Teaching
Data Fitting and Reconstruction (AA 2024-2025)
Master's degree in Mathematics
University of Verona, Italy
First semester (52 hours).
Lecture 1 on Wednesday 02/10/2024 (2 hours).
Lecture 2 on Friday 04/10/2024 (3 hours).
Lecture 3 on Monday 07/10/2024 (2 hours).
Lecture 4 on Wednesday 09/10/2024 (2 hours).
Numerical analysis II with laboratory (AA 2024-2025)
Bachelor's degree in Applied Mathematics
University of Verona, Italy
First semester (52 hours).
Lecture 1 on Friday 04/10/2024 (2 hours, Introduzione e metodi iterativi).
Lecture 2 on Wednesday 09/10/2024 (3 hours, Metodi iterativi teoria e lab).
Lecture 3 on Friday 11/10/2024 (2 hours, Metodo del gradiente).
Lecture 5 on Monday 14/10/2024 (2 hours).
Lecture 4 on Wednesday 16/10/2024 (2 hours).
Lecture 6 on Friday 18/10/2024 (2 hours).
You can download some short notes for the course here.
This is a temporary material.
Students should subscribe to moodle for having access to the material.
Scientific Programming (AA 2024-2025)
Bachelor's degree in Applied Mathematics
University of Verona, Italy
Intensive course at the end of the first semester (16 hours).
Dates to be defined.
Advanced Numerical Methods for the solution of Hyperbolic Equations and elements of parallel programming (October 2023)
University of Verona, Verona, Italy
Lecturer: Dr. Elena GABURRO
Timetable: from Thursday 19th to Friday 27th of October 2023 (12 hours)
- Thu 19/10, from 15:30 to 18:30, room H
- Frid 20/10, from 15:30 to 18:30, room M
- Mon 23/10, from 15:30 to 18:30, Auletta Atrio CV1
- Thu 26/10, from 15:30 to 18:30, room H
- Frid 27/10, from 15:30 to 18:30, room M
Modality: Hybrid.
Participation in presence is strongly raccomended.
If you wish to follow the course online, contact me at elena.gaburro@inria.fr: I will provide the zoom link and some usefull information.
Very important: To follow the course is mandatory to participate with a computer with the MATLAB software installed and running.
Course material: Download it , and here the .rar
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Content:
This advanced course on numerical methods for hyperbolic partial differential equations (PDEs)
gives an overview of the most important numerical methods available for the solution
of the hyperbolic PDEs arising in the field of fluid mechanics:
from human and hearth-science problems up to the study of stars and galaxies!
The course covers Finite Volume methods, second order TVD methods,
higher order ENO-WENO techniques, Lagrangian schemes, and the Discontinuous Galerkin approach,
both in the simple one-dimensional case and on unstructured two-dimensional geometries.
It is a major objective of the course to implement these algorithms
in the form of computer programs written in MATLAB and/or Fortran
to provide hands-on experience to all participants on the practical aspects of numerical methods,
and modern working codes already suitable for research purposes.
The course will also give an introduction to their parallel implementation using Fortran MPI and OpenMP.
Participants:
The course is primarily designed for the Master students of the Master in Mathematics of the University of Bordeaux,
but it is also opened to interested master students, PhD students and post-doctoral researchers, from any university/research center,
upon request (please write to elena.gaburro@inria.fr).
For other information click here.
Advanced Numerical Methods for the solution of Hyperbolic Equations & elements of parallel programming (2023)
Ecole Doctorale de Mathématiques et Informatique (EDMI)
Université de Bordeaux, Bordeaux, France
Lecturer: Dr. Elena GABURRO
Dates: From Monday 20th to Friday 24th of February 2023 (12 hours)
Timetable: 3 hours from 14h to 17h, room 178, on Monday(20/02) and Wednesday (22/02)
Timetable: 2 hours from 14h to 16h, room 076, on Tuesday(21/02), Thursday(23/02) and Friday(24/02)
Modality: In presence only: LaBRI building of the University of Bordeaux (room 076 or 178)
Course material: Download it here.
Content:
This advanced course on numerical methods for hyperbolic partial differential equations (PDEs)
gives an overview of the most important numerical methods available for the solution of hyperbolic PDEs
arising in fluid mechanics (from human and hearth-science problems to the study of stars and galaxies).
The course covers Finite Volume methods, second order TVD methods, higher order ENO-WENO techniques,
and the Discontinuous Galerkin approach, both in the simple one-dimensional case and on unstructured two-dimensional geometries.
It is a major objective of the course to implement these algorithms in the form of computer programs
written in MATLAB to provide hands-on experience to all participants on the practical aspects of numerical methods,
and working codes already suitable for research purposes.
The course will also give an introduction to their parallel implementation using Fortran MPI and OpenMP.
Participants:
The course is primarily designed for the PhD students of the EDMI of the University of Bordeaux,
but it is also opened to interested master students, PhD students and post-doctoral researchers upon request
(please write to elena.gaburro@inria.fr).
For more information click here.
Advanced Numerical Methods for the solution of Hyperbolic Equations & elements of parallel programming (2022)
Ecole Doctorale de Mathématiques et Informatique (EDMI)
Université de Bordeaux, Bordeaux, France
Lecturer: Dr. Elena GABURRO
Dates: From Monday 14th to Friday 18th of February 2022 (12 hours)
Timetable: 3 hours from 14h to 17h on Monday(14/02) and Tuesday(15/02)
Timetable: 2 hours from 14:30h to 16:30h on Wednesday(16/02), Thursday(17/02) and Friday(18/02)
Modality: Fully online via ZOOM
Content:
This advanced course on numerical methods for hyperbolic partial differential equations (PDEs)
gives an overview of the most important numerical methods available for the solution of hyperbolic PDEs
arising in fluid mechanics (from human and hearth-science problems to the study of stars and galaxies).
The course covers Finite Volume methods, second order TVD methods, higher order ENO-WENO techniques,
and the Discontinuous Galerkin approach, both in the simple one-dimensional case and on unstructured two-dimensional geometries.
It is a major objective of the course to implement these algorithms in the form of computer programs
written in MATLAB and/or Fortran to provide hands-on experience to all participants on the practical aspects of numerical methods,
and working codes already suitable for research purposes.
The course will also give an introduction to their parallel implementation using Fortran MPI and OpenMP.
Participants:
The course is primarily designed for the PhD students of the EDMI of the University of Bordeaux,
but it could be also opened to interested master students and post-doctoral researchers upon request
(please write to elena.gaburro@inria.fr).
For more information click here.
Advanced Numerical Methods for the solution of Hyperbolic Equations (2021)
Ecole Doctorale de Mathématiques et Informatique (EDMI)
Université de Bordeaux, Bordeaux, France
Lecturer: Dr. Elena GABURRO
Dates: From Monday 22nd to Thursday 25th of March 2021 (12 hours)
Timetable: 3 hours everyday from 14h to 17h
Modality: Fully online via ZOOM (+ dinamic 15 minutes break on gathertown)
Content:
This advanced course on numerical methods for hyperbolic partial differential equations (PDEs)
gives an overview of the most important numerical methods available
for the solution of hyperbolic PDEs arising in fluid mechanics
(from human and hearth-science problems to the study of stars and galaxies).
The course covers Finite Volume methods, second order TVD methods, higher order ENO-WENO techniques,
and the Discontinuous Galerkin approach, both in the simple one-dimensional case and on unstructured two-dimensional geometries.
It is a major objective of the course to implement these algorithms in the form of computer programs written in MATLAB
to provide hands-on experience to all participants on the practical aspects of numerical methods,
and working codes already suitable for research purposes.
Participants:
The course is primarily designed for the PhD students of the EDMI of the University of Bordeaux,
but it could be also opened to interested master students and post-doctoral researchers upon request
(please write to elena.gaburro@inria.fr).
For more information click here.
Blended Teaching Concept
A simple but efficient concept of blended teaching of mathematics for engineering students during the COVID-19 pandemic
S. Busto, M. Dumbser, E. Gaburro
Dep. Civil and Environmental Engineering, University of Trento, Italy
You can download here a presentation of the concept.
We present an economically affordable and
simple but efficient technical concept for the realization of blended teaching of mathematics
and its applications that was conceived, tested and implemented at the University of Trento, Italy, during the COVID-19 pandemic.
The concept foresees traditional blackboard lectures with a reduced number of students present in the lecture hall,
while the same lectures are simultaneously made available to the remaining students via high quality low-bandwidth online streaming.
To realize our concept we employed the personal laptop of each professor as the crucial hub
for the acquisition and distribution of the audio and video streams to be sent online.
As videoconferencing system we employed ZOOM.
We install two indipendent systems in each lecture hall (to let each professor a free choiche and to minimize technical problems):
a videocamera system that allows to transmit traditional blackboard lectures,
and classroom experiments, as well as a graphics tablet and digital pen system.
The speech of the professor is picked up from a bluetooth ear microphone and to ease bidirectional communication
the laptop is connected to the sound system of the lecture hall.
Note that ZOOM automatically reduces the video quality to 640x360p (left image here below)
due to COVID-19 internet bandwidth restrictions for all meetings with three or more people simultaneously connected.
To overcome this intrinsic limitation and to obtain a proper transmission of the video signal
of the blackboard in permanent full HD resolution 1920x1080p (right image here below)
was to use the share screen feature of ZOOM.
While this was rather obvious in the case of the use of a graphics tablet,
it required the use of a third party video capturing software (e.g. VLC, OBS, Quicktime...)
to capture and transmit the signal coming from
the video cameras installed in the lecture hall.
We refer to our recent paper for all the technical details, the necessary hardware, software and logistics,
as well as the perception of the proposed blended lectures by undergraduate students and professors.
Winter School Februray 2020
NUMHYP 2020: Short Course on Advanced Numerical Methods for Hyperbolic Equations
Dep. Civil and Environmental Engineering, University of Trento, Italy
36 hours: 18 hours taught by Prof. Dr.-Ing. Michael Dumbser and 18 hours taught by myself
Course designed for PhD students and post-doctoral researchers in applied mathematics,
engineering, physics, computer science and other scientific disciplines
For more information click here
Second term 2019/2020 at University of Wurzburg, Germany
Invited Lecturer, "Numerical solution of hyperbolic partial differential equations”
Master's degree & PhD in Mathematics, 15 hours
In this folder you can find some material used during the cours.
First term 2019/2020 at University of Malaga, Spain
Invited Lecturer, "High order Finite Volume and Discontinous Galerkin methods for the solution of hyperbolic partial differential equations”
Master's degree and PhD Programme in Mathematics, 10 hours
First term 2018/2019 at University of Trento
Metodi Numerici per l'ambiente
Master's degree, year 1, 30 hours
First term 2016/2017 at University of Verona
Calcolo Numerico con Laboratorio
Bachelor's degree, year 2, 36 hours
First term 2015/2016 at University of Verona
Calcolo Numerico con Laboratorio
Bachelor's degree, year 2, 36 hours
First term 2014/2015 at University of Verona
Calcolo Numerico con Laboratorio
Bachelor's degree, year 2, 45 hours
First term 2014/2017 at University of Verona
Tutor of Numerical Analysis
Bachelor's degree, 50 hours per year