Rashid's ultimate hope is that one day scientsts will be able to correct
the diseased cells in the lab and transplant them back into the patient, but he cautions that cell - based therapies won't be available anytime soon.
Not exact matches
But because women respond to medications and develop some
diseases differently than men, researchers need to include female
lab animals, tissues and
cells in their experiments, according to a Nature commentary Clayton co-wrote
in May.
Scientists use
cell reprogramming techniques to produce
cells in the
lab so that they can study
diseases.
«Many
diseases, especially complex
diseases, involve multiple genes, and this system could be used therapeutically to target and activate multiple genes together and rescue these
disease phenotypes,» says Albert Cheng, a graduate student
in the Jaenisch
lab and co-author of the
Cell Research paper.
Scientists have made a key discovery that could speed up the production of
cells in the
lab for studying
diseases such as multiple sclerosis and Parkinson's
disease.
At the same time, researchers have found that much smaller protein clusters called oligomers — made of only a few copies of these proteins — can be highly toxic to motor neuron - like
cells grown
in the
lab and thus are more likely to be the chief causes of brain -
cell death
in these
diseases.
Starting
in 2007,
in the same French Institute of Health and Medical Research (INSERM)
lab where he did his Ph.D., Catelain worked to harness the potential of embryonic stem
cells for treating cardiac
diseases.
In addition, the substance used to stick cells together (ViaGlue), will provide researchers with tools to create and test 3D in vitro cardiac tissue in their own labs to study heart disease and issues with transplantatio
In addition, the substance used to stick
cells together (ViaGlue), will provide researchers with tools to create and test 3D
in vitro cardiac tissue in their own labs to study heart disease and issues with transplantatio
in vitro cardiac tissue
in their own labs to study heart disease and issues with transplantatio
in their own
labs to study heart
disease and issues with transplantation.
Zheng, together with Leah Boyer, then a researcher
in Gage's
lab and now director of Salk's Stem
Cell Core, generated
diseased neurons by taking skin
cells from patients with Leigh syndrome, reprogramming them into stem
cells in culture and then coaxing them to develop into brain
cells in a dish.
Mouse brain nerve
cells (green) making a
disease - causing version of the tau protein were grown
in lab dishes with supporting brain
cells called glia.
The
disease model, described
in a new study by a UC San Francisco - led team, involves taking skin
cells from patients with the bone
disease, reprogramming them
in a
lab dish to their embryonic state, and deriving stem
cells from them.
David Macauley, the CEO of Virgin Health Bank QSTP, cited the encouraging example last November of a woman
in Spain whose
diseased windpipe was replaced with one grown
in the
lab from her own
cells.
We hope this leads to the ability to design, study and test new therapies for every patient on their own
cells in the
lab, leading to new treatments and breakthroughs
in personalized medicine for individuals with a variety of lung
diseases, including cystic fibrosis,» explained lead author Katherine McCauley, a PhD student at BUSM.
Scientists want to be able to clone early human embryos, using
cells from patients with various
diseases, so they can study the
diseases in the
lab and develop new treatments for them.
In lab tests the refurbished cells cured the disease in mice and in human bloo
In lab tests the refurbished
cells cured the
disease in mice and in human bloo
in mice and
in human bloo
in human blood.
Last May
in Nature Neuroscience, his
lab and a team at Columbia University reported that embryonic stem
cells could be used to shed light on the origins of amyotrophic lateral sclerosis (ALS), the progressive neurodegenerative
disease in which motor neurons
in the brain die.
He would spend his Saturday mornings
in the
lab conducting microbiology experiments and got exposed to the science of DNA during a summer internship at the university's Center for Sickle
Cell Disease.
Suspecting that the
disease works differently
in humans, whose brains are much bigger and more complex than those of
lab animals, Brivanlou, along with research associates Albert Ruzo and Gist Croft, developed a
cell - based human system for their research.
«
In my
lab we've seen a direct interaction between fat
cells and leukemia
cells that may help explain this increased risk of
disease relapse,» said Steven Mittelman, MD, PhD, director of the Diabetes and Obesity program at CHLA and senior author on the study.
Researchers from Hiroki Taniguchi's
lab at the Max Planck Florida Institute for Neuroscience (MPFI) published a study
in eNeuro
in May 2017 showing for the first time that a unique type of inhibitory interneuron called chandelier
cells — which are implicated
in several
diseases affecting the brain such as schizophrenia and epilepsy — seem to develop their connections differently than other types of neurons.
The Simon
lab is now working on testing the effects of the chimera on human liver
cells and
in mouse livers, to further elucidate its role
in the
disease.
«This one - two punch of discoveries underscores the critical value of basic science — by uncovering the major cause of CD4 T
cell depletion
in AIDS, Dr. Greene's
lab has been able to identify a potential new therapy for blocking the
disease's progression and improving on current antiretroviral medications.»
Along the way, the experiments have resulted
in important information on how MS attacks the body, says Stephen Hauser, a neurologist at the University of California, San Francisco, whose
lab spent decades determining the critical role B -
cells play
in the
disease.
When transplanted into rats with hypopituitarism — a
disease linked to dwarfism and premature aging
in humans — the
lab - grown pituitary
cells promoted normal hormone release.
Scientists have suggested that such embryonic stem
cells could be used for learning about genetic
diseases, testing new drugs on
cells grown
in the
lab, or growing healthy
cells for therapeutic transplantation.
But
in biomedical
labs, Dolly hinted at a future
in which
cells could be reprogrammed to an embryo - like state and used to treat human
diseases.
For many illnesses, researchers would like to study the
diseased cells from a patient
in the
lab; their ultimate hope is that they can also fix those
cells by modifying them genetically and then inject them back into the patient.
Last March, the foundation opened a privately - funded «safe haven»
lab in Manhattan where researchers from Columbia and Harvard are working to create
disease - specific
cell lines free of federal funding constraints.
«
Lab - grown human colons change study of GI
disease: Stem
cell derived organoids fill gap
in modeling common ailments.»
The Zeng
lab is making great progress on developing a stem
cell - derived treatment for Parkinson's
disease for testing
in humans.
Scientists
in the
lab of Steve Finkbeiner, MD, PhD, discovered that modifying the huntingtin protein prevented
cell death and motor impairment
in a mouse model of Huntington's
disease.
If the marriage of stem
cells and CRISPR follows a similar path, it might not be long before pigs have enough Homo sapiens
in them not only to grow human hearts, lungs, livers, and kidneys for transplant but also to model human
diseases more closely than current
lab animals do and to test experimental drugs.
«Since that time, Lorenz has made a significant number of transformative contributions and developed protocols that have fundamentally changed the way we create stem
cells in the
lab,» said Lennart Mucke, MD, director of the Gladstone Institute of Neurological
Disease.
The
cells generated
in the Zeng
lab may not only provide a potential unlimited source for
cell replacement therapy for Parkinson's
disease, but also offer an unprecedented opportunity to develop screening models for assessing small molecule drugs and to clarify the mechanisms of
disease.
Zhang has been using a different approach — studying
diseased human
cells in lab dishes.
Research
in the
lab of Edward P. Feener, Ph.D., Investigator
in the Section on Vascular
Cell Biology and Director of the Proteomics Core at Joslin Diabetes Center and an Associate Professor of Medicine at Harvard Medical School, now has shown that a substantial percentage of patients with DME do not have high levels of VEGF
in the fluid inside their eyes but do have high levels of a protein called PKal (plasma kallikrein) and associated molecules that are key players
in an inflammatory molecular pathway involved
in the
disease.
Scientists from the Sundrud
lab have identified a normally small subset of immune
cells that may play a major role
in the development of Crohn's
disease as well as steroid resistance associated with the
disease.
In CAR T therapy, a person's own T
cells —
disease - fighting immune
cells — are removed and sent to a
lab where they are genetically re-engineered to produce chimeric antigen receptors (CARs) on their surface.
Researchers have managed to successfully culture stem
cells from children with a specific neurological
disease in the
lab
Then, using more
lab tricks, scientists can re-introduce their home - grown version of the Huntington's
disease gene into mouse
cells and grow new mice that have it
in every
cell of their body.
In 2002, the lab proved that transplanting embryonic stem cells in animal models of Parkinson's disease yielded functional new dopamine neurons that restored motor functio
In 2002, the
lab proved that transplanting embryonic stem
cells in animal models of Parkinson's disease yielded functional new dopamine neurons that restored motor functio
in animal models of Parkinson's
disease yielded functional new dopamine neurons that restored motor function.
In 2010, the lab made the exciting breakthrough that dopamine neurons could be grown from human iPS cells and transplanted effectively to mitigate disease, setting the stage for forthcoming clinical trials in human
In 2010, the
lab made the exciting breakthrough that dopamine neurons could be grown from human iPS
cells and transplanted effectively to mitigate
disease, setting the stage for forthcoming clinical trials
in human
in humans.
With the help of conditional and function - selective knockout mice for the glucocorticoid receptor (GR) the
lab identified critical
cell types and novel mechanisms for anti-inflammatory activities of glucocorticoids
in different inflammatory
disease models.
Corn's
lab is one of several using CRISPR to cure — at least
in isolated
cells and mice — sickle
cell disease, where a single - letter DNA mutation stymies the oxygen - ferrying capacity of red blood
cells.
The Sette
lab's research on DENV encompasses large - scale epitope identification (supported by an HHS contract) and diverse studies towards understanding the role of T
cells and HLA variants
in the development of (or protection from) DENV
disease (supported
in part by a consortium grant led by Eva Harris at UC Berkeley).
After losing 80 percent of his skin to a devastating genetic
disease, a seven - year - old boy underwent an experimental treatment replacing his epidermis with new skin grown
in a
lab from genetically modified stem
cells.
Two related studies led by the Pagliarini
lab, published consecutively
in today's (Aug. 4) issue of the journal Molecular
Cell, identify functions for three little - known mitochondrial proteins that play either a direct or potential role
in disease.
«To make this available as a therapy, we would take a muscle biopsy from a patient with a muscle injury or
disease, remove the myoendothelial
cells and treat the
cells in the
lab.
The
lab investigates consequences of epigenetic alterations
in neuronal cancers and neurodegenerative
diseases using a combination of biochemistry,
cell and molecular biology with genome wide approaches to gain mechanistic insight into how chromatin architecture is modified
in disease.
Studies
in the Orr - Weaver
lab have illuminated fundamental aspects of this process, known as the
cell cycle, and shed new light on a broad range of
diseases caused by breakdowns
in cell division, including cancer and certain birth defects.