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A four-year PhD program in Machine Learning. I am interested in 3D Deep Learning, robotics perception, and physics simulation.
Master thesis researching Q-Learning and Deep Reinforcement Learning for Importance
Sampling in Physically-based rendering.
Supervisor: Prof. Elmar Eisemann - TU Delft
Supervisor: Prof. Decebal Mocanu - TU Eindhoven
A two-year Master double degree programme, coordinated by the European Institute of
Innovation and Technology (EIT). Major in Data Science, and Minor in Innovation and
Entrepreneurship.
Topics covered:
• Machine Learning algorithms and Deep Learning (Computer Vision, NLP)
• Big Data Ecosystem: creation of Big Data application with Spark (Scala), Flink,
HBase
• Advanced statistics with R
• Innovation and Enterpreneurship, focused on start-ups development.
Bridge program on Computer Science and Business IT. Among the courses I took, I followed joint courses with Delft University and Standford University.
Thesis Project: "Mechanical design and virtual prototyping for thermal
turbomachinery"
• Cost accounting and decision making, economic criteria for
the dimensioning of industrial plants and facilities, layout planning
• C++ and
Matlab programming
• Operations Research and linear planning for optimization
• Design methods and CAD Softwares (Autodesk Inventor, SolidWorks, SolidEdge,
PTC Creo)
I did two different Research Internships at Google DeepMind, focusing on 3D Vision and multi-modal learning.
Teaching Assistant for the units:
• Introduction to AI, MSc unit, 2022-2023
• Introduction to AI, BSc unit, 2022-2023
• Introduction to AI, MSc unit, 2021-2022
Focus on researching and applying Machine Learning techniques for autonomous driving:
• Deep Learning for trajectory prediction and decision making
• (Inverse and Deep) Reinforcement Learning for planning and decision making
• Bayesian statistics for uncertainty modelling, Explainable AI and Interpretable AI
Developed Deep Learning algorithms for Image detection in aerospace applications (Python, Tensorflow, Keras).
• Mechanical design and optimization for aerospace systems (drones, Airbus
components)
• Product Management: market analysis for military and civil helicopters, market
research and analysis for unmanned aerial veichle
Computational Fluid Dynamics and turbomachinery optimization
A four-year PhD program in Machine Learning. I work on 3D Deep Learning, robotics perception, and physics simulation.
Master thesis researching Q-Learning and Deep Reinforcement Learning for
Importance Sampling in Physically-based rendering.
Supervisor: Prof. Elmar Eisemann - TU Delft
Supervisor: Prof. Decebal Mocanu - TU Eindhoven
A two-year Master double degree programme, coordinated by the European
Institute of Innovation and Technology (EIT). Major in Data Science, and
Minor in Innovation and Entrepreneurship.
Topics covered:
• Machine Learning algorithms and Deep Learning (Computer Vision, NLP)
• Big Data Ecosystem: creation of Big Data application with Spark (Scala),
Flink, HBase
• Advanced statistics with R
• Innovation and Enterpreneurship, focused on start-ups development.
Bridge program on Computer Science and Business IT. Among the courses I took, I followed joint courses with Delft University and Standford University.
Thesis Project: "Mechanical design and virtual prototyping for thermal
turbomachinery"
• Cost accounting and decision making, economic
criteria for the dimensioning of industrial plants and facilities, layout
planning
• C++ and Matlab programming
• Operations Research and
linear planning for optimization
• Design methods and CAD Softwares
(Autodesk Inventor, SolidWorks, SolidEdge, PTC Creo)
I did two Research Internships at Google DeepMind, focusing on 3D Vision and multi-modal learning.
Teaching Assistant for the units:
• Introduction to AI, MSc unit, 2022-2023
• Introduction to AI, BSc unit, 2022-2023
• Introduction to AI, MSc unit, 2021-2022
Focus on researching and applying Machine Learning techniques for autonomous
driving:
• Deep Learning for trajectory prediction and decision making
• (Inverse and Deep) Reinforcement Learning for planning and decision making
• Bayesian statistics for uncertainty modelling, Explainable AI and
Interpretable AI
Developed Deep Learning algorithms for Image detection in aerospace applications (Python, Tensorflow, Keras).
• Mechanical design and optimization for aerospace systems (drones, Airbus
components)
• Product Management: market analysis for military and civil helicopters,
market research and analysis for unmanned aerial veichle
Computational Fluid Dynamics and turbomachinery optimization
Hamburg, Germany
Rotterdam, The Netherlands
Hamburg, Germany
Zaanse Schaans,
USA, Maine
USA, Massachusetts
France, Paris
Madrid, Spain
Como, Italy
Stockholm, Sweden
USA, Maine