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On Simulating Growth and Form

Simulations can teach us how young bodies and faces develop; how an artery compensates for decades of fatty plaque deposits by growing and thickening its walls; how tissue engineers can best coax endothelial cells to develop into organized sheets of skin for burn patients; and how cancerous tumors invade neighboring tissue.

For better or for worse, and on many levels, our tissues never stop growing and changing. While developing from childhood to old age, we grow not only bone, cartilage, fat, muscle and skin, but also...
Apr, 01, 2008
Stem Cells’ Existential Crisis Explained

Either/or molecular circuitry modeled

To differentiate or not to differentiate? That is the question constantly faced by embryonic stem cells. And they seem to answer it decisively at the behest of a molecular trio of transcription...
Jan, 01, 2007
Dogs, Doses, and Devices: The FDA's Ambitious Plans for Computational Modeling

Computational modeling can help fill gaps in how we develop and review new drugs and devices

What role does computational modeling play at the United States Food and Drug Administration (FDA)?  If you ask Paul Watkins, MD, director of the Hamner—University of North Carolina...
devices, drug discovery, FDA, modeling
Sep, 01, 2011
DNA Shows Surprising Flexibility

Where simulation and theory converge

For decades, scientists have believed that DNA of short lengths (150 base pairs or fewer) behaves as a relatively stiff rod—able to quiver a bit, but rarely forming a circle or tight angle...
Apr, 01, 2007
3D Radiology—Who Knew It Could Look So Good

3D images help physicians design appropriate interventions.

Images of realistic and colorful 3D human body parts line the hall outside the lab. Blood and muscle look like blood and muscle; bone looks like bone. You almost expect to find human cadavers being...
cardiovascular, radiology, stent, visualization
Sep, 01, 2011
Modeling Early Evolution
The fittest organisms survive and produce offspring, according to the Darwinian theory of natural selection. And the changes that make an organism fit happen at the molecular level: when genes mutate...
Oct, 01, 2007
Biocomputation Startups: Where Does Value Lie?

An opportunity and a challenge

When discussing biocomputation startups, there’s one thing people agree on: These days, they don’t generate much excitement among venture capitalists.   “In the 1990s, there...
Apr, 01, 2007
Neurons Seek Their Own Solution

Computer models find that various ion channel arrangements can produce the same firing pattern

Each cell in our nervous system is an instrument in a complex symphony of electrophysiologic communication. A neuron’s signaling abilities arise from its array of ion channels—tunnels...
Jan, 01, 2007
Center of Mass Controls Balance

An elegant new model of balance control suggests the brain only cares about one thing: the body’s center of mass.

Bumped from behind, a person may step forward to avoid falling. Perhaps her arms fly out as well. To the untrained eye, these movements seem like the result of the brain controlling individual nerve...
Jan, 01, 2008
OpenMM User Profile: Erik Lindahl, PhD

Erik Lindahl of Stockholm University uses OpenMM to speed up molecular simulations of membrane proteins and takes inspiration from Simbios’ professional approach to software development as he continues developing and maintaining GROMACS.

from http://biomedicalcomputationreview.org/content/simbios-bringing-biomedical-simulation-your-fingertips   Simbios provides two key benefits to Erik Lindahl, PhD, associate professor of...
Oct, 01, 2009
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