Resume

• 2014

  Masters in Quantitative Finance

  Brownian motion-stochastic calculus

  numerical and estimation methods/Monte Carlo

  time series

  econometrics

  derivative pricing

  asset pricing

  risk management

  principles of finance/financial markets/banks

  programming: Matlab

  Mathematica

  C++.

  Financial Engineering.

  Solvay Brussels School

• 2012

  Vrije Universiteit Brussel

  Research in theoretical physics

  string theory applications in Quantum Chromodynamics (QCD)/time dependent geometries/confining theories that thermalize

  Heavy Ion Collisions (CERN)

  Quantum Hall Effect

  holographic renormalization.\n\nPublished over than 20 papers in peer reviewed journals. Details exist here \nhttp://inspirehep.net/search?ln=en&p=taliotis&of=hb&action_search=Search&sf=earliestdate&so=d

  Vrije Universiteit Brussel

  JPMorgan Chase & Co.

  London

  United Kingdom

  Quantitative researcher

  Associate

• 2011

  University of Crete

  JPMorgan Chase & Co.

  IKOS CIF Limited

  VAR Strategies BVBA

  Brussels

  Crete

  Research in theoretical physics

  string theory applications in QCD and condensed matter/strongly coupled gauge theories.

  Postdoctoral Research Fellow in Theoretical Physics

  University of Crete

  Brussels Area

  Belgium

  Swap options from stochastic volatility models (C++ with Python interphase).\nNumerical solutions of PDEs.\n\nhttp://www.varstrategies.com

  Collaborator

  VAR Strategies BVBA

  Brussels

  Limassol

  Cyprus

  Building trading strategies/systematic/algorithmic trading\nImplementing strategies (python/matlab/Java)/simulation engine Java/backtesting \n\nhttps://www.ikosam.com/Awards

  Researcher

  IKOS CIF Limited

• 2010

  Anastasios

  Taliotis

  The University of Arizona

  Research in theoretical physics

  string theory applications in QCD and condensed matter/strongly coupled gauge theories.

  Postdoctoral Research Fellow in Theoretical Physics

  Tucson

  Arizona Area

  The University of Arizona

• 2009

  American Physical Society (APS Physics)

  Refereeing for the top impact physics journals: Phys. Rev. Lett.

  Phys. Rev. C

  Phys. Rev. D and JHEP.

  Referee

  United States

  American Physical Society (APS Physics)

• 2007

  Master of Science (MSc)

  Real analysis

  topology

  abstract algebra/Galois Theory

  differential geometry.

  Mathematics

  The Ohio State University

  thesis title: Black Hole collisions in General Relativity.

• 2004

  English

  Greek

  Doctor of Philosophy (PhD)

  Thesis Advisor: Yuri Kovchegov (Sackler prize winer

  2006; http://en.wikipedia.org/wiki/Sackler_Prize).

  Theoretical Physics

  The Ohio State University

  thesis title: Geometrical Methods in Heavy Ion Collisions.

  Master of Science (MSc)

  Quantum mechanics

  electrodynamics

  statistical mechanics

  quantum field theory

  particle physics/standard model/quantum cromodynamics

  group theory

  supersymmetry

  general theory of relativity

  string theory.

  Physics

  The Ohio State University

  Thesis title: Quantum Chromodynamics

  a small-x approach

  Launching into Machine Learning

  954QUM6EQ3SK

  Coursera Course Certificates

  Feature Engineering

  3VE4Z8K8XNU7

  Coursera Course Certificates

  Improving Deep Neural Networks: Hyperparameter tuning

  Regularization and Optimization

  FGH8Z7ZWALXH

  Coursera Course Certificates

  Structuring Machine Learning Projects

  HU3HHRTMNRUC

  Coursera Course Certificates

  Sequence Models

  VHUM8ASH3KN8

  Coursera Course Certificates

  Natural Language Processing in TensorFlow

  5S5UAX9TDKX5

  Coursera

  Zero to Deep Learning™ with Python and Keras

  Udemy

  Deep Learning Specialization

  W87GCUL3QY4P

  Coursera Course Certificates

  How Google does Machine Learning

  X4KCNRM294YE

  Coursera Course Certificates

  Sequences

  Time Series and Prediction

  YDR6M559HL5A

  Coursera

  Convolutional Neural Networks

  ZYXU3Z7U8U3N

  Coursera Course Certificates

  Complete Tensorflow 2 and Keras Deep Learning Bootcamp

  Udemy

  TensorFlow in Practice

  HSTF7Q3UYCQ6

  Coursera

  Intro to TensorFlow

  RAGMUVKN5ZJQ

  Coursera Course Certificates

  Complete Guide to TensorFlow for Deep Learning with Python

  Udemy

  Convolutional Neural Networks in TensorFlow

  YDVME46REQTN

  Coursera

  Introduction to TensorFlow for Artificial Intelligence

  Machine Learning

  and Deep Learning

  RZ9Y2VJCM6V3

  Coursera

  Machine Learning

  Coursera Course Certificates-Stanford University

  Neural Networks and Deep Learning

  5S5UAX9TDKX5

  Coursera Course Certificates

• 1998

  Lykeio Dasupoli

  Bachelor of Science (BSc)

  Physics

  Aristoteleion Panepistimion Thessalonikis

• Update physics teachers in high schools about the big open problems and the recent development of theoretical physics

  Cypriot Association for Physicists

  Educator

  Statistics

  Brownian Motion

  Python

  Stochastic Differential Equations

  Mathematica

  Valuation

  Matlab

  Physics

  C++

  Risk Management

  Research

  Fixed Income

  Econometrics

  Numerical Analysis

  Stochastic Calculus

  Microsoft Office

  Deep Learning

  Derivatives

  LaTeX

  Machine Learning

  List and publications details exists here

  List and publications details exists here

  Holographic Hall conductivities from dyonic backgrounds

  Jonathan Lindgren

  Ioannis Papadimitriou

  Joris Vanhoof

  Our most recent paper:\n\n We compute the renomalized 1-point and 2-point functions and the AC transport coefficients and show the Ward identities in generic Axion-dilaton-Maxwell-Einstein theories with Chern Simon terms

  a charge density and a magnetic field. We built families of exact solutions by developing a first order fake supergravity formalism for dyonic renormalization group flows in four dimensions. Providing the exact prescription in computing 1-point and 2-point functions in generic magnetic backgrounds that may include confinement

  this paper serves as a manual that may be directly used in botom-up applications of AdS/QCD and AdS/CMT.

  Holographic Hall conductivities from dyonic backgrounds