Not exact matches
«I think it will mark a paradigm shift» in how scientists
understand stem
cell differentiation, he adds.
The new technique could also be useful in
understanding how stem
cells change oxidation properties during
differentiation into other
cell types.
They also are key to
cell differentiation in developing organisms, but the mechanisms are not fully
understood.
But like the medieval alchemists, today's cloning and stem
cell biologists are working largely with processes they don't fully
understand: What actually happens inside the oocyte to reprogram the nucleus is still a mystery, and scientists have a lot to learn before they can direct a
cell's
differentiation as smoothly as nature's program of development does every time fertilized egg gives rise to the multiple
cell types that make up a live baby.
Mouse embryos: Scientists first found embryonic stem
cells in mice in the 1970s, but an
understanding of the critical role they play in
cell differentiation only emerged years later.
Because these organisms are excellent models for
understanding stem
cell biology, researchers were able to shed light on the earliest stages of follicle
cell differentiation, a previously poorly
understood area of developmental biology.
«This study can further our shared
understanding of how the microenvironment can regulate the
differentiation and fate of a progenitor or stem
cell.»
Understanding the mechanisms that regulate the self - renewal and
differentiation of stem
cells is important, in order that stem
cells can be effectively and safely utilised in medical applications in the future.
I've still kept my own lab going focusing on
understanding what pluripotent stem
cells really are, and the extrinsic signals that govern their self - renewal and
differentiation.
Knowing how
cells exert force and sense mechanical feedback in their microenvironment is crucial to
understanding how they activate a wide range of cellular functions, such as
cell reproduction,
differentiation and adhesion — basic physiological processes that underlie embryo development, tumor metastasis, wound healing and many other aspects of human health and disease.
This inefficiency is partly due to a poor
understanding of the molecular mechanisms controlling the
differentiation of these
cells.
«Researchers apply brainpower to
understanding neural stem
cell differentiation.»
Fetal development in mammals is becoming well
understood in terms of the causes of
cell differentiation and gene activation.
In a relatively short period since its foundation in 2002, the CRG has generated important scientific insights in our
understanding of the organization, deployment and evolution of genetic information, the internal workings of
cells, their
differentiation and reprogramming, their collective organization to form tissues and their alterations in disease, including cancer.
We are investigating the roles of various transcription factors, kinases, and molecules involved in intracellular vesicular traffic in order to
understand the
differentiation of Vα14 iNKT
cells.
The exploration of the therapeutic potential of stem
cells requires the characterization of their biological properties, the deciphering of the mechanisms that underlie their pluripotency and their capacity at
differentiation, by the
understanding of the signals that direct their fate towards discrete
cell phenotypes... Their therapeutic use requests further, in particular in the case of substitutive therapies, the analysis of their capacities of integration in injured adult tissues and of their potential tumorigenicity, as well as the development of original ways of delivery.
Human iPS
cell - derived hepatocytes differentiated with our robust
differentiation protocol and cultured using our novel maintenance medium provide an inexhaustible, consistent supply of functional hepatocytes that can be used to advance the
understanding of diseases related to dysfunction in liver metabolism, including NAFLD / NASH, type 2 diabetes, and metabolic syndrome.
In addition to p53, there are other transcriptional activatory mechanisms that are not well
understood for the most part and which operate in response to mitogenic stimulation (11, 12), transforming growth factor - β (13, 14, 15), and aberrant oncogenic signals (16, 17) or during a number of
cell differentiation processes (18, 19).
«This new
understanding of the role played by scrawny may make it easier to expand stem
cell populations in culture, and to direct stem
cell differentiation in desired directions,» says Spradling.
Understanding how individual stem
cells engage into
differentiation or remain in a non-differentiated, quiescent and / or self - renewing state.
Human iPS
cell - derived hepatocytes differentiated with our robust
differentiation protocol and cultured using a novel maintenance medium provide an inexhaustible, consistent supply of functional hepatocytes that can be used to advance the
understanding of diseases related to dysfunction in liver metabolism, including NAFLD / NASH, type 2 diabetes, and metabolic syndrome.
We aim at
understanding (1) the regulatory properties emerging from and the constrains imposed by the modular and dynamic organisation of the network; (2) the epigenetic mechanisms ensuring the rapid reestablishment of the network after each
cell division and, conversely, those promoting its dismantling upon
differentiation; (3) the contribution of non-coding RNAs to the regulation of the network's activity.
Professor Smith was awarded the prize for his seminal contribution to
understanding the mechanisms governing the renewal or
differentiation of stem
cells, a vital stage in the development of
cell treatments.
The new knowledge and target candidate genes resulted from such unbiased study are ultimately important for researchers to
understand the fundamental nature of stem
cell proliferation and
differentiation.»
Starting my lab beginning of 2015 in Dresden we will focus on
understanding the role of membrane organization during
cell differentiation and tissue formation.
Understanding the principles of continuous regeneration and
cell differentiation is a prerequisite to modulate hematopoiesis.
Dissecting the roles of mitochondria in stem
cell homeostasis and
differentiation is essential to
understand stem
cell dynamics and fate.
We have a longstanding interest in
understanding gene expression regulation, and in our wetlab at the Sanger Institute use mouse T helper
cells as a model of
cell differentiation.
This study, published in Science, will help researchers
understand why and how stem
cells transition through states of
differentiation through their different molecular properties.
The current findings could provide important clues to determine the culture conditions for promoting the
differentiation of primate ES
cells into mature gametes, and to
understand molecular mechanisms of primate gametogenesis including the timing of germ
cell induction, the regulation of germ
cell gene expression, and the response to growth factors for germ
cell differentiation.
By identifying, activating and inhibiting critical signaling nodes in
cells, the scientists seek to better
understand how these drive responses such as
cell death and
differentiation.
Research in Dr. Sun's laboratory is focused on
understanding the mechanisms regulating T
cell differentiation, and developing targeted therapeutics based on these mechanisms.
usage of model organisms to
understand and exploit the mechanisms controlling stem and precursor
cell generation, maintenance, activation, recruitment, proliferation, homing and
differentiation,
The use of embryonic stem
cells as therapeutics requires firm
understanding of the mechanisms that control their proliferation and
differentiation.
In order to better
understand how the scientists have come to this conclusion, one needs to get familiar with
cell differentiation markers.