Dynamic Duo Takes Out the Cellular Trash
Salk Institute for Biological StudiesSalk scientists identify how immune cells use two critical receptors to clear dead cells from the body, pointing the way to new autoimmune and cancer therapies.
Salk scientists identify how immune cells use two critical receptors to clear dead cells from the body, pointing the way to new autoimmune and cancer therapies.
Two-year award will advance novel approach to understanding the brain.
Salk scientists find control signal for immune system that could help treat autoimmune diseases and cancer.
Salk researchers discover a master gene responsible for sleep and wake cycles, offering hope for a drug that could help reset sleep
Salk professor’s work on neurotransmitter receptors opened the door to understanding learning, memory and diseases of the nervous system
Scientists hope to borrow strategy from simpler animals to repair damaged spinal cord nerves in humans.
Award recognizes his pioneering discovery leading to cancer treatments.
Salk scientists find that a plant used for centuries by healers of São Tomé e Príncipe holds lessons for modern medicine.
Salk scientists show that the little-known supportive cells are vital in cognitive function.
Scientists at the Salk Institute have identified a gene responsible for stopping the movement of cancer from the lungs to other parts of the body, indicating a new way to fight one of the world’s deadliest cancers. By identifying the cause of this metastasis—which often happens quickly in lung cancer and results in a bleak survival rate—Salk scientists are able to explain why some tumors are more prone to spreading than others. The newly discovered pathway, detailed today in Molecular Cell, may also help researchers understand and treat the spread of melanoma and cervical cancers.
Treatment reverses symptoms of type 2 diabetes in mice without side effects.
New results ease previous concerns that gene-editing techniques—used to develop therapies for genetic diseases—could add unwanted mutations to stem cells.
The Salk Institute is pleased to welcome a new full professor and three new assistant professors, all exceptional leaders in their respective fields. The new faculty will facilitate innovative and collaborative breakthroughs in understanding human health and disease.
Salk researchers compared a dozen stem cell lines and discovered a newer method beats out the more established protocol when it comes to creating cells that most resemble those in a human embryo.
The Salk has launched a new initiative called the Salk Fellows Program. The program brings scientists from broad disciplines to the Institute to trigger innovation and perpetuate the collaborative spirit of the Salk.
The Salk Institute for Biological Studies has received a $25 million gift from San Diego philanthropist and former Salk trustee Conrad T. Prebys to support cutting-edge biological research on a wide range of diseases.
Ronald M. Evans, director of the Gene Expression Laboratory at Salk and Howard Hughes Medical Institute investigator, is one of three scientists chosen to receive $5 million in research funding as part of The Lustgarten Foundation's new "Distinguished Scholars" program, which recognizes individuals who have made outstanding achievements in research to focus their efforts on finding a cure for pancreatic cancer.
For most people, the urge to eat a meal or snack comes at a few, predictable times during the waking part of the day. But for those with a rare syndrome, hunger comes at unwanted hours, interrupts sleep and causes overeating.
Using new stem cell technology, scientists at the Salk Institute have shown that neurons generated from the skin cells of people with schizophrenia behave strangely in early developmental stages, providing a hint as to ways to detect and potentially treat the disease early.
By carefully controlling the levels of two proteins, researchers at the Salk Institute have discovered how to keep mammary stem cells—those that can form breast tissue—alive and functioning in the lab. The new ability to propagate mammary stem cells is allowing them to study both breast development and the formation of breast cancers.
Scientists at the Salk Institute have discovered the developmental source for a key type of neuron that allows animals to walk, a finding that could help pave the way for new therapies for spinal cord injuries or other motor impairments related to disease.
Scientists at the Salk Institute for Biological Studies have identified a key genetic switch linked to the development, progression and outcome of cancer, a finding that may lead to new targets for cancer therapies.
Scientists at the Salk Institute have created a new model of memory that explains how neurons retain select memories a few hours after an event. This new framework provides a more complete picture of how memory works, which can inform research into disorders liked Parkinson’s, Alzheimer’s, post-traumatic stress and learning disabilities.
Scientists at the Salk Institute have uncovered details into a surprising—and crucial—link between brain development and a gene whose mutation is tied to breast and ovarian cancer. Aside from better understanding neurological damage associated in a small percentage of people susceptible to breast cancers, the new work also helps to better understand the evolution of the brain.
The Salk Institute for Biological Studies will join Stanford University in leading a new Center of Excellence in Stem Cell Genomics, created through a $40 million award by California's stem cell agency, the California Institute for Regenerative Medicine.
A chemical that's found in fruits and vegetables from strawberries to cucumbers appears to stop memory loss that accompanies Alzheimer's disease in mice, scientists at the Salk Institute for Biological Studies have discovered. In experiments on mice that normally develop Alzheimer's symptoms less than a year after birth, a daily dose of the compound----a flavonol called fisetin----prevented the progressive memory and learning impairments. The drug, however, did not alter the formation of amyloid plaques in the brain, accumulations of proteins which are commonly blamed for Alzheimer's disease. The new finding suggests a way to treat Alzheimer's symptoms independently of targeting amyloid plaques.
Highly diverse cancers share one trait: the capacity for endless cell division. Unregulated growth is due in large part to the fact that tumor cells can rebuild protective ends of their chromosomes, which are made of repeated DNA sequences and proteins. Normally, cell division halts once these structures, called telomeres, wear down. But cancer cells keep on going by deploying one of two strategies to reconstruct telomeres.
It takes dozens of chemical reactions for a cell to make isoprenoids, a diverse class of molecules found in every type of living organism. Cholesterol, for example, an important component of the membranes of cells, is a large isoprenoid chemical. The molecule that gives oranges their citrusy smell and taste is an isoprenoid, as is the natural antimalarial drug artemisinin.
The Salk Institute is pleased to announce that Alan D. Gold and David F. Hale have been elected to its Board of Trustees.
A new approach to mapping how proteins interact with each other, developed at the Salk Institute for Biological Studies, could aid in the design of new drugs for diseases such as diabetes and osteoporosis.
Establishing links between genes, the brain and human behavior is a central issue in cognitive neuroscience research, but studying how genes influence cognitive abilities and behavior as the brain develops from childhood to adulthood has proven difficult. Now, an international team of scientists has made inroads to understanding how genes influence brain structure and cognitive abilities and how neural circuits produce language.
Diseases affecting the kidneys represent a major and unsolved health issue worldwide. The kidneys rarely recover function once they are damaged by disease, highlighting the urgent need for better knowledge of kidney development and physiology.
It was once thought that each cell in a person's body possesses the same DNA code and that the particular way the genome is read imparts cell function and defines the individual. For many cell types in our bodies, however, that is an oversimplification. Studies of neuronal genomes published in the past decade have turned up extra or missing chromosomes, or pieces of DNA that can copy and paste themselves throughout the genomes.
Researchers at the Salk Institute for Biological Studies have, for the first time, taken chimpanzee and bonobo skin cells and turned them into induced pluripotent stem cells (iPSCs), a type of cell that has the ability to form any other cell or tissue in the body.
With the flick of a light switch, researchers at the Salk Institute for Biological Studies can change the shape of a protein in the brain of a mouse, turning on the protein at the precise moment they want. This allows the scientists to observe the exact effect of the protein's activation. The new method, described in the October 16 issue of the journal Neuron, relies on specially engineered amino acids----the molecules that make up proteins----and light from an LED. Now that it has been shown to work, the technique can be adapted to give researchers control of a wide variety of other proteins in the brain to study their functions.
The National Institutes of Health (NIH) has selected Axel Nimmerjahn for a highly competitive EUREKA (Exceptional Unconventional Research Enabling Knowledge Acceleration) grant. Dr. Nimmerjahn is an Assistant Professor in the Waitt Advanced Biophotonics Center and holds the Richard Allan Barry Developmental Chair.
The Juvenile Diabetes Research Foundation (JDRF) has given Salk scientist Mark Huising a five-year, $750,000 Career Development Award for his proposed study on how a novel network of receptors in human islets receives and integrates molecular signals. In pre-clinical models, activation of these receptors has proven to actually prevent diabetes. Career Development Awards are highly competitive and bestowed upon only a handful of people each year.
The Board of Trustees of the Salk Institute is pleased to announce the election of Elizabeth Keadle as its newest member.
The Salk Institute for Biological Studies announced the hiring of Anna-Marie Rooney as its Chief Communications Officer, to oversee all aspects of the world-renowned Institute's communications efforts including strategy, print publications, media relations, electronic/web communications, social media outreach, and multimedia resources.
In the past few years, as imaging tools and techniques have improved, scientists have been working tirelessly to build a detailed map of neural connections in the human brain---- with the ultimate hope of understanding how the mind works.
Salk scientist Tatyana Sharpee has received a CAREER award from the National Science Foundation (NSF) to fund upcoming research in her lab. The CAREER award supports faculty who exemplify the role of teacher-scholars through outstanding research, excellent education and the integration of education and research within the context of the mission of their organizations.
Alzheimer’s disease affects more than 26 million people worldwide. It is predicted to skyrocket as boomers age—nearly 106 million people are projected to have the disease by 2050. Fortunately, scientists are making progress towards therapies. A collaboration among several research entities, including the Salk Institute and the Sanford-Burnham Medical Research Institute, has defined a key mechanism behind the disease’s progress, giving hope that a newly modified Alzheimer’s drug will be effective.
-Proteins are the chief actors in cells, carrying out the duties specified by information encoded in our genes. Most proteins live only two days or less, ensuring that those damaged by inevitable chemical modifications are replaced with new functional copies.
Schizophrenia is one of the most devastating neurological conditions, with only 30 percent of sufferers ever experiencing full recovery. While current medications can control most psychotic symptoms, their side effects can leave individuals so severely impaired that the disease ranks among the top ten causes of disability in developed countries.
For many migraine sufferers, bright lights are a surefire way to exacerbate their headaches. And for some night-shift workers, just a stroll through a brightly lit parking lot during the morning commute home can be enough to throw off their body's daily rhythms and make daytime sleep nearly impossible. But a new molecule that selectively blocks specialized light-sensitive receptors in the eyes could help both these groups of people, without affecting normal vision.
Researchers at the Salk Institute for Biological Studies have discovered a powerful mechanism by which viruses such as influenza, West Nile and Dengue evade the body's immune response and infect humans with these potentially deadly diseases. The findings may provide scientists with an attractive target for novel antiviral therapies.
Proteins are the workhorses of cells, adopting conformations that allow them to set off chemical reactions, send signals and transport materials. But when a scientist is designing a new drug, trying to visualize the processes inside cells, or probe how molecules interact with each other, they can't always find a protein that will do the job they want. Instead, they often engineer their own novel proteins to use in experiments, either from scratch or by altering existing molecules.
More than 11,000 Americans suffer spinal cord injuries each year, and since over a quarter of those injuries are due to falls, the number is likely to rise as the population ages. The reason so many of those injuries are permanently disabling is that the human body lacks the capacity to regenerate nerve fibers. The best our bodies can do is route the surviving tissue around the injury site.
Dennis O'Leary of the Salk Institute was the first scientist to show that the basic functional architecture of the cortex, the largest part of the human brain, was genetically determined during development. But as it so often does in science, answering one question opened up many others. O'Leary wondered what if the layout of the cortex wasn't fixed? What would happen if it were changed?
Stem cells are key to the promise of regenerative medicine: the repair or replacement of injured tissues with custom grown substitutes. Essential to this process are induced pluripotent stem cells (iPSCs), which can be created from a patient's own tissues, thus eliminating the risk of immune rejection. However, Shinya Yamanaka's formula for iPSCs, for which he was awarded last year's Nobel Prize, uses a strict recipe that allows for limited variations in human cells, restricting their full potential for clinical application.