all R&D activities and is responsible for developing the GEM™ technology.  Furthermore, he is the Principal Investigator for a NSF grant award to commercialize cryopreserved cells as reagents.

 

"High Throughput Experimentation as an Enabling Technology for Bioprocess Development"

Seth Rodgers CTO, BioProcessors Corporation

Bioprocess development requires multi-factorial experimentation using scale-down models at every step. However, traditional scale-down models have limitations that frequently constrain the possible scope and/or relevance of experimentation. In particular : bioreactor experimentation is often prohibitively expensive, and simple models such as well plates, tubes, and flasks do not often provide enough insight to link manipulations of process parameters to changes in process outcome. The SimCell system addresses this problem by providing many of the measurements and controls commonly found in bioreactors.  It performs fed-batch protocols with pH, DO, and glucose control across hundreds of micro-bioreactors. Offline analytical systems can be used to obtain product quality information from small micro-bioreactor samples in very high throughput, permitting rapid evaluation of process design choices.  Informatics challenges arising from the need to integrate many disparate data sets are also addressed. Finally, by combining cell culture, analytics, and informatics, a workflow that represents a 20 to 50 fold improvement in throughput over traditional methods can be created.

Biography

Seth Rodgers has served as CTO of BioProcessors since 2002, where he has led the development of technologies for high throughput, multi-factorial experimentation. Development activities have focused on creating a micro-bioreactor array for use with high throughput automaton, and have more recently been directed toward improving the accuracy of micro-reactor systems as scale down models for larger scale bioreactors. Deployment of process analytic technologies and improved control strategies at the microscale is an area of particular interest. Prior to BioProcessors, Seth was a consultant with McKinsey and company in Houston, Texas. Seth holds a PhD and MS degrees from MIT in chemical engineering and a BS, also in chemical engineering from UC San Diego.