Not exact matches
Kauffman was trained as a physician, but gave up medical practice to study fundamental
questions in biology: «I entered
biology because the magnificent wonder of
cell differentiation overwhelmed me» (HU94).
Waddington's paper
in Towards a Theoretical
Biology follows on from one by Brian Goodwin («A Statistical Mechanics of Temporal Organization
in Cells») in which Goodwin looks at the question of how ordered systems like cells, and still more macro-organisms, supervene on the movements of their constituent molecules, and how one is to close the gap between molecular biology and cell physio
Cells»)
in which Goodwin looks at the
question of how ordered systems like
cells, and still more macro-organisms, supervene on the movements of their constituent molecules, and how one is to close the gap between molecular biology and cell physio
cells, and still more macro-organisms, supervene on the movements of their constituent molecules, and how one is to close the gap between molecular
biology and
cell physiology.
All the interdisciplinary skills and knowledge he had gathered during his scientific training — which had covered biochemistry, biotechnology, biomaterials, and stem
cell biology — put him «
in a very advantageous position to address this
question» of how to develop nanoparticles that could modulate stem
cell differentiation on demand, he says.
One of the key
questions in biology is to identify how tissues are repaired after trauma and understand how stem
cells migrate, proliferate, and differentiate to repair tissue damage.
In a second study, they applied CellNet's teachings to a recurring question in stem cell biology: Is it feasible to directly convert one specialized cell type to another, bypassing the laborious process of first creating an iPS cel
In a second study, they applied CellNet's teachings to a recurring
question in stem cell biology: Is it feasible to directly convert one specialized cell type to another, bypassing the laborious process of first creating an iPS cel
in stem
cell biology: Is it feasible to directly convert one specialized
cell type to another, bypassing the laborious process of first creating an iPS
cell?
This method is a new tool for
cell biologists and neuroscientists to use to address
questions ranging from fundamental mechanisms
in cell biology, to the underlying causes of mental illness, to the discovery of novel therapeutics.
«The exciting part of this work is not just that we made hydrogels, but that we're now equipped with this powerful technique that lets us ask fundamental — and very challenging —
questions about them,» says Takanari Inoue, Ph.D., an associate professor of
cell biology at the Johns Hopkins University School of Medicine and senior author of the report on the research published online Nov. 6
in the journal Nature Materials.
Led by researchers at Duke University, the study offers clues to a longstanding
question in developmental
biology, namely how plants and animals make so many types of
cells from the same set of instructions.
But while we have decades of data
in mice about these nervous system support
cells, how relevant those experiments are to human
biology (and the success of potential therapies) has been an open
question.
He is «an unusual character» who's distinctive for «bringing epidemiological thinking and methodology into dialogue with molecular and
cell biology» to answer important
questions about aging, says gerontologist Thomas Kirkwood of the University of Newcastle
in Newcastle - upon - Tyne, U.K.
At Helmholtz Zentrum Berlin, they are needed to understand the deep, inner structure of matter to improve solar
cells, for example, or to answer long - standing
questions in archaeology,
biology and many other fields of research.
This blog has strived to explore the different stem
cell types
in detail, including their
biology, history, potential, clinical applications, and numerous remaining
questions.
BLOOD VESSEL VS. HEART LINEAGES Researcher: Bertie Göttgens, Principle Investigator, Cambridge Stem
Cell Institute, U.K. Project: Göttgens and his collaborators are working to solve a long - standing
question in developmental
biology: To what extent do blood vessel and heart lineages overlap, and when do they diverge?
This major discovery resolves a heated debate
in the field, as it finally answers a
question that has been discussed
in biology for over a century: Before dividing
in two, DNA
in a
cell is comparable with spaghetti — a messy mixture of intermingled strands.
I completed my PhD as a
cell biology major
in an engineering lab, where I established a new assay to answer
questions very different from what the main part of the lab was working on.
This column,
Biology Bytes, has strived to explore the different stem
cell types
in detail, including their
biology, history, potential, clinical applications, and numerous remaining
questions.
With their deep expertise
in the
biology of senescent
cells, the Campisi lab will be focused on fundamental research into
questions like how senescent
cells vary
in their susceptibility and resistance to immune clearance (depending on factors like their tissues of residence or the pathway that led them into senescence); the targets and mechanisms used by NK
cells to clear senescent
cells; and why subsets of senescent
cells might persist when their similarly - situated neighbors are cleared out (and what might allow us to overcome that resistance).
Chlamydomonas is used as a model system for research on many very fundamental
questions in cell and molecular
biology: how do
cells move?
We discuss the recent advances to address the
question and characterize the developmental constraint
in evolution, by integrating approaches from
cell, and evolutionary
biology, bioinformatics, and theoretical biophysics, and provide the future perspective
in the quantitative evo - devo studies.
-- A fundamental
question in biology is how multicellular organisms regulate their
cell growth.
The Van Oudenaarden group uses a combination of experimental, computational, and theoretical approaches to quantitatively understand decision ‐ making
in single
cells, with a focus on
questions in developmental and stem
cell biology.
Recognizing the remarkable opportunities to apply single
cell technologies to major
questions in biology and medicine, JAX recently launched a joint center for single
cell genomics together with the University of Connecticut, including UConn Health.
The new mouse strains are ideally suited to settle fundamental
questions regarding the
biology of mast
cells and their functions
in the immune system.
Researchers have answered an important
question in biology by discovering the exquisite mechanism by which channels
in the
cell membrane sense voltage changes that trigger them to snap open or slam...