Gladstone is now the west coast hub for protein research, facilitating the search for cures for unsolved diseases of the brain, the heart, and the immune system
Jun. 24, 2015: With the opening of the Thermo Fisher Scientific Proteomics Facility for Disease Target Discovery, the Gladstone Institutes has taken a major step forward in accelerating protein research.
By helping cells switch their type, we may have discovered a new way to repair damaged hearts, and potentially revolutionize the future of medicine
Feb. 2, 2015: Gladstone researchers are trying to reverse heart failure by changing the body's own cells to fix damaged tissue—the ultimate in personalized medicine.
Katerina Akassoglou, PhD, is working to identify a biomarker that could track the progression of multiple sclerosis using blood tests
Jan. 29, 2015: Multiple sclerosis (MS) is a notoriously difficult disease to manage. It can advance from a more benign relapsing-remitting disorder to an aggressively progressive one, but there is no way to pinpoint when and in which patients this downturn will occur.
Protein interactions between viruses and cells can illuminate common weak points in human biology and reveal potential new targets for antiviral treatments
Jan. 22, 2015: Back-to-back studies from researchers at the Gladstone Institutes have exposed new battle tactics employed by two deadly viruses: hepatitis C (HCV) and the Kaposi’s sarcoma-associated herpesvirus (KSHV).
Using his unique chemical cocktail, Gladstone’s Sheng Ding, PhD has regenerated the cells that die in paralyzing spinal cord injuries
Jan. 5, 2015: Renowned stem cell scientist Sheng Ding, PhD, has raised the field of regenerative medicine to unprecedented heights—using unique drug cocktails to turn fibroblasts (skin cells) into the cells needed by patients suffering from a wide range of conditions.
Dec. 15, 2014: As we enter our fourth decade without a cure for HIV, public interest in ending new infections has seemed to wane. Now's not the time to stop talking about AIDS. With important new treatment and prevention tools in our arsenal, San Francisco—known as the City of Love—could be the first U.S. city to end HIV transmission.
At the Gladstone Institute of Neurological Disease, two distinguished scientists are exploring Parkinson’s disease from all angles—gaining critical insights about the condition
Dec. 10, 2014: Parkinson’s disease (PD) is among the most prevalent and destructive of all neurodegenerative conditions. Gladstone investigators are using basic scientific research to address PD head-on.
Recent discoveries made at the Gladstone Institutes have provided new hope in the search for a cure for HIV/AIDS
Dec. 1, 2014: At the Gladstone Institutes, investigators are seeking to understand how HIV works, how it hides from the immune system, how it can be killed, and how its transmission can be blocked.
Gladstone scientist discovers the earliest signs of heart development, a key step down the path to his ultimate goal – creating a complete blueprint for building new hearts
Nov. 24, 2014: Dr. Benoit Bruneau is researching how the heart develops in an embryo and precisely when an embryonic cell decides to become a heart cell.
Advances made in the fields of virology and immunology often spread from one disease to another
Nov. 17, 2014: The commonalities among most viruses means progress with one can propel advances in others, for although they manifest differently, viruses use the same general strategies to subvert the immune system.
The postdoctoral fellows will use the grants to pursue research into epigenetics and heart disease, and the role of ketone bodies in aging
Nov. 14, 2014: Two postdoctoral fellows at the Gladstone Institutes are the recent recipients of highly prestigious research grants for young investigators.
Dr. McDevitt will use his background in biomedical engineering to improve and accelerate the development of human tissues from stem cells
Sept. 19, 2014: The Gladstone Institutes is very pleased to welcome Todd McDevitt, PhD, to the Gladstone Institute for Cardiovascular Disease.
Grants are to be used for innovative and transformative research into the detailed cell biology of the brain
Sept. 18, 2014: Basic questions about our DNA and cell biology still challenge researchers. Gladstone senior investigator Steve Finkbeiner, MD, PhD, was awarded two prestigious NIH grants as part of consortia aimed at solving these essential problems.
September 11, 2014: Every morning for eight weeks this summer, Damon Williams traveled over 50 miles from his home in Brentwood to the Gladstone Institutes in San Francisco. He was more than happy to make the long commute though; working on a special project in the Gladstone Stem Cell Core.
New gift from long-time supporter William Younger is helping two top scientists repair damaged hearts and prevent damage in developing ones
June 19, 2014: A new $2 million gift to Gladstone is helping two top scientists sprint toward their imminent finish line: the ability to repair catastrophic damage to fully formed hearts and prevent disease in developing ones.
April 30, 2014: Warner Greene, MD, PhD, the Director of the Gladstone Institute of Virology and Immunology, was recently elected into The American Academy of Arts and Sciences for his outstanding contributions to basic science research.
Gladstone’s innovative technique in stem cells could boost scientists’ ability to study—and ultimately cure—genetic disease
Feb. 9, 2014: Sometimes simply a one-letter change in the human genetic code is the difference between health and a deadly disease. Scientists at the Gladstone Institutes have found a way to efficiently edit the human genome one letter at a time—not only boosting researchers’ ability to model human disease, but also paving the way for therapies that cure disease.
Gladstone scientists reprogram skin cells into insulin-producing pancreas cells
Feb. 6, 2014: A cure for type 1 diabetes has long eluded even the top experts. But now scientists in the laboratory of Gladstone Institutes’ Investigator Sheng Ding, MD, PhD, harnessing the power of regenerative medicine, have developed a technique in animal models that could replenish the very cells destroyed by the disease.
New study establishes platform for investigating chromosome regulation during early human development
Jan. 21, 2014: In a study published in the the journal Nature, a team of investigators from the University of California, San Francisco (UCSF) and the Gladstone Institutes describe a new technique that will help scientists better understand how stem cells maintain proper chromosome numbers during development—and what happens when that process goes awry
Whether with newborns or neurodegenerative diseases, basic science offers insights
Jan. 13, 2014: It might seem that physician-scientist Bryce Mendelsohn, MD, PhD, likes to play both ends against the middle. Tthe young researcher joined the Gladstone Institutes to work in a laboratory focused largely on Parkinson’s and Alzheimer’s diseases.
Revolutionary imaging technique reveals that a unique protein interaction may be key to driving the most common genetic cause of Parkinson’s disease
Jan. 7, 2014: Trying to understand what happens to individual cells that become ravaged by disease is a lot like trying to piece together the life story of an individual person by looking at a few photographs.
Gladstone’s discovery of precise molecular mechanisms in the human body leads to a new potential therapy for our era’s deadliest epidemic
Dec. 19, 2013: New research from the laboratory of Warner C. Greene, MD, PhD, has revealed the body's step-by-step reaction to an HIV infection. The lab’s discovery of exactly how the body—and not the virus—kills most of the immune system’s CD4 T cells has helped the lab identify a potential new therapy that may block AIDS.
Latest study finds no link between HIV-prevention pill Truvada and increased sexual risk behavior
Dec. 18, 2013: In 2012 the HIV antiretroviral drug Truvada became the first and only medication approved by the FDA for HIV prevention. Now, a new study underscores the drug’s effectiveness at preventing new infections.
2013 marked another banner year for Gladstone science—what were some of our most compelling stories?
Dec. 13, 2013: Gladstone scientists are molecular ‘tinkerers’ charged with understanding the root causes of diseases that attack our hearts, our brains and our immune systems. Here is a sampling of how they have advanced the fields of science and medicine over the past year.
Gladstone’s Robert Mahley receives Wellcome Trust Funds to combat Alzheimer’s disease
Dec. 9, 2013: Robert Mahley, MD, PhD, has received a Seeding Drug Discovery Award from the Wellcome Trust enabeling Gladstone researchers in collaboration with the chemoinformatics company Numerate to develop therapies that prevent the damaging effects of the protein variant apoE4 on the brain.
Researchers develop molecular sensor to detect early signs of MS; could one day serve as an indicator of disease
Dec. 5, 2013: Scientists at the Gladstone Institutes have devised a new molecular sensor that can detect MS at its earliest stages—even before the onset of physical signs.
Advances in genomics and stem cell biology highlight the importance of basic research
Nov. 27, 2013: Two areas of research and discovery that are rooted in basic science are currently revolutionizing how we understand and treat disease.
Gladstone scientists—led by Nobel Laureate Shinya Yamanaka—have gained new insight into the molecular roadblocks that prevent efficient iPS cell production
Nov. 14, 2013: Dr. Yamanaka and his Gladstone research team have found a family of RNAs that acts as a barrier, preventing adult cells from being completely reprogrammed into iPS cells. And in so doing, the team has also identified a potential way of punching through that barrier and improving stem cell production.
Fast-mutating DNA sequences are shared between humans and chimpanzees—but differing activation patterns hold key to the evolution of uniquely human traits
Nov. 11, 2013: What does it mean to be human? According to scientists the key lies in the billions of lines of genetic code that comprise the human genome. Researchers at the Gladstone Institutes have discovered how the activation of specific stretches of DNA control the development of uniquely human characteristics.
Gladstone scientists identify unique change in protein structure that guides RNA production
Nov. 7, 2013: Gladstone Institutes are shedding light on key aspects of transcription, and in so doing are coming even closer to understanding the importance of this process in the growth and development of cells—as well as what happens when this process goes awry.
Dormant reservoirs of HIV hiding inside infected cells represent our biggest barrier to eradicating HIV/AIDS
Oct. 30, 2013: AIDS and the virus that causes it, HIV, have taken the lives of more than 35 million people worldwide. Anitretroviral treatments have been successful in suppressing HIV but they cannot completely eliminate the virus. The problem of dormant, or “latent,” HIV is perhaps the biggest barrier to finding a cure.
Two Gladstone scientists inducted into California Academy of Sciences, setting stage for continued collaboration between both research institutions
Oct. 8, 2013: The Gladstone Institutes and the California Academy of Sciences have been furthering scientific discovery and innovation collectively for more than a century. And today, the Academy has once again chosen to recognize Gladstone as a partner in science—by bestowing its highest honor upon two Gladstone scientists.
Three Gladstone scientists receive a total of $12.5 million to pursue high-impact research to fight our era’s worst epidemic
Sept. 30, 2013: Drs Warner C. Greene, Leor S. Weinberger, and Shomyseh Sanjabi, come from different backgrounds and with unique perspectives, but with the same goal: to eradicate HIV from the planet. They have each been recognized for their distinct visions of an AIDS-free planet as recipients of three separate awards from the National Institutes of Health.
As the pandemic continues, Gladstone scientists are laser-focused on curing HIV/ AIDS
Sept. 23, 2013: We have gone very far, very fast to stop HIV/AIDS. But our work is by no means done. At Gladstone, we are taking a multi-pronged approach to find new preventions, treatments and a cure for HIV/AIDS.
Robert Mahley’s hunt for a cure to Alzheimer’s disease begins with a protein called apoE
Sept. 16, 2013: Alzheimer’s disease is one of the greatest challenges facing modern medicine. Already, more than five million people in the United States are struggling with the disease. Thanks to four decades of research by Gladstone scientists into a protein called apoE—there is now a Plan B.
Gladstone Postdoc Energizes Science Expertise with Global-Health Passion
Sept. 7, 2013: Virologist Stefanie Sowinski, PhD, will never forget her first encounter with an AIDS patient. Sick with both AIDS and tuberculosis, the 25-year-old man was so emaciated he couldn’t speak. San Francisco or New York in the 1980s? No, this happened just two years ago in a rural hospital located a couple of hours north of Kampala, Uganda.
Scientists use latest stem cell and gene-editing techniques to generate neurons in a dish
Aug. 29, 2013: There is no easy way to study diseases of the brain. Extracting neurons from a living patient is difficult and risky. Examining a patient’s brain post-mortem usually only reveals the disease’s final stages. Animal models have fallen short during the drug-development stage of research. The result: we are woefully unprepared to fight—and win—the war against this class of diseases.
Gladstone-led study transforms non-beating human cells into heart-muscle cells; lays foundation for one day regenerating damaged heart muscle
Aug. 22, 2013: Scientists at the Gladstone Institutes reveal in a new study that they have found a way to transform the class of cells that form human scar tissue into those closely resembling beating heart cells.
Making large numbers of cells from stem cells could speed studies of embryonic development and congenital disease
Aug. 19, 2013: Built-in redundancies protect the developing embryo during early pregnancy. However some embryos are not so lucky, resulting in a devastating congenital birth defect or, in some cases, a miscarriage. Scientists have long sought to understand how problems early in embryonic development lead to such defects.
Researchers devise an innovative screening method to map and predict the behavior of an enzyme called RNA Polymerase II
Aug. 8, 2013: A team of researchers has found a way to map an enzyme’s underlying molecular machinery, revealing patterns that could allow them to predict how an enzyme behaves—and what happens when this process disrupted.
Gladstone’s Shomyseh Sanjabi wasn’t always set on being a scientist, but her work in immunology could revolutionize our understanding of how our bodies fight disease.
July 29, 2013: Our immune system protects us. It fights dangerous pathogens and builds defenses to block future infections. But it is extraordinarily complex, and scientists are still unraveling the inner workings of how this system attacks potentially deadly diseases.
The ability of some types of brain cells to clear mutant proteins better than others offers hints about how Huntington’s disease works
July 21, 2013: Toxic proteins build up in the brain over time due to age, various environmental insults, and genetic factors. This toxic buildup has long been viewed as the major contributor to neurodegenerative disease symptoms. Huntington's disease is an all-too-perfect example of this phenomenon.
A Profile of Maya Ragini Overland
July 15, 2013: Maya Ragini Overland is an MD-PhD student at UCSF doing her thesis research in the laboratory of Gladstone Investigator Steve Finkbeiner. Her research concerns a protein called Arc that is deeply involved in memory formation. How we learn and remember is a marvel to most of us and a long-standing fundamental problem for neuroscientists. Maya shares the wonder.
Scientists uncover the series of molecular signals that guide earliest stages of artery development
July 7, 2013: Not all circulatory systems are created equal. The ability to form blood vessels distinguishes vertebrates from the rest of the animal kingdom and is one of evolution’s crowning achievements. Researchers in the Bruneau lab have new insight into a process critical to the formation of arteries.
Gladstone-Salk study uses high-resolution technique to decode circuitry that guides brain function
June 30, 2013: The power of the brain to control the body and behavior lies in its trillions of intercellular connections called synapses. Gladstone and Salk Institute scientists combined an innovative brain-tracing technique with sophisticated genetic tools to ask how one brain region connects to its targets.
Ordinary cells can now be reprogrammed, and scientists are pushing this breakthrough into exciting new areas
June 27, 2013: In the Middle Ages, alchemists searched in vain for a philosopher’s stone that they believed would turn common metals into gold. In modern times, biomedical scientists have sought ways to transform common cells into those that could be used to repair damaged hearts, brains, and other tissues.
Protein helps maintain rhythm of the circadian clock; plays key role in metabolic health
June 24, 2013: Virtually every living organism has a circadian clock; the biological timing mechanism that is coordinated with the cycle of day and night. Scientists at Gladstone have discovered how a single protein receives direct instructions from the body’s circadian clock, and regulates fundamental circadian and metabolic processes.
How a chance meeting between scientists is setting the stage for the next phase in human genomics
June 17, 2013: Gladstone Investigator Katie Pollard, and Bioinformatics Fellow, Tom Sharpton have been examining the vast array of microorganisms known as the human "microbiome" which include many species of bacteria or viruses that dwell in or on the human body and comprise up to ten pounds of our body weight.
The protein Arc helps our brains form memories, but new research from Gladstone gives it an intriguing new role
June 9, 2013: How do we learn and remember? Somehow the things we see, feel, and hear are translated into electrical impulses and chemical connections in our brains, and we can call up those memories for years and even generations later. How memories are formed and sometimes lost is one of the great problems in biology.