And on Feb. 24, Reuters reported that California scientists had
used human stem cells to create human neurons in mouse brains.
They then
used human stem cells derived from bone marrow that would normally become bone cells to test the effects of the nanoparticles on stem cell proliferation and differentiation.
Researchers have successfully
used human stem cells to generate functional pituitary tissue that secretes hormones important for the body's stress response as well as for its growth and reproductive functions.
To replicate these cell culture results, Rani
used human stem cells to grow neurons into what is called a mini brain.
In the new study, Lipton and his colleagues
used human stem cell and mouse models to show exactly how SNO can trigger cell death in Parkinson's disease.
Panoskaltsis - Mortari's team has been working on rebuilding lungs and other parts of the respiratory system
using human stem cells.
Dr. Zubair, medical and scientific director of the Cell Therapy Laboratory at Mayo Clinic in Florida, says the experiment will be the first one Mayo Clinic has conducted in space and the first to
use these human stem cells, which are found in bone marrow.
(Fan says that his team is now focusing on improving the efficiency of CRISPR
using human stem cells).
Using human stems cells and segments of rat intestines, scientists engineer bowels that are capable of absorbing nutrients.
From a scientific point of view, it makes much more sense to
use human stem cells to model human hearts.»
The Ellerby lab is known for its pioneering studies on Huntington's disease (HD), and Karen is now
using human stem cell models of HD to understand why important molecular signaling pathways, such as the TGF - β pathway, are dysregulated in HD.
Researchers at the University of California, San Diego School of Medicine have launched a trial to investigate the safety of
using human stem cells to treat patients with chronic spinal cord injury.
Supported by a CIRM translational grant, scientists in Huang's laboratory are
using human stem cells to create inhibitory neuron progenitors — early - stage brain cells that can develop into mature inhibitory neurons.
Gage's lab also models diseases in the laboratory
using human stem cells.
Not exact matches
Human Longevity has already received $ 70 million in private backing and aims to
use both genomics and
stem cell therapies to allow us to live longer, healthier lives.
For example,
using 3 - D bioprinters — which can print the structure of
human tissue with biodegradable material — and
stem cells, which are
used to populate the 3 - D printed structure, researchers can grow actually
human tissue.
A research group at Cincinnati Children's Hospital Medical Center
used human pluripotent
stem cells (hPSCs) to grow
human stomach tissue (paywall)-- and, notably, the part of the organ that produces digestive enzymes.
A few weeks ago we all heard the announcement of a major scientific breakthrough that allowed scientists to create the equivalent of
human embryonic
stem cells (called induced pluripotent
stem cells) but without
using or destroying embryos.
The difficulties associated with obtaining nerve tissue at the correct stage of development and differentiation from aborted embryos means that foetal tissue transplantation is no longer in favour, but the creation of
human embryos specifically as sources of
stem cells, and the push to
use «spare» embryos from IVF treatments is gatheringmomentum.
It
stems from
human immaturity and insecurity
using their religion as an excuse.
Stem cell research
using human embryos might mean new mornings for people like these — people you and I know by name.
Scientists looking for new methods to make
human tissue have successfully
used cloning technology to create embryonic
stem cells from skin cells.
The ANT - OAR proposal represent a scientifically and morally sound means of obtaining
human pluripotent
stem cells that does not compromise either the science or the deeply held moral convictions of those who oppose the destructive
use of
human embryos for research» which is a creative approach that can be embraced by both the anything - goes camp and the nothing - goes.
As we read this history, the furor over
stem cells was fueled by numerous factors: the near - universal
human desire for magic; patients» desperation in the face of illness and their hope for cures; the belief that biology can now do anything; the reluctance of scientists to accept any limits (particularly moral limits) on their research; the impact of big money from biotech stocks, patents, and federal funding; the willingness of America's elite class to
use every means possible to discredit religion in general; and the need to protect the unlimited abortion license by accepting no protections of unborn
human life.
Examples are 9/11 hijackings, The holding back of
stem cell research that could save countless
human lives, Aids being spread due to religious opposition to the
use of condoms, Christians legally fighting this year to teach over 1 million young girls in America that they must always be obedient to men, the eroding of child protection laws in America by Christians, for so called faith based healing alternatives that place children's health and safety at risk, burning of witches, the crusades, The Nazi belief that the Aryans were god's chosen to rule the world, etc... But who cares about evidence in the real world when we have our imaginations and delusions about gods with no evidence of them existing.
Just before Thanksgiving, news broke about a new
stem - cell technique that could produce the equivalent of embryonic
stem cells (ESCs) but without
using or destroying
human embryos.
In August of last year, President Bush approved the
use of federal funds to support research on a limited number of existing
human embryonic
stem cell lines.
I have oft asserted that the embryonic
stem cell debate is not the far end of the instrumental
use of unborn
humans, but the launching pad.
The increasing
use of in - vitro - fertilisation techniques, and the emergence of new possibilities involving
human cloning, mixing of
human and animal genetic elements, and the
use of embryonic
stem cells for research, among other things, brought the need for further teaching.
Stem cells can transform into any other
human cells, so they have immense potential for generating all sorts of adult cells and thus can be
used in research concerning
human degenerative (and other) diseases.
The recent news that the promise of
stem cell research can be pursued without
using human embryos has permanently and dramatically changed the
stem cell debate.
Whilst acknowledging that many questions remain unanswered in the debate between those who would advocate the
use of
stem cells taken from
human embryos, and those experimenting on
stem cells drawn from tissues of the adult
human body, there is a lengthy discussion of the moral status of the
human embryo as being a crucial matter in this regard.
«There are perfectly ethical ways of obtaining
stem cells to cure disease, which do not involve embryo destruction, so no matter what moral value one places on the
human embryo, we do not need to
use it.»
As well as allowing the
use of
stem cells grown from established cell lines, the technology could enable the creation of improved
human tissue models for drug testing and potentially even purpose - built replacement organs.
To make the HSCs, the Harvard group
used human skin cells to create induced pluripotent
stem cells (iPSCs), adult cells researchers genetically reprogram to an embryonic -
stem - cell state, where they can grow into any kind of cell.
Famous for:
Uses stem cells to grow
human bone - potentially changing how surgeries are performed.
On Thursday, the United Nations» member states will consider two resolutions: One resolution would ban all
human cloning methods, including efforts to
use cloned embryonic
stem cells to try and generate healthy tissues, or to treat degenerative diseases such as Parkinson's.
The ability of SIF - seq to
use reporter assays in mouse embryonic
stem cells to identify
human embryonic
stem cell enhancers that are not present in the mouse genome opens the door to intriguing research possibilities as Dickel explains.
Trials of cells made from
human embryonic
stem cells are also poised to begin in people with type 1 diabetes and heart failure, the first time embryonic
stem cells have been
used in the treatment of major lethal diseases.
Working with Skeletal Biologists at Southampton General Hospital, Catarina is investigating new optical techniques to monitor the development of the cells,
used in new regenerative medicine approaches — in this case, to create and grow cartilage from
human stem cells.
The study results were found
using mouse embryonic
stem cells, which are good cell models for the study of processes seen in
human stem cells.
A group in Japan hopes to test a similar approach in
humans using stem cells from reprogrammed adult cells within the next three years.
Researchers at Geron, meanwhile, had successfully derived neurons from
human embryonic
stem cells and were pursuing research that would eventually look to repair the damage caused by spinal - cord injuries, a possible
use for embryonic
stem cells that was much touted at the time.
Anand and his colleague Susan McKay started with
human skin cells, which they turned into induced pluripotent
stem cells (iPSCs)
using a tried - and - tested method.
«Today's findings exemplify the many advances we've made in
using CRISPR - Cas9 and
human induced pluripotent
stem cell technologies and the amazing discoveries that have resulted,» said Hideyuki Okano, MD, PhD, of the Keio University School of Medicine in Tokyo, Japan.
A team of researchers at the Stanford University School of Medicine has
used a gene - editing tool known as CRISPR to repair the gene that causes sickle cell disease in
human stem cells, which they say is a key step toward developing a gene therapy for the disorder.
Using a mathematical model known as the Ising model, invented to describe phase transitions in statistical physics, such as how a substance changes from liquid to gas, the Johns Hopkins researchers calculated the probability distribution of methylation along the genome in several different
human cell types, including normal and cancerous colon, lung and liver cells, as well as brain, skin, blood and embryonic
stem cells.
«I'm working with Professor Richard Oreffo and Dr Rahul Tare from the University's Centre for
Human Development,
Stem Cells and Regeneration who are trying to create and grow cartilage in the lab using a patients» own (autologous) stem cells to then be implanted back into the patient if they have a cartilage defect,» she expla
Stem Cells and Regeneration who are trying to create and grow cartilage in the lab
using a patients» own (autologous)
stem cells to then be implanted back into the patient if they have a cartilage defect,» she expla
stem cells to then be implanted back into the patient if they have a cartilage defect,» she explains.
What we are trying to do is introduce to biology techniques normally
used in chemistry or physics,
using inherent chemical or structural properties of the
human stem cells.
The Porteus team started with
human stem cells from the blood of patients with sickle cell disease, corrected the gene mutation
using CRISPR and then concentrated the
human stem cells so that 90 percent carried the corrected sickle cell gene.