These mice will be preserved in repositories and made available to the scientific community representing a valuable resource for basic scientific research as well as generating
new models for human diseases.
Not exact matches
Gene therapy delivered to a specific part of the brain reverses symptoms of depression in a mouse
model of the
disease — potentially laying the groundwork
for a
new approach to treating severe cases of
human depression in which drugs are ineffective.
More recently, researchers have induced stem cells from
diseased human somatic cells, which may serve as
new model systems
for various illnesses.
«
New gene editing technique turns
human pluripotent stem cells into a
model system
for polycystic kidney
disease.»
These observations and others have convinced the researchers that their CRISPR / Cas9 and hPSC system produces a stable, biologically accurate
human model for a common genetic
disease where
new understanding and
new therapies are desperately needed.
«Finches offer researchers a
new tool with which to study Huntington's
disease: Like
humans, songbirds learn their vocalizations, suggesting they could be useful as
models for certain disorders.»
«Investigators create complex kidney structures from
human stem cells derived from adults:
New technique offers
model for studying
disease, progress toward cell therapy.»
Because of the similarities in ocular anatomy, canine
models contribute significantly to the understanding of retinal
disease mechanisms and the development of
new therapies
for human patients.
This research is all aimed at tissue repair strategies, but it also may provide
new in vitro
models for human disease.
The researchers hope their
new cell lines will be a useful resource
for studying the cellular and molecular intricacies of Huntington's further, and suggest they may provide a
model for examining other
diseases of the brain that are specific to
humans.
Given the rapid succession of generations in yeast, we can use it as a
model organism — and study the mechanisms of aneuploidy in much greater detail to find out whether we can derive from it
new approaches
for diagnosing and treating
human diseases.»
An important
model in studying
human disease, the non-coding RNA of the canine genome is an essential starting point
for evolutionary and biomedical studies, according to a
new study led by The Genome Analysis Centre (TGAC).
Our finding of similarity in clinical progression between
human patients and Huntington's
disease monkeys suggests monkeys could become a preclinical, large animal
model for the development of
new treatments.»
The researchers» strategy — generating
disease - specific nerve cells, identifying a causative gene
for developmental defects, validating the gene - specific defect in animal
models, and then investigating interactions with other genes both in animal
models and in
humans — represents a promising
new approach
for understanding the mechanisms underlying some of the most intractable psychiatric illnesses.
The pigs showed both movement problems and respiratory difficulties common to
human patients, and it is hoped that this
model will assist in the creation of
new treatments
for Huntington's — a genetically inherited and fatal
disease which affects tens of thousands of people.
Since genetic loss of aP2 in mouse
models and in
humans results in lowered risk of cardiometabolic
disease, the molecule offers an exciting opportunity
for new intervention strategies.
With the reference cell census data in hand, the research team is excited to conduct additional studies, including ones involving
models or
human patients with gastrointestinal conditions — Crohn's
disease, ulcerative colitis, gastrointestinal cancers, forms of food allergy, etc. — aimed at identifying changes in gene expression and epithelial structure and function that could reveal
new insights and opportunities
for therapeutic development.
«
New therapies
for ALS are urgently needed — and our creation of
human models using iPS cell technology will hopefully deepen our understanding of how the
disease develops — and lead to relevant therapies
for patients,» said Senior Investigator Steve Finkbeiner, MD, PhD, who leads ALS research at Gladstone.
December 19, 2017 — Noteworthy NIH advances in basic research include a 3 - D
model of
human brain development and
disease, a virus linked to food sensitivity, and a
new role discovered
for the thalamus.
To build upon the encouraging early discoveries, Helmsley renewed and expanded its Crohn's funding
for the Institute in 2013 to begin
new work with three major aims: 1) continue studies of individual genes to determine how genetic differences between Crohn's patients and healthy individuals contribute to the
disease; 2) evaluate promising small molecules in
disease - relevant studies and prioritize insights from genetics to help develop novel therapeutics; and 3) begin basic experimentation in animal
models with Crohn's
disease to provide the data necessary to begin testing
new therapies in
humans.
This innovative
model allows the researchers to test viable
new drugs
for this
disease, and it provides a potential solution to studying other
human disorders of aging in mice.
«The development of a functional
human kidney glomerulus chip opens up an entirely
new experimental path to investigate kidney biology, carry out highly personalized
modeling of kidney
diseases and drug toxicities, and the stem cell - derived kidney podocytes we developed could even offer a
new injectable cell therapy approach
for regenerative medicine in patients with life - threatening glomerulopathies in the future,» said Ingber.
Robert D. Schreiber, Ph.D., an associate director of CRI's Scientific Advisory Council based at Washington University School of Medicine in Saint Louis, Missouri, developed a
new model of breast cancer that more closely resembles the progression of hormone receptor - positive
disease in
humans, overcoming a major obstacle in the study of breast cancer and the development of
new immune - based therapies
for the
disease.
These findings have identified an alternative source of replacement tissue
for use in
human retinal cellular therapies, and provide a
new in vitro cellular
model system in which to study RPE
diseases affecting
human patients.
Gage and Ghosh discuss how
human skin cells induced to return to an immature state («induced pluripotent stem cells» or IPS cells) are revolutionizing our understanding and treatment of mental and neurodegenerative disorders, such as Parkinson's
disease, as well as leading to
new models of drug development
for all
diseases.
Because of the similarities in ocular anatomy, including the presence of a cone photoreceptor - rich central retinal region [10], [11], and the frequently similar genotype - phenotype correlation [1], canine retinal
disease models contribute significantly to our understanding of retinal
disease mechanisms and the development of
new therapies
for human patients [12]--[20].