Researchers have created a high-resolution functional map of human immune cells, revealing intricate circuits that govern health and disease. The dataset provides a powerful framework for designing cancer immunotherapies and treating autoimmune conditions, and serves as a foundation for AI models of biology.
Scientists at Gladstone Institutes and UCSF discovered a pair of genetic edits that make CAR-T cells more effective against solid tumors. The new CRISPR screening platform enables the study of gene edits on CAR-T cells inside living mice, uncovering therapeutic targets previously missed in conventional cell culture systems.
Scientists at Gladstone Institutes have developed a regenerative treatment using stem cell-derived spinal interneurons to repair damaged neural networks in rats. The new cells not only survived and formed connections with the animals' own neural circuits but also improved breathing-related motor function after transplantation.
Benoit Bruneau, director of the Gladstone Institute of Cardiovascular Disease, has been named an American Heart Association Distinguished Scientist for 2026. His work on heart development and gene regulation has advanced our understanding of cardiovascular disease and stroke.
Researchers at Gladstone Institutes have made significant progress in understanding the causes of long COVID, focusing on changes in virus-specific immune cells. Specifically, they found that people with long COVID have distinctive changes in CD8 T cells, which are specialized to protect against specific viruses.
Researchers found that even losing one copy of the TBX5 gene can drastically derail heart development due to DNA misfolding. The study reveals a new origin for genetic disease, suggesting that small drops in protein levels can scramble the 3D structure of DNA.
Researchers at Gladstone Institutes found that hypoxia therapy can extend lifespan and improve brain function in mice with motor neuron degeneration. The therapy works by reducing the amount of oxygen available to cells, which can help counteract the effects of defective mitochondrial quality control machinery.
Magnus Hoffmann, a Gladstone scientist, has been recognized as a 2026 Pew Biomedical Scholar for his pioneering approach to advancing human health and medicine. His lab is developing an innovative immunotherapy platform to enhance the natural ability of the immune system to detect and respond to tumor-specific features.
The center will develop new phage-based treatments for antibiotic-resistant bacterial infections, predicting which phage to use for which patient and designing more effective phages. The goal is to generate unprecedented data and train AI models to identify the right phage for any patient's infection.
Andrew Yang's research has reshaped scientific understanding of the blood-brain barrier and its role in brain health and disease. His latest study reveals new potential treatment targets for neurological diseases, normal aging, and sleep.
Scientists at Gladstone Institutes create new method to track brain waste exit points, revealing unexpected details on immune cell interaction and disease disruption. The 'nearest exit' model suggests that each brain region has a unique drainage system.
Researchers have identified a gene, eIF4G2, crucial for keeping adult intestinal stem cells stable and functional. The study reveals that the gene plays a vital role in regulating protein production and maintaining stem cell identity.
Researchers used a new AI-powered computational method to discover that most nucleosomes contain sections of DNA that are partially accessible to the cell. The study found that more than 85% of nucleosomes showed some degree of distortion, with 14 distinct structural states associated with different levels of gene activity.
Researchers have developed a universal toolkit for editing bacterial DNA in 15 diverse species, including human pathogens and fast-growing biotechnology organisms. The technology uses retrons, an immune system that produces DNA, to efficiently modify genes, with varying success rates across different species.
Researchers at Gladstone Institutes identified hundreds of human genes influencing HIV infection and two potent antiviral proteins, PI16 and PPID. These proteins block HIV's entry into T cells or limit its ability to replicate within the cell.
Gladstone Institutes investigator Ryan Corces receives $750,000 to investigate unknown genetic variants contributing to Alzheimer's disease. He aims to identify new drivers and therapeutic targets using artificial intelligence and CRISPR tools.
Scientists have found that the APOE4 gene variant causes hyperactivity in two regions of the hippocampus, an important memory center of the brain, even before middle age. In mice with the APOE4 gene, reducing Nell2 levels reverses neuronal changes and improves cognitive function.
Gladstone Institutes has secured over 105,000 square feet of future laboratory space in a newly constructed building, empowering its scientists to create medicines of the future. The new space will be home to approximately 300 scientists across 20 labs, equipped with state-of-the-art equipment and computational abilities.
A new study reveals two specific genes that act like security locks to keep the virus asleep in some individuals who naturally control HIV even after stopping therapy. Metformin, a common diabetes drug, can activate one of these locks to keep the virus in its dormant state.
A new tool, HIV-seq, has been developed to profile rare HIV-infected cells from people with HIV. The tool has recovered and analyzed more HIV-infected cells and higher numbers of HIV RNA within those infected cells. The study has identified key differences in people's HIV-infected cells before versus after starting antiretroviral therapy.
Researchers discovered that high-dose vitamin B3 can dramatically extend survival in mice with NAXD deficiency, a devastating genetic disease. The study identifies dozens of other genetic conditions potentially responsive to vitamin therapy.
Researchers at Gladstone Institutes discovered that red blood cells act as glucose sponges in low-oxygen conditions, explaining why people living at high altitude have lower diabetes rates. This adaptation fuels efficient oxygen delivery to tissues while lowering blood sugar levels.
Researchers develop comprehensive method to connect diseases with underlying genetic machinery, revealing intricate gene networks that influence complex traits. The new technique provides actionable insights into how specific genes affect cell functions, shedding light on biological mechanisms and potential therapeutic targets.
Researchers found that CRISPR-Cas9 gene editing persists longer and produces more predictable results in non-dividing neurons. They also discovered new DNA repair genes that can be used to control gene editing outcomes, which could lead to safer and more effective therapies for genetic diseases.
A study from Gladstone Institutes finds that dysfunctional mitochondria can initiate Parkinson's disease. The researchers used a unique mouse model to demonstrate the link between mitochondrial dysfunction and energy breakdown in cells, shedding light on potential new treatments.
Researchers at Gladstone Institutes and UCSF have identified the genetic switches that regulate FOXP3 levels in human and mouse cells. In humans, multiple enhancers work together to keep FOXP3 active, while a repressor keeps it off in conventional T cells. This discovery has important implications for developing immune therapies.
Researchers at Gladstone Institutes discover a gene called HMGN1 that disrupts DNA packaging and regulation, leading to heart malformations in people with Down syndrome. Removing the extra copy of HMGN1 from mice with Down syndrome prevents heart defects, paving the way for potential treatments.
Isha Jain wins NIH Transformative Research Award to develop new targeted treatments using modern science and techniques, potentially leading to personalized vitamin-based therapies for genetic disorders. Her lab has made key discoveries on oxygen levels and tissue damage, aiming to fine-tune these processes for disease treatment.
Akassoglou's research discovered that blood protein fibrin causes toxic immune reactions in the brain, leading to neurodegeneration and disease progression. Her new immunotherapy aims to neutralize these effects, protecting against Alzheimer's and other neurological conditions.
The Gladstone Infectious Disease Institute is broadening its research scope to tackle pressing health challenges beyond viruses. Scientists are discovering new ways to combat antibiotic-resistant bacteria and explore the interconnectedness of viruses and bacteria in causing chronic diseases.
Scientists at Gladstone Institutes discovered that overactivated dopamine neurons degenerate and die, leading to Parkinson's disease symptoms. Chronic activation of these cells can cause cell death, potentially triggered by genetic, environmental toxins, and compensating for lost neurons.
A study from Gladstone Institutes reveals that genetic risk factors for neurological diseases like Alzheimer’s and stroke exert their effects in blood vessels and immune cells. The research provides a detailed look at how genetic variants function across all major brain cell types, revealing distinct mechanisms for different diseases.
A new computational tool, CellWalker2, integrates different forms of biological data to reveal relationships between cell types. The tool identifies precise cell types and assigns broader labels based on hierarchical relationships, enabling scientists to compare cell types across experiments and species.
Zhaoqi Yan, a scientist at Gladstone Institutes, has been awarded the 2025 Warren Alpert Distinguished Scholar fellowship to investigate the molecular mechanisms behind blood-brain barrier dysfunction. His research aims to develop new therapeutic strategies for neurological diseases, including Alzheimer's.
Scientists discovered that certain bacteria can trigger their own cell death as a defense mechanism against viruses, utilizing components of the bacterial immune system. This phenomenon could be exploited to develop novel antimicrobial treatments and fight drug-resistant infections.
Andrew Yang will study proteins crossing the blood-brain barrier and their role in brain health, seeking new therapies for neurological diseases. The 2025 Searle Scholar's research could lead to a better understanding of age-related disorders.
A novel computational tool called CHOIR can accurately distinguish cells of different identities in complex biological samples, helping scientists pinpoint the discordant cells that disrupt harmony and promote disease. CHOIR overcomes limitations of existing tools by avoiding personal bias and introducing unbiased statistical frameworks.
Researchers at Gladstone Institutes developed a drug called HypoxyStat that mimics the effects of breathing low oxygen, extending lifespan by over three times in mice with Leigh Syndrome. The drug reversed brain damage, muscle weakness, and other symptoms of the disease, even when given late in life.
Scientists from Gladstone Institutes developed a new method called RASAM, which made a surprising discovery that large sections of newly formed DNA are hyperaccessible for many hours. This finding holds important implications for basic understanding of biology and the development of new medicines.
Researchers at Gladstone Institutes have shown that modified stem cells can improve brain activity after a stroke, even when administered one month later. The treatment reversed brain hyperexcitability and restored balance in neural networks, leading to long-lasting effects on brain function and repair.
Researchers at Gladstone Institutes and UCSF identified MED12 as a crucial switch that regulates T cell rest and activation. The study found that MED12 promotes rest in resting cells and activation in activated cells, and its removal led to blurred lines between rest and activation.
A machine learning tool has identified subtle behavioral changes in mice with early stages of Alzheimer's disease. The tool, called VAME, analyzed video footage and pinpointed disorganized behavior that may be associated with memory and attention deficits. Researchers hope to adapt this technology for human diagnosis and treatment.
Deepak Srivastava, MD, is recognized for his organizational leadership and scientific innovation at Gladstone Institutes. His lab has made significant discoveries in treating heart disease and repairing heart damage.
Researchers at Gladstone Institutes created a new mouse model to study Alzheimer's disease, transplanting human neurons into mouse brains. The study found that immune cells called microglia cause harmful inflammation and clumps of misfolded proteins when interacting with the APOE4 protein.
Gladstone researchers have identified a complex molecular connection between immune cells and fibroblasts that contributes to fibrosis in the heart, which may lead to new treatments for heart disease and other fibrotic conditions.
Scientists have identified a key driver of brain inflammation in neurological diseases, proposing a new treatment approach by neutralizing fibrin. This protein, involved in blood coagulation, triggers neurologic diseases by hijacking the immune system, resulting in damaged neurons.
Scientists at Gladstone Institutes have discovered a diverse range of retrons that can edit DNA more quickly and efficiently than current methods, including CRISPR. The new retrons showed high editing rates in both bacteria and human cells, with some performing 10-fold better than the gold-standard retron.
Researchers at Gladstone Institutes have developed a streamlined way to engineer bacteriophages, viruses that naturally kill bacteria. The new technique uses retrons to edit phage genomes, allowing for the creation of numerous variants and paving the way for alternative treatments for antibiotic-resistant infections.
Researchers discovered that the blood coagulation protein fibrin causes unusual clotting and inflammation in COVID-19, suppressing the body's ability to clear the virus. A promising therapeutic strategy has been identified, targeting fibrin to combat these deleterious effects.
Researchers at Gladstone Institutes used computational tools to predict the 3D shapes of nearly 70,000 viral proteins, uncovering a powerful way viruses evade host immune defenses. The study found that bacteria-infecting and animal viruses share an ancient mechanism to evade immune systems.