Not exact matches
In past projects, scientists have tried to derive
various types of differentiated
cells from
stem cells — such as bone, tissue, nerves or fat — directly from hiPSCs.
Slight modifications in their genome sequences play a crucial role in the conversion
of pluripotent
stem cells into
various differentiated
cell types.
Blood formation was the first process for which scientists formulated and proved the theory that
stem cells are the common origin that gives rise to
various types of mature
cells.
This ball
of cells contains «pluripotent
stem cells» — blank slates that can be programed into any
type of cell in the body — and researchers are hoping to use these
stem cells to treat
various conditions, including infertility.
One
of them was used to reproduce acquired aplastic anemia: due to
various types of damage, some
of the
stem cells die, and those that remain need to divide more frequently in order to maintain the production
of blood
cells; as a result
of so many divisions, the telomeres shorten and the disease appears.
Most experiments with human
stem cells have only shown that the
cells can acquire the phenotype
of various differentiated
cell types, but have not shown that the
cells are functional at the transplantation site.
Understanding
stem / progenitor
cells — which can develop into
various types of tissue — are key to developing novel approaches for regenerative medicine.
Medical researchers have been working to use
stem cells, immature
cells that can develop into
various types of tissue, to regenerate cartilage.
Induced pluripotent
stem cells can be generated from
various types of cells in the body, and they can in turn be coaxed to develop into nearly any other
cell type.
The nose is lined with sensory tissue, the olfactory epithelium, that contains
various types of cells, all
of which arise from olfactory
stem cells (green).
While the potential
of adult
stem cells has been understood for some time, researchers have argued that the pluripotency
of embryonic
stem cells — their ability to be transformed into most if not all
of the
various cell types of the body — make them more valuable both for research and potentially someday for treatment.
To identify the molecular mechanisms
of neural
stem cell plasticity in adult zebrafish brain after
various types of tissue damage or physiological stimulations
The collection
of protocols includes the isolation and maintenance
of stem cells from
various species using «conventional» and novel methods, such as derivation
of ES
cells from single blastomeres, differentiation
of stem cells into specific tissue
types, isolation and maintenance
of somatic
stem cells,
stem cell - specific techniques and approaches to tissue engineering using
stem cell derivatives.
The portfolio includes U.S. and foreign patents and applications directed to culture, expansion and scale - up
of pluripotent
stem cells and
cell types derived therefrom,
various differentiation processes for production
of mesendoderm, definitive endoderm, PEC - 01, and endocrine precursors, as well as claims directed to the Company's Encaptra ® macro-encapsulation device platform.
In an apparent world first, Japanese researchers have succeeded in producing intestine from induced pluripotent
stem (iPS)
cells in mice, which can develop into
various types of cells in the body.
Various cell types in the vicinity
of stem cells communicate with each other to correctly drive regeneration.
Applying these paradigms on
various neural differentiation schemes
of human pluripotent
stem cells allows us to identify and isolate new
types of neural
stem and progenitor
cells, to characterize their cellular properties and molecular foundations, to expose their progenitor origin and track their imminent potential, to reveal their in vivo counterparts and learn about their regenerative potential.
In the embryo, there are
stem cells that are capable
of becoming all
of the
various cell types of the human body.
One
of them was used to reproduce acquired aplastic anaemia: due to
various types of damage, some
of the
stem cells die, and those that remain need to divide more frequently in order to maintain the production
of blood
cells; as a result
of so many divisions, the telomeres shorten and the disease appears.
The technique uses
cells from a patient's skin to generate induced pluripotent
stem cells (iPSCs), which are capable
of developing into
various types of mature tissues — including blood.
Various cell types have been examined for use in RPE
cell replacement including immortalized
cell lines, such as the human RPE
cell line, ARPE19 [2], sheets
of adult RPE [3], foetal RPE [4], RPE derived from human embryonic
stem cells (HESC - RPE)[5]--[10] and many non-RPE
cells lines [11]--[15].
A eclogical system
of stem cells consists
of various types of biological systems
of stem cells and subeclogical systems
of stem cells.