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An Unfolding Story

A model of chromatin explores how it folds and unfolds

To fit an organism’s DNA into a single cell, it has to be tightly compacted, first wound around proteins to form chromatin fibers, then further coiled into chromosomes. Computer simulations by...
Sep, 01, 2005
Predicting Protein Complexes

A combination of genomics data and molecular dynamics modeling is sufficient to predict protein complex structure

The zone where two proteins interact presents a possible target for drug design. But identifying possible drugs requires a detailed understanding of the interface between the proteins. Computer...
Apr, 01, 2010
How DNA Goes A'Courtin'

Simplified model catches essential details of how DNA complements find their matches

Until now, scientists have known little about how complementary single strands of DNA court one another before binding to form the classical double helix. But now, molecular dynamics simulations have...
Jan, 01, 2010
Studying Force in 3-D
Mechanical forces drive many processes in the human body, from organ and tissue formation during development, to stem cell differentiation, to wound healing. Until recently, scientists could only...
Oct, 01, 2009
Chromatin Fiber: Zigzag or Solenoid?
Try packing a two-meter-long stretch of DNA into a cell nucleus just a few millionths of a meter thick—with key coding segments readily accessible. It’s a seemingly impossible feat that...
Oct, 01, 2009
The Six Faces of E. Coli

A myriad of environmental changes inspire only a handful of responses

Biologists’ favorite bacterium grows almost anywhere—from the human gut to the pounding surf. But E. coli’s remarkable adaptability apparently stems from being predictable rather...
Apr, 01, 2006
Smoking Addiction Explained

Putting neural and behavioral information together to model addiction

To non-smokers, the nasty-smelling habit is inexplicable. But now neurocomputational researchers have developed a hypothetical model to explain how nicotine produces addictive behavior. The first...
Apr, 01, 2006
Modeling Whorls of Leaves

Computer simulation helps explain how plants grow

The petals of every flower and the leaves sprouting from every plant stalk have characteristic arrangements, a phenomenon called phyllotaxis. For two centuries, botanists have puzzled over the force...
Jul, 01, 2007
The BiGG Picture

A virtual metabolic network represents intracellular traffic

It’s hard to imagine a map depicting the daily flow of traffic on water, wheels and foot throughout San Diego—or any large city—over the course of a day. “That map can...
Apr, 01, 2007
The Spontaneous Brain
When people sit peacefully at rest, doing and thinking nothing in particular, their brains still buzz merrily along. In scans called functional MRIs, they light up in characteristic patterns. No one...
Oct, 01, 2007
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