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Topic: Rett syndrome

Seminar
5 seminars

In Developmental Neuroscience and Neuroscience

Seminar · Neuroscience

Modeling Blood-Brain Barrier Integrity and Hemodynamics in Autism Spectrum Disorder with an iPSC-Derived Microphysiological System

Tatsuya Osaki · Mriganka Sur Laboratory, Picower Institute for Learning and Memory, Massachusetts Institute of Technology

Fri, Oct 16, 2026 · 16:00 UTC

Tatsuya Osaki examines vascular contributions to autism spectrum disorder, focusing on blood–brain barrier integrity and cerebral blood-flow dynamics during early development. Rett syndrome provides a starting point: MeCP2 mutations impair endothelial function, suggesting that vascular cells themselves contribute to disease mechanisms. A three-dimensional microphysiological model built from human induced pluripotent stem cells recreates blood–brain barrier structure and function. Patient-derived endothelial cells form perfusable microvascular networks but show impaired barrier function, a find

Seminar · Genetic Engineering

Rett syndrome, MECP2 and therapeutic strategies

Rudolf Jaenisch · Whitehead Institute for Biomedical Research and Department of Biology, MIT, Cambridge, USA

Wed, Dec 11, 2024 · 12:15 UTC

The development of the iPS cell technology has revolutionized our ability to study development and diseases in defined in vitro cell culture systems. The talk will focus on Rett Syndrome and discuss two topics: (i) the use of gene editing as an approach to therapy and (ii) the role of MECP2 in gene expression (i) The mutation of the X-linked MECP2 gene is causative for the disease. In a female patient, every cell has a wt copy that is, however, in 50% of the cells located on the inactive X chromosome. We have used epigenetic gene editing tools to activate the wt MECP2 allele on the inactive X

Seminar · Neuroscience

ALBA webinar series - Breaking down the ivory tower: Ep. 4 Maria José Diógenes

Maria José Diógenes · iMM - ULisboa, PT

Mon, Dec 4, 2023 · 14:00 UTC

With this webinar series, the ALBA Disability & Accessibility Working Group aims to bring down the ivory tower of ableism among the brain research community, one extraordinary neuroscientist at a time. These webinars give a platform to scientists with disabilities across the globe and neuroscience disciplines, while reflecting on how to promote inclusive working environments and accessibility to research. For this 4th episode, Dr. Maria José Diógenes (iMM - ULisboa, PT) will talk about how her personal story changed her professional life: from the pharmacy to the laboratory bench and from agei

Seminar · Neuroscience

Networking—the key to success… especially in the brain

Alexander Dunn · University of Cambridge, DAMTP

Wed, Nov 17, 2021 · 16:00 UTC

In our everyday lives, we form connections and build up social networks that allow us to function successfully as individuals and as a society. Our social networks tend to include well-connected individuals who link us to other groups of people that we might otherwise have limited access to. In addition, we are more likely to befriend individuals who a) live nearby and b) have mutual friends. Interestingly, neurons tend to do the same…until development is perturbed. Just like social networks, neuronal networks require highly connected hubs to elicit efficient communication at minimal cost (you

Seminar · Developmental Neuroscience

Using Human Stem Cells to Uncover Genetic Epilepsy Mechanisms

Jack Parent · University of Michigan Medical School.

Wed, Jul 21, 2021 · 16:00 UTC

Reprogramming somatic cells to a pluripotent state via the induced pluripotent stem cell (iPSC) method offers an increasingly utilized approach for neurological disease modeling with patient-derived cells. Several groups, including ours, have applied the iPSC approach to model severe genetic developmental and epileptic encephalopathies (DEEs) with patient-derived cells. Although most studies to date involve 2-D cultures of patient-derived neurons, brain organoids are increasingly being employed to explore genetic DEE mechanisms. We are applying this approach to understand PMSE (Polyhydramnios,