Articles tagged with Molecular Genetics
The partnership aims to develop genomic tools addressing large-scale problems in health and the environment, combining research strengths across UC San Diego's departments. The collaboration will accelerate discovery and drive real-world impact, leveraging CRISPR technology and microbiome-editing tools.
Research found that Parkinson's disease triggers shared 'stress responses' but also differs between men and women at the cellular level, particularly in how glial cells manage energy and protect nerve connections. This discovery may lead to more personalized treatments for patients.
A new gene circuit technology has enabled cells to autonomously generate programmed responses, processing multiple molecular signals at once. The RATEX platform allows cells to compute and respond to various types of molecular information.
Researchers have found evidence of ancient human DNA on cave walls, even where bones or artifacts are absent. The discovery opens up new possibilities for studying prehistoric human behavior without disturbing archaeological deposits.
Scientists have identified a unique chimeric RNA called UBA1-CDK16 that plays important roles in women's blood cell development and disease severity. The findings suggest the chimeric RNA may serve as a natural brake to protect women from excessive autoimmune activity.
Researchers developed a novel gene therapy platform that successfully restored muscle function in preclinical models of Duchenne muscular dystrophy by delivering full-length mRNA of the DMD gene via engineered extracellular vesicles. The treatment showed improved muscle strength, endurance, and function without serious side effects.
Researchers describe a novel disorder caused by biallelic loss-of-function variants in the TMEM63B gene, resulting in severe lung disease. The disorder presents with early onset respiratory distress, lung abnormalities, and developmental delay but no epilepsy.
Researchers have uncovered the structural basis of Argonaute assembly, revealing that chaperone proteins hold it in an open conformation allowing miRNA loading. The study also found that RNA plays a key role in guiding Argonaute folding.
A new study has analyzed over 2100 samples to build a genetic dataset containing more than 500 million unique genes, revealing the immense potential of deep-sea biodiversity for developing new technologies. The research found that despite vast genetic diversity, deep-sea organisms rely on stable, core designs to survive extreme conditi...
Researchers identified a promising new strategy for reversing autism-related brain deficits by targeting a specific glycine transporter. The therapy restored NMDA receptor function in mouse models and human brain organoids, improving behavioral abnormalities such as social interaction and repetitive behaviors.
Researchers found a unique protein called YAF9B that helps plants protect their stem cells from DNA damage. This discovery sheds light on how plants coordinate DNA repair processes, which could improve future crops by guiding more precise genome editing.
A recent study published in Development reveals that the UTY gene on the human Y chromosome still contributes to transcriptional regulation during early development. Despite its low expression and reduced enzymatic activity, UTY co-occupies active regulatory elements with its X chromosome homolog UTX.
A new AI tool, HERRO, corrects errors in nanopore sequencing reads to produce high-quality complete genome assemblies. This innovation enables researchers to build more accurate and complete genome maps with a simpler workflow, unlocking potential for precision medicine advancements.
Research on deer mice reveals a unique gene family, Phf8y, that acquired from the X chromosome and duplicated itself on the Y chromosome. This discovery provides insights into how the Y chromosome defends against decay and maintains fertility in males.
Philip Tai, PhD, received a $1.6 million grant to investigate AAV vector mechanisms using high-resolution DNA sequencing technology. His findings could lead to new vector designs that improve gene therapy treatments' safety. The goal is to remove mutations that cause cancer-causing integration into host cells.
Researchers developed a viable homozygous CHD8 mouse model, showing that stronger mutations can dramatically alter male–female autism patterns. The study revealed pronounced autism-related abnormalities in both sexes with severe mutations.
A recent study by University of California - Davis researchers has identified a protein called DAXX that guides the packing and folding of DNA in sperm cells. This discovery could improve treatments for couples struggling with male infertility, as well as help understand how environmental factors impact offspring health.
Recent advancements in animal models, organoid models, and bioengineered organoids have provided new tools for studying primary sclerosing cholangitis. These models replicate the effects of bile retention and inflammation, enabling studies of disease mechanisms, drug screening, and preclinical evaluation.
Researchers developed RegVelo, an AI framework that models cellular dynamics and gene regulation to predict cellular fate decisions. The model traces developmental trajectories and simulates regulatory interactions, providing insights into hidden drivers of development and potential therapeutic targets.
The study reveals that human TERT is only compatible with non-human primate cells, while other species show limited or no telomere lengthening. This highlights the importance of using suitable preclinical models for telomerase-based therapies.
Dr. Dilek Colak's journey began with a childhood observation of a boy with mental illness, which inspired her to pursue a career in neuroscience. Her current work focuses on understanding autism and schizophrenia through the study of human brain organoids.
Researchers at UT MD Anderson Cancer Center have made significant advancements in targeted therapy treatments for advanced lung cancer and early-stage classical Hodgkin lymphoma. The studies showcase high response rates with novel combination therapies and a new understanding of how an enzyme affects infertility and cancer progression.
A study published in Cell Reports Medicine found that inhibiting RNase H2 can cause significant damage to DNA and activate the innate immune system to produce signals that attract T cells to attack the tumor. This approach could lead to improved patient outcomes for patients with triple-negative breast cancer.
Researchers at MIT have found that chromatin can exist in two different categories: constrained and free, which affects its interaction with genes and DNA regulatory sequences. This study provides insight into gene regulation and DNA repair processes.
Researchers developed a new framework, 'Mollifier Layers,' to tackle challenging inverse PDEs. This advance could benefit fields such as genetics and weather forecasting by inferring hidden forces that produce observable patterns.
Researchers discovered a small molecule, UNI418, that destabilizes key DNA repair proteins, making drug-resistant cancer cells vulnerable to PARP inhibitor therapy. This approach restores tumor sensitivity and improves treatment outcomes.
A new study from Virginia Tech found that task switching in transplant surgeries increases one-year mortality rates by 14.8 percent, highlighting the need for efficient scheduling and workflow changes to minimize risks. The research also suggests that recovery time and surgeon experience level can mitigate these effects.
A new study reveals that bacteria can actively limit the spread of antibiotic resistance genes by deploying molecular gatekeepers called YokF. This mechanism blocks the transfer of beneficial genes, giving microbes a competitive advantage in dense microbial communities.
Scientists discover that tRNA gene mutations can alter the reading of the genetic code, leading to increased protein synthesis errors. This phenomenon is linked to aging and cellular decline, with potential implications for neurodegenerative diseases like Alzheimer's.
Aging bone repair declines due to mitochondrial DNA structures disrupting stem cell function, reducing energy production and causing cellular senescence pathways. Targeting these structures may restore balance between bone and cartilage formation during healing.
The Phase I MYTHIC trial demonstrated a strong synergy between zedoresertib and lunresertib, showing durable regressions and consistent tumor shrinkage in patients with ovarian cancer. The combination achieved an overall disease control rate of 68.5% and a molecular response rate of 47%.
A new study reveals that cancer cells may begin escaping therapy much earlier, triggered by a stress response that drives them into a temporary drug-tolerant state. Researchers identified an early molecular trigger: NF-κB, which acts as a regulator of cellular stress and survival.
Researchers found two strategies used by bacteria to colonize new habitats: acquiring new traits and reducing genome size. This study sheds light on the evolutionary biology of soil microbes, revealing unexpected results about their adaptation to freshwater environments.
Salk Institute researchers have developed a new biological platform for studying mitochondrial DNA in human physiology, adaptation, and therapeutic development. The platform allows scientists to investigate mitochondrial DNA variation in health and disease, enabling therapeutic innovation for mitochondrial disorders.
A research team discovered that a protein complex consisting of SMG1, SMG8, and SMG9 ensures the efficient execution of nonsense-mediated mRNA decay (NMD). The study found that this complex is essential for maintaining the stability of NMD under various conditions.
Research in mice reveals direct gene regulation by alcohol metabolites, with varying effects on brain regions and exposure durations. Short-term exposure influences more genes and epigenetic programs compared to lengthy exposure.
Researchers tracked genetic changes in Arabidopsis thaliana across 30 sites over five years, finding most populations adapted to local environmental conditions. However, some populations went extinct due to genetic drift, highlighting the importance of preserving biodiversity.
Researchers at Kyoto University identified DHX29 as a central regulator of codon-dependent gene expression. They found that DHX29 preferentially interacts with ribosomes decoding non-optimal codons and recruits a protein complex to selectively repress mRNAs enriched in these codons.
A comprehensive study using integrated genomic approach resolves Hylodesmum's taxonomic uncertainties and EA-ENA disjunct distribution. The study confirms Verdesmum as nested within Hylodesmum and reveals a complex bidirectional dispersal pattern likely facilitated by mammal-mediated epizoochory.
Researchers have identified a distinct gene expression program associated with neurotransmission in the living human brain. The study combines molecular data with real-time physiological recordings, revealing a coordinated set of genes whose activity tracks with neuronal signaling.
Recent discoveries have shed light on gene expression control in tumor growth, revealing the critical role of epigenetic marks and genomic imprinting. The findings have significant implications for cancer treatment, as they suggest that disrupting the tumor's access to neural signaling may halt its growth.
Salk Institute researchers identified Med14, a protein connected to GLP-1 drug effects on pancreatic beta cells, leading to improved viability, insulin production, and stress resistance. The study suggests a potential molecular link between GLP-1 drugs and broader benefits, including type 2 diabetes susceptibility genes.
New research finds that chromosomal inversions help Atlantic silversides maintain genetic differences suited to cold and warm waters, influencing growth rates and vertebrae numbers. This discovery suggests a fundamental role for chromosomal inversions in local adaptation and may shape population responses to ocean warming.
A new study from Memorial Sloan Kettering Cancer Center reveals that analyzing a patient's genomic profile can predict breast cancer resistance to CDK4/6 inhibitors. The researchers found that inheriting a BRCA2 mutation and other genetic alterations increase the likelihood of resistance. This discovery provides a new strategy for pred...
Researchers at the University of Basel have developed a gene therapy that can potentially treat LAMA2-related muscular dystrophy, a rare and fatal muscle disease in children. The therapy has been shown to stabilize muscles and nerves and halt disease progression in animal models, with a single treatment being sufficient.
Researchers identified nine piRNAs linked to longevity, which could be detected through simple blood tests. The study suggests that these molecules may help predict survival and guide therapeutic targets for older adults.
The project aims to test whether reducing chronic inflammation triggered by DNA can help older adults stay healthier. The research focuses on retrotransposons, which become increasingly active with age, leading to tissue decline.
Engineers have refined a technology to edit individual genetic base pairs, reducing unintended edits and increasing safety for potential treatments. The new base editors could lead to better outcomes for some cystic fibrosis patients and more accurate models for drug testing.
Researchers have identified three previously unknown genotypes of Helicobacter bacteria in pygmy sperm whales stranded along the southeastern US coast. The discovery raises new questions about microbial pathogens on ocean health and their impact on vulnerable species.
Researchers identified 11 genetic regions influencing gut bacteria and roles they play, including connections to gluten intolerance, haemorrhoids, and cardiovascular diseases. The study analyzed genetic data from over 28,000 individuals, providing insights into the complex relationship between genes and gut microbiome.
A new strain of yellow rust pathogen has broken down a key resistance gene, leaving over 50% of the UK's wheat acreage vulnerable. Researchers are racing against time to find new resistance genes and breed them into modern wheat varieties.
University of California San Diego scientists have solved how the circadian clocks within microscopic bacteria precisely control gene expression during the 24-hour cycle. The researchers identified six proteins needed to rebuild this clock, generating a simplified cyanobacterial system with a clock that only needs.
Research team led by biologist Joost Woltering discovers how ancient genes from fish midline fins were 'redeployed' to establish the dorsal-ventral axis in human limbs, allowing for complex limb differentiation and adaptation for life on land.
A new study suggests blocking key protein p300 can create novel form of cellular stress in cancer cells, re-sensitizing chemo-resistant tumors. Cells produce proteins even with damaged DNA, leading to toxic buildup and stress inside the cell's internal quality-control system.
A Goethe University-led study reveals how mutations in the SPRTN enzyme cause chronic inflammation and premature ageing. The research team found that damaged DNA in the cell nucleus leaks into the cytoplasm, activating defense mechanisms and leading to chronic inflammation.
Bird retinas operate under chronic oxygen deprivation, relying on anaerobic energy production. The pecten oculi serves as a metabolic gateway, delivering sugar and removing waste products.