Autism spectrum disorder (ASD) is a heterogenous disease affecting approximately 1 in 54 children in North America. The causes of this neurodevelopmental disease remain poorly understood and its heterogenous nature makes it difficult to study. Although a lot of progress was made in the recent years, there is still a need to better understand what the key drivers of the pathology are. Anthony Flamier uses his expertise in stem cell technologies, CRISPR, and neural development, to develop knowledge on key drivers of ASD.
Career Summary
From 2008 to 2011, Anthony Flamier participated in the creation of the first stem cell unit of the Biopharma Sanofi, where he was in charge of finding the best pluripotency indicators by transcriptomic and epigenetic profiling. In 2011, he started to generate new hiPSC lines from patients with familial hypercholesterolemia. He worked on developing new protocols to differentiate hiPSC into functional hepatocytes to better model the disease in vitro. Then, using the aggregation of hESC and hiPSC, he conducted an assessment of the potential teratogenicity of molecules.
During his PhD in molecular biology at the University of Montreal under the supervision of Dr. Gilbert Bernier, Anthony Flamier studied the role of a polycomb protein, BMI1, on the pathogenicity of Alzheimer’s disease (AD). His aim was to model AD pathology in vitro using iPSC-derived cortical neurons and demonstrate the role of BMI1 in the initiation and progression of the disease.
In 2018, he realized a Postdoctoal Fellowship in Dr. Rudolf Jaenisch's research laboratory at the Whitehead institute of MIT in order to learn new techniques for studying neurodegenerative and neurodevelopmental diseases. Since then, he has developed new skills in gene editing, epigenetic editing, robotic, bioinformatics, and single cell sequencing. He also took part in the realization of three research projects: (1) Rescue of Fragile X-linked syndromes using epigenetic editing in neurons from patient iPSC lines; (2) Detection of cell-type specific differentially methylated genes in AD brains and hiPSC-derived neurons from the same individual; (3) Impact of SARS-CoV-2 infection on hiPSC- derived sensory neurons.
For the past 8 years, Anthony Flamier has continuously worked on developing new disease modeling systems (co-culture, 3D cultures, assembloids, organoids, etc.) in order to better recapitulate pathological features in vitro and address key questions.
Research Laboratory
NeuroStem Lab