cv

Basics

Name Giovanni Dispoto
Label PhD Student
Email {name} DOT {surname} (AT) polimi DOT it
Summary PhD Student involved in Reinforcement Learning research applied to financial trading

Education

  • 2023.11 - Present

    Milano, Italy

    PhD
    Politecnico di Milano
    Reinforcement Learning for Financial Trading
    • Algorithimic Trading
    • Reinforcement Learning
    • Machine Learning
  • 2020.09 - 2023.05

    Milano, Italy

    MSc in Computer Science and Engineering
    Politecnico di Milano
    Reinforcement Learning for Financial Trading
    • Machine Learning
    • Reinforcement Learning
    • Applied AI in Biomedicine
    • Artificial Neural Networks and Deep Learning
    • Foundation of Operations Research

Skills

Artificial Intelligence
Machine Learning
Reinforcement Learning
Tech
Python
Java
C
Docker
Swift/SwiftUI

Languages

Italian
Native speaker
English
Upper Intermediate

Interests

Artificial Intelligence
Machine Learning
Reinforcement Learning
Reinforcement Learning for Trading and Market Making
Deep Learning

Projects

  • 2021.02 - 2021.09
    Performance Benchmarking of Deep Learning Applications
    Research Project. Supervisors: Prof. Danilo Ardagna, Federica Filippini
    • This framework is part of the AI-SPRINT Project funded by the European Union Horizon 2020 research and innovation programme
    • Adaptation of the tf-slim by Google on Tensorflow 2
    • a-GPUBench allows training a model on a target machine (e.g.a Server or AWS service) remotely
    • The Architecture, the hyperparameters and the dataset are specified using an XML file
  • 2021.12 - 2022.03
    Premature Ventricular Complexes (PVCs) and Premature Atrial Complexes (PACs) detector using an ECG-based Deep Learning approach
    Course Teamwork
    • 1-D Convolutional Neural Network (1D-CNN) that classifies a beat as Normal Sinusoid Beat (N),Premature Ventricular Complexes (S) and Premature Atrial Complexes (V) relying on the ECG signal
    • The starting dataset was composed by about 92% of N, 4.5% of V and 3.5% of S samples
    • Our model reached 95% of accuracy on N, 83% on V and 76% on S on a separated test set with unseed patients
    • We applied XAI techniques as LIME and GradCam to cross-check that the model was learning meaningful features as R-R peak distance.