Not exact matches
Since the
human genome was decoded
in 2003, researchers have been
developing a powerful method for comparing the genomes of patients and healthy people, with the hope of pinpointing the DNA changes responsible for common
diseases.
«This may contribute to antibiotic resistance, [and] scientists are more concerned about
disease - causing bacteria that
develops resistance
in farm animals to then infect
human beings.
Because the food we consume directly impacts our health, it is important to note that an infant who
develops a «taste» for salty, sweet and fatty foods over fruits and vegetables will have a greater risk for diabetes, hypertension, cardiovascular
disease and some cancers according to Mennella's and Beauchamp's Flavor Perception
in Human Infants article.
Research
in the United States, Canada, Europe, and other
developed countries, among predominantly middle - class populations, provides strong evidence that
human milk feeding decreases the incidence and / or severity of diarrhea,1 - 5 lower respiratory infection,6 - 9 otitis media,3,10 - 14bacteremia, 15,16 bacterial meningitis, 15,17 botulism, 18 urinary tract infection, 19 and necrotizing enterocolitis.20, 21 There are a number of studies that show a possible protective effect of
human milk feeding against sudden infant death syndrome,22 - 24insulin - dependent diabetes mellitus,25 - 27 Crohn's
disease, 28,29 ulcerative colitis, 29 lymphoma, 30,31 allergic diseases,32 - 34 and other chronic digestive diseases.35 - 37 Breastfeeding has also been related to possible enhancement of cognitive development.38, 39
Since the first
human brain organoids were created from stem cells
in 2013, scientists have gotten them to form structures like those
in the brains of fetuses, to sprout dozens of different kinds of brain cells, and to
develop abnormalities like those causing neurological
diseases such as Timothy syndrome.
To better understand their findings, the team examined the animal model for APS1 (i.e. mice with the same genetic defect as
human patients with the syndrome) and found that male mice spontaneously
developed an inflammatory
disease in their prostate glands — a so - called prostatitis — and reacted to transglutaminase 4.
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.
The team from the University made their discovery by studying the bacteria
in a newly
developed model, which closely reflected the
human disease condition.
A recent study published
in Annals of Neurology reports that healthy
human tissue grafted to the brains of patients with Huntington's
disease in the hopes of treating the neurological disorder also
developed signs of the illness, several years after the graft.
«There are very few people
in human history who get the privilege of
developing a new therapy for any
human disease, much less cancer.
The UCLA researchers plan to
develop strategies to test the Duchenne - specific CRISPR / Cas9 platform to treat the
disease in animals as the next step toward perfecting a method that can be used
in humans.
In addition, the Izpisua Belmonte team is developing epigenetic editing technologies to reverse epigenetic alterations with a role in human aging and diseas
In addition, the Izpisua Belmonte team is
developing epigenetic editing technologies to reverse epigenetic alterations with a role
in human aging and diseas
in human aging and
disease.
A research team at The University of Texas at El Paso is one step closer to
developing an effective
human vaccine for cutaneous leishmaniasis, a tropical
disease found
in Texas and Oklahoma, and affecting some U.S. troops stationed
in Afghanistan and Iraq.
The findings indicate that not only might Oprl1 become dysregulated
in humans following the development of PTSD, but inherited variants of the
disease could increase the likelihood of someone
developing the disorder to begin with.
Further studies of processes
in which GTPBP3 is involved will help towards the understanding of
human diseases that are linked to mitochondrial DNA expression and to
develop new therapies.
«Further work
in our lab will be aimed at understanding the detailed mechanism of how these proteins regulate editing,
in turn providing an inroad to
developing therapeutics that modulate editing for the treatment of
human diseases.»
His laboratory
develops and deploys new biochemical and computational methods
in functional genomics, to elucidate the genetic basis of
human disease and
human physiology, and to create and deploy novel techniques
in next - generation sequencing and algorithms for tumor evolution, genome evolution, DNA and RNA modifications, and genome / epigenome engineering.
That way the researchers could ensure that each bird
developed the
disease as it would manifest
in humans.
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.
The findings, published
in the journal Nature, explain why the
human genome is so difficult to decipher — and contribute to the further understanding of how genetic differences affect the risk of
developing diseases on an individual level.
«However, we were able to show for the first time that changes
in this gene primarily cause Dowling - Degos
disease and around half of the mutation carriers
develop acne inversa,» emphasizes Damian Ralser, who is currently working on his doctorate at the Institute of
Human Genetics.
«Using a technique
developed by our collaborators at the University of Iowa, we were able to get long - term expression of these
human gene variants
in the fluid that bathes the entire brain,» says Bradley Hyman, MD, PhD, of the MassGeneral Institute for Neurodegenerative
Disease (MGH - MIND), senior author of the report
in the Nov. 20 Science Translational Medicine.
«It is possible that also
in humans, inflammatory
diseases that primarily
develop outside the brain could trigger epigenetic reprogramming inside the brain,» says Neher.
UBC Psychiatry Professor Dr. Weihong Song and Neurology Professor Yan - Jiang Wang at Third Military Medical University
in Chongqing attached normal mice, which don't naturally
develop Alzheimer's
disease, to mice modified to carry a mutant
human gene that produces high levels of a protein called amyloid - beta.
His research interests include the molecular underpinnings of cervical cancer (including
developing genetic screens), the identification of the genetic determinants of quantitative traits
in humans, and the application of massively parallel sequencing technology for understanding the genetics of complex
disease.
Dr. Funari's research interests include
developing new approaches for obtaining mycobiome profiles
in human disease and the translation of next generation sequencing applications into the clinic and personalized medicine.
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.
Using a recently
developed genome - editing technique called CRISPR, a Chinese team has successfully altered two target genes
in cynomolgus monkeys, paving the way for the development of monkey models that mimic
human diseases.
«It's a bit like
human disease but
in plants, to understand the pathogen and its interaction with the plant allows to
develop a functional cure to treat the affected plants» emphasizes the specialist
in plant genomics.
However, since the novel genes that were identified, are known to lead to aging - associated
diseases in humans, their further analysis seems to be promising for
developing new approaches to understand and possibly cure these
diseases and to contribute to a long life and healthy aging
in humans —
in a way, long - lived rodents do.
«If
human offspring from obese mothers have a similar risk for
developing fibrosis as we see
in mice, we may be able to predict who is going to
develop more serious
disease,» said Thompson.
Researchers have discovered tell - tale signs of Alzheimer's
disease in 20 elderly chimpanzee brains, rekindling a decades - old debate over whether
humans are the only species that
develop the debilitating condition.
Acute sleep loss
in humans is associated with increased appetite and insulin insensitivity, while chronically sleep - deprived individuals are more likely to
develop obesity, metabolic syndrome, type 2 diabetes, and cardiovascular
disease.
Although common
in humans, domestic pets, and zoo animals, periodontal
disease does not typically
develop in wild animals, leading to speculation that it is an oral microbiome
disease resulting from modern
human lifestyles.
Dartmouth researchers
developed a new biological pathway - based computational model, called the Pathway - based
Human Phenotype Network (PHPN), to identify underlying genetic connections between different
diseases as reported
in BioDataMining this week.
Since the sequencing of the
human genome was completed
in 2003, researchers have been trying to figure out which parts of the genome made some people more likely to
develop certain
diseases.
The monkey model has its own limitations: Monkeys don't
develop severe
disease when infected with different serotypes of dengue virus, which clearly happens
in humans.
A computational tool
developed at the University of Utah (U of U) has successfully identified
diseases with unknown gene mutations
in three separate cases, U of U researchers and their colleagues report
in a new study
in The American Journal of
Human Genetics.
The Structural Genomics Consortium at the University of North Carolina at Chapel Hill (SGC - UNC),
in partnership with the DiscoverX Corporation, has reached the milestone halfway point
in its development of the Kinase Chemogenomic Set, a potent group of inhibitors which allow deeper exploration of the
human kinome, a family of enzymes critical to understanding
human disease and
developing new therapies.
Professor Hong Wanjin, Executive Director at IMCB, said, «IMCB is now focusing research on molecular mechanisms underlying
diseases, which is important
in developing future treatments for prevailing
human diseases.
Developing the capability to experiment with prions
in bacteria could help to reveal more about the behavior of
human prions, which may be linked to
diseases such as Alzheimer's and Parkinson's, says Jeffrey Roberts, a molecular biologist at Cornell University
in Ithaca, New York.
In humans,
developing metabolic
disease, particularly type 2 diabetes, is correlated with having bacteria that penetrate the mucus lining of the colon, according to a study led by Drs. Benoit Chassaing and Andrew Gewirtz at Georgia State University.
The finding, by researchers at the University of Illinois at Chicago College of Medicine, was reported July 16 at the Alzheimer's Association International Conference
in Copenhagen by Mary Jo LaDu, who
in 2012
developed a transgenic mouse that is now regarded as the best animal model of the
human disease.
«We believe it is the first example illustrating the process of a
developing human heart chamber
in vitro,» said Kevin Healy, a UC Berkeley professor of bioengineering, who is co-senior author of the study with Dr. Bruce Conklin, a senior investigator at the Gladstone Institute of Cardiovascular
Disease and a professor of medical genetics and cellular and molecular pharmacology at UC San Francisco.
An accidental discovery of a flatworm's color - changing ability could help
develop treatments for porphyria, a
disease that causes pain and light sensitivity
in humans.
«We know from previous
human studies that changes
in gut bacterial composition correlate with the early development of type 1 diabetes, and that the interactions between bacterial networks may be a contributing factor
in why some people at risk for the
disease develop type 1 diabetes and others don't,» said Jessica Dunne, Director of Discovery Research at JDRF, which funded the study.
Led by researchers at NYU Langone Medical Center, the study found that maintaining high levels of adenosine
in rats with damage to the anterior cruciate ligament (ACL), which is known to lead to osteoarthritis
in humans, prevented the rats from
developing the
disease.
To test this
in an animal that is more closely related to
humans, investigators
in Japan directed iPSCs taken from a monkey to
develop into certain neurons that are depleted
in Parkinson's
disease patients.
Last November, however, a team led by Mihael Polymeropoulos of the National
Human Genome Research Institute
in Bethesda, Maryland, reported that the
disease afflicting the Italian family, which
develops at an unusually early age, showed strong genetic linkage to a region on chromosome 4.
Research has shown that giving TMAO to rodents promotes atherosclerosis and that
humans with higher concentrations of TMAO
in the bloodstream are at increased risk of
developing heart
disease.