Harvard University - Cambridge, MA, USA since Oct 2008
Postdoctoral Fellow
Novartis - Basel Area, Switzerland Sep 2000 - Aug 2001
Research Associate
Education:
Imperial College London 2003 - 2008
PhD in Molecular Endocrinology, Malcolm G Parker Lab, Institute of Reproductive and Developmental Biology
Imperial College London 2002 - 2003
MSc in Human Reproductive Biology, Department of Reproductive Science
University of Surrey 1998 - 2002
BSc in Molecular Biology
Skills:
Stem Cells Molecular Biology Drug Discovery Research Assay Development Toxicology Science Neurodegeneration
Languages:
Greek English
Awards:
New York Stem Cell Foundation (NYSCF) Druckenmiller Fellowship NYSCF European Molecular Biology Organization (EMBO) Long-term Fellowship EMBO
Imperial College London 2003 - 2007
PhD, Molecular Endocrinology
Imperial College London 2002 - 2003
MSc, Reproductive Biology
University of Surrey 1998 - 2002
BSc, Molecular Biology
Us Patents
Functional Genomics Assay For Characterizing Pluripotent Stem Cell Utility And Safety
Kevin C. Eggan - Boston MA, US Alexander Meissner - Cambridge MA, US Christoph Bock - Vienna, AT Evangelos Kiskinis - Boston MA, US Griet Annie Frans Verstappen - Moltsel, BE
Assignee:
PRESIDENT AND FELLOWS OF HARVARD COLLEGE - Cambridge MA
International Classification:
C12N 15/10
US Classification:
506 9, 506 16
Abstract:
The present invention generally relates set of reference data or “scorecard” for a pluripotent stem cell, and methods, systems and kits to generate a scorecard for predicting the functionality and suitability of a pluripotent stem cell line for a desired use. In some aspects, a method for generating a scorecard comprises using at least 2 stem cell assays selected from: epigenetic profiling, differentiation assay and gene expression assay to predict the functionality and suitability of a pluripotent stem cell line for a desired use. In some embodiments, the scorecard reference data can be compared with the pluripotent stem cells data to effectively and accurately predict the utility of the pluripotent stem cell for a given application, as well as any to identify specific characteristics of the pluripotent stem cell line to determine their suitability for downstream applications, such as for example, their suitability for therapeutic use, drug screening and toxicity assays, differentiation into a desired cell lineage, and the like.
Dynamics Within Supramolecuar Ikvav Matrices Enhance Functional Maturation Of Human Ipscs-Derived Neurons And Regeneration
- Evanston IL, US Kohei Sato - Yokohama, JP Juan Alberto Ortega Cano - Chicago IL, US Evangelos Kiskinis - Chicago IL, US Samuel I. Stupp - Chicago IL, US
Provided herein are peptide amphiphiles (PAs) comprising a bioactive peptide, nanofibers displaying the bioactive PAs, and methods of use thereof. The disclosed peptide amphiphiles comprise a hydrophobic tail, a structural peptide segment, a charged peptide segment, and a bioactive IKVAV peptide. The disclosed PAs may be used in cell culture methods and in methods of treating central nervous system injury.
The invention generally relates to optical methods for the diagnosis of neuronal condition by converting a cell from a patient into a neuron and optically evaluating action potentials of that cell in vitro. The cell is transformed with an optical reporter and exhibits an optical signature in response to neural stimulation. Using genome-editing, a control cell can be made that is isogenic but—for a known mutation and a control signature obtained from the control cell. Thus, methods of the invention reveal potential neurodegenerative effects of a mutation as manifested in a patient's genetic context. The optical signature of the cell, or the difference between the signature and the control signature, is correlated to a diagnosis of the neurodegenerative disease
The invention generally relates to optical methods for the diagnosis of neuronal condition by converting a cell from a patient into a neuron and optically evaluating action potentials of that cell in vitro. The cell is transformed with an optical reporter and exhibits an optical signature in response to neural stimulation. Using genome-editing, a control cell can be made that is isogenic but-for a known mutation and a control signature obtained from the control cell. Thus, methods of the invention reveal potential neurodegenerative effects of a mutation as manifested in a patient's genetic context. The optical signature of the cell, or the difference between the signature and the control signature, is correlated to a diagnosis of the neurodegenerative disease
The invention generally relates to optical methods for the diagnosis of neuronal condition by converting a cell from a patient into a neuron and optically evaluating action potentials of that cell in vitro. The cell is transformed with an optical reporter and exhibits an optical signature in response to neural stimulation. Using genome-editing, a control cell can be made that is isogenic but-for a known mutation and a control signature obtained from the control cell. Thus, methods of the invention reveal potential neurodegenerative effects of a mutation as manifested in a patient's genetic context. The optical signature of the cell, or the difference between the signature and the control signature, is correlated to a diagnosis of the neurodegenerative disease
- Cambridge MA, US Adam Cohen - Cambridge MA, US Joel Kralj - Somerville MA, US Evangelos Kiskinis - Cambridge MA, US
International Classification:
G01N 33/487 G01N 33/68 G01N 21/64 G01N 33/50
Abstract:
The invention generally relates to optical methods for the diagnosis of neuronal condition by converting a cell from a patient into a neuron and optically evaluating action potentials of that cell in vitro. The cell is transformed with an optical reporter and exhibits an optical signature in response to neural stimulation. Using genome-editing, a control cell can be made that is isogenic but-for a known mutation and a control signature obtained from the control cell. Thus, methods of the invention reveal potential neurodegenerative effects of a mutation as manifested in a patient's genetic context. The optical signature of the cell, or the difference between the signature and the control signature, is correlated to a diagnosis of the neurodegenerative disease
Analysis Of Compounds For Pain And Sensory Disorders
- Cambridge MA, US Adam Cohen - Cambridge MA, US Joel Kralj - Somerville MA, US Evangelos Kiskinis - Cambridge MA, US
Assignee:
Q-STATE BIOSCIENCES, INC. - Cambridge MA
International Classification:
G01N 33/50 G01N 33/68
Abstract:
The invention generally relates to optical methods for characterizing the effects of compounds on pain and other sensory phenomena. The effect of compounds on pain and other sensory phenomena may be characterized using dorsal root ganglion (DRG) neurons or sensory neurons expressing optogenetic proteins that allow neural activity to be stimulated and detected optically. The invention provides cell-based optical assays for studying the molecular and cellular bases of pain and sensory phenomena and as platforms to screen and validate drugs, e.g., for pre-clinical trials.
- Cambridge MA, US Adam Cohen - Cambridge MA, US Joel Kralj - Somerville MA, US Evangelos Kiskinis - Cambridge MA, US
International Classification:
G01N 33/50
Abstract:
The invention generally relates to optical methods for the diagnosis of neuronal condition by converting a cell from a patient into a neuron and optically evaluating action potentials of that cell in vitro. The cell is transformed with an optical reporter and exhibits an optical signature in response to neural stimulation. Using genome-editing, a control cell can be made that is isogenic but-for a known mutation and a control signature obtained from the control cell. Thus, methods of the invention reveal potential neurodegenerative effects of a mutation as manifested in a patient's genetic context. The optical signature of the cell, or the difference between the signature and the control signature, is correlated to a diagnosis of the neurodegenerative disease
Youtube
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