Kevin J. Anderson, Ph.D.

Postdoctoral Associate

Integrates biomechanical and genomic approaches towards the analysis of brain tumor heterogeneity and disease evolution.

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About Kevin J. Anderson, Ph.D.

Dr. Anderson received his Ph.D. in Biomedical Engineering from Cornell University. For his thesis research he adapted a multiscale numerical simulation towards the analysis of the initial behavior of circulating tumor cell aggregates interacting with activated endothelium. Previously, he received his B.S. in Biomedical Engineering at the University of Alabama at Birmingham.

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Education and experience

Education

The Jackson Laboratory
Postdoctoral fellow
Adv: Dr. Roel Verhaak
2017-present

Cornell University
Ph.D., Biomedical Engineering
Adv: Dr. Michael King
2011-2017

University of Alabama at Birmingham
B.S., Biomedical Engineering
2007-2011

Experience

Vanderbilt University
Postdoctoral Research Scholar
2017

Cornell University
Graduate Research Assistant
2011-2017

Selected Publications

Highlighted Abstract

Selectin-mediated adhesion of circulating tumor cells (CTCs) to the endothelium is a critical step in cancer metastasis, a major factor contributing to the mortality of cancer. The formation of tethers between tumor cells and endothelial selectins initiates cell rolling, which can lead to firm adhesion, extravasation and the formation of secondary metastases. Tumor cells travel through the bloodstream as single cells, or as aggregates known as circulating tumor microemboli (CTM). CTM have increased survivability and metastatic potential relative to CTCs, and the presence of CTM is associated with worse patient prognosis. The motion of cells and cellular aggregates in flow is a function of their size and shape, and these differences influence the frequency and strength of their contact with the endothelium. In this study, a computational model consisting of the hydrodynamic component of the Multiparticle Adhesive Dynamics simulation analyzed the effects of model aggregate conformation and orientation on adhesive binding potential. Model aggregates of the Colo205 colorectal cancer cell line were created, consisting of two, three, and four cells in simple geometrical conformations. Contact time, contact area, and time integral of contact area were measured as a function of fluid shear rate, initial centroid height, and initial orientation for model aggregates that experienced hydrodynamic collisions with the plane wall. It was found that larger CTM conformations with intermediate nonsphericities had the highest adhesion potential. The results of this study shed light on the correlation between environmental conditions and extravasation efficiency, which could inform the development of new anti-metastatic drugs.

1 Anderson KJ, de Guillebon A, Hughes AD, Wang W, King MR. Effect of circulating tumor cell aggregate configuration on hemodynamic transport and wall contact. Math Biosci. 2017 Dec; 294:181-194.

View full list of publications

Search MagazineMarch 19, 2019
Making a difference for rural cancer patients
Dr. Jens Rueter and the Maine Cancer Genomics Initiative are providing advanced genomic tools to oncology practices throughout Maine.
Research HighlightMarch 08, 2019
Long-range connectivity and gene regulation networks
A complicated three-dimensional network involving proteins and specific DNA sequences helps regulate the expression of genes. New work led by JAX’s Chia-Lin Wei shows how one protein, SOX2, plays a significant role in neural stem cells, affecting many aspects of development and function.
Search MagazineMarch 06, 2019
From tragedy, hope and closure
Doctors who treat rare pediatric cancers face an awful truth: many of their patients will die far too young.
- Cancer/Tumors
- Cancer
Press ReleaseMarch 05, 2019
3D genomics one nucleus at a time
Supported by a recent four-year, $2.3M grant from the National Institute of General Medical Sciences, Wei is looking to develop a method for chromatin interaction analysis in single nuclei, with single-molecule resolution.
- Genetic Tools
- Genetics and Genomics

Research HighlightMarch 12, 2019
A closer look at structural variants in the genome
A recent Cell paper uses long-read DNA sequencing and other advanced genomics tools and methods to shed light on genomic structural variants.
Research HighlightMarch 08, 2019
Breaking up is hard to do
New research shows that proteins work together to enable DNA double-strand breaks during meiosis.
- Reproductive Biology
- Genetics and Genomics
Search MagazineMarch 06, 2019
Finding a better way to fight childhood cancers
Ching Lau is working to find effective therapies and test them against patients’ own tumors in specially made patient derived xenotype (PDX) mice.
Research HighlightFebruary 28, 2019
Two proteins essential for layered sterocilia elongation in the inner-ear
A research team led by Basile Tarchini has found two new proteins that are essential to the correct elongation of stereocilia, tiny hair-like cellular protrusions in the inner ear.