Overview
Date:
28th July 2021, Wednesday
Time:
06:30 am - 07:30 am (Delhi)
09:00 am - 10:00 am (Singapore)
10:00 am - 11:00 am (Seoul / Tokyo)
11:00 am - 12:00 pm (Melbourne)
01:00 pm - 02:00 pm (Auckland)
This event is co-hosted with Mission Bio. Your registration information will be shared with Mission Bio.
In this webinar, Daniel Snellings from the Duke University Medical Centre shares the role of somatic mutations in the pathogenesis of vascular malformations with specific focus on Cerebral Cavernous Malformations, Hereditary Hemorrhagic Telangiectasia, and Sturge-Weber Syndrome. The goal of his work is to identify novel somatic mutations, understand the genetic mechanisms by which these mutations arise, and evaluate how these mutations interact with existing genetic variation to drive malformations.
|
Daniel Snellings, PhD Daniel Snellings is a PhD candidate and Ruth L. Kirschstein Fellow in the Marchuk lab at Duke University Medical Center. |
|
Julia Gouffon, PhD Dr. Gouffon has over 20 years of experience working in the oncology genomics research field across academia and industry roles. She completed both her Masters in Biotechnology and Ph.D. training at the University of Tennessee and most recently joined Mission Bio in 2020 as the first Technical Application Liaison. In this unique role, she is focused on supporting our customers in the deployment of novel single-cell approaches for cutting-edge impact in translational oncology research. Talk: Unleashing the Power of Single-Cell Multi-Modal Analysis to Advance Precision Medicine |
|
Lei Tong, PhD Dr. Lei Tong earned her Ph.D. in Biomolecular Chemistry from the University of Wisconsin -Madison. Before joining the marketing team, Lei has been in the Illumina service & support department as technical support manager covering all Illumina product portfolios. Now, at marketing department, Lei’s focus is on leveraging next generation sequencing methods for cell biology applications including single cell analysis. Talk: Expand your Understanding of Biology with Single-cell Multiomics on Illumina Platforms |
