Tau protein accumulation is a common feature of neurodegenerative diseases like Alzheimer’s disease (AD). A publication from a group of researchers, including FunGen-AD researchers Lindsey Goodman, Hugo Bellen, and Josh Shulman from Baylor College of Medicine and the Duncan Neurological Research Institute of Texas Children’s Hospital, provides new evidence that the tau protein has protective […]
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FunGen-AD-funded research reveals cellular pathways in Alzheimer’s development and brain aging
A research team including FunGen-AD researcher Philip De Jager used data from 1.6 million brain cells to characterize the cellular changes associated with Alzheimer’s disease (AD). The analysis used over 400 brains from the Religious Orders Study and the Memory & Aging Project based at Rush University in Chicago. These brains were from healthy donors […]
Read moreFunGen-AD-funded research identifies genetic variants that raise Alzheimer’s risk for Black individuals
Common variants in the ABCA7 gene are known to increase risk for developing Alzheimer’s disease (AD), particularly in Black people. Interestingly, ABCA7 variants are more strongly linked to AD in Black people than variants in the well-known APOE4 gene. FunGen-AD-funded researchers Badri Vardarajan, Caghan Kizil, and Richard Mayeux were part of an international research team […]
Read moreFunGen-AD-funded research identifies molecular mechanism underlying blood-brain-barrier dysfunction in Alzheimer’s disease
Blood-brain-barrier (BBB) dysfunction is a key feature of Alzheimer’s disease (AD), but the underlying molecular changes associated with this dysfunction are not well understood. A group of researchers, including FunGen-AD researchers Caghan Kizil, Richard Mayeux, and Badri Vardarajan from Columbia University, focused on pericytes and astrocytes of the gliovascular unit (GVU), cells that support the […]
Read moreFunGen-AD-supported research identifies modulators of the Alzheimer’s disease biomarker sTREM2
Previous research has shown that levels of the protein sTREM2 in cerebrospinal fluid (CSF) decrease in the early stages of Alzheimer’s disease (AD) compared with cognitively normal individuals; however, these sTREM2 levels are higher than normal in late-stage AD. The role of these fluctuations in AD progression is unknown. An international group of researchers, led […]
Read moreFunGen-AD-funded research identifies rare genetic variation in FN1 that protects against APOEε4 in Alzheimer’s disease
Researchers at Columbia University Vagelos College of Physicians and Surgeons, including FunGen-AD researchers Badri Vardarajan and Richard Mayeux, have identified a previously unknown genetic variant that can reduce an individual’s odds of developing Alzheimer’s disease (AD).
Read moreFunGen-AD research identifies cell subtype-specific effects of genetic variation in the Alzheimer’s disease brain
International researchers, including FunGen-AD researcher Philip De Jager, teamed up to explore the effects of genetic variants on expression in specific cell types and subtypes in the brains of older individuals.
Read moreFunGen-AD-funded research identifies immune regulators in Alzheimer’s
FunGen-AD researcher Alison Goate was part of a team of researchers at the Icahn School of Medicine at Mount Sinai that used genetic and genomic tools to uncover new information about regulators of the macrophage transcriptomic state. These discoveries could provide therapeutic targets for modulating macrophage function in Alzheimer’s and other diseases.
Read moreFunGen AD-supported stem cell research suggests new alternative treatment for Alzheimer’s disease
Genetic studies have linked variations of the SORL1 gene to both early- and late-stage Alzheimer’s disease (AD), but the exact link between damaged SORL1 genes and AD was not previously known. To further understand the role of SORL1 in AD, a team of researchers—including FunGen-AD grantee Philip L. De Jager—analyzed stem cells from patients with AD.
Read moreNew optical techniques shed light on protein aggregation
FunGen-AD grantee Peter St George-Hyslop was part of a collaboration among researchers from the University of Sydney, University of Cambridge, Harvard University, and Columbia University that developed new optical methods to observe development of pathological protein aggregates in cells.
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