ATTENTION:

As of September 2025, EELISA has transitioned to the new EELISA Digital Campus.
This site is preserved for archival and audit purposes only.

This tool was funded by the Erasmus+ project EELISA (Grant Agreement No. 101004081) / Horizon Europe project EELISA InnoCORE (Grant Agreement No. 101035811).

The information here is no longer updated. For current information and activities, please visit the EELISA Digital Campus.

READ BEFORE YOU BEGIN!

Attendance to these courses will give you credits that will help you obtain the EELISA Supplement. If you want these courses to be also accepted as credits for your school year, you need to proceed as-is:

  • Apply for the course at the host institution
  • Get an acceptance letter from the person in charge of the course
  • Show the acceptance letter to the dean of studies (international affairs) of your home institution
  • Get approval from your dean of studies
  • Get a certificate of attendance and validation of the course at the host institution at the end of the course (after examination, if this applies)
  • Transmit the certificate to the dean of studies at your home institution.

Please, note that the dates for some of the courses are based on those from the academic year 2020-2021. For the latest update on each course date, please request more information from the contact person. For a larger list of courses, you are advised to contact the international affairs office of your institution.

Transfer Processes

WHAT

The course aims to teach to the students having already the basic knowledge of mathematics and heat transfer the theoretical bases of mass transfer and most important diffusion processes. The course focuses on the methods, equipment and practical applications of distillation, which is the most important diffusion process. The students have to individually solve numerical mass transfer and distillation problems. They have to make simple laboratory measurements for deepening their theoretical knowledge obtained. 4 hours/4 credits.

TARGET

Bachelor

WHEN

04/09/2023 to 22/01/2024

WHO

Budapest university of technology and economics Müegyetem

FORMAT

On-site

+INFO, CONTACT OR REGISTRATION LINKS

For more information check this link and/or contact email

ECTS

4

Transport automation

WHAT

Basic definitions. Development of safety-realted systems (concept, system definition, hazard- and risk -analysis, specification of system requirements, architecture and apportionment of system requirements, design and implemetation, manufacture, integration, system validation, system acceptance, certification, authorization). Failure management of safety-critical systems. Syafety criterias: system requirements, the safety case. Hazard analysis: FMEA, FMEDA, FMECA, FTA, HTA, HAZOP; hazard analysis during the lifecycle.
Risk analysis. Consequences of the faulty operation – severity. Probability of the faulty operation. Risk classification. Safety Integrity Levels. Development process of safety-related systems. System lifecycle models and management. Failure management. Human aspects of the safety. Safety analysis. Safety management. Safety-crtical softwares. Programming of safety-critical softwares. Data security. Program protection Plan. Protection of the RAM. Safety-critical hardware. Hardware redundancy. Safety strategies.
Formal methods and its application in safety-realted systems.

TARGET

Master

WHEN

04/09/2023 to 22/01/2024

WHO

Budapest university of technology and economics Müegyetem

FORMAT

On-site

+INFO, CONTACT OR REGISTRATION LINKS

For more information check this link and/or contact email

ECTS

4

Transport Infrastructure and Regional Development

WHAT

Transport infrastructure and developement are linkled, although the link between them is not straightforward. This course explores and analyses this link. Regional development and its measurement is scrutinized as is the monetarisation of infrastructure charging and calculatiuon of costs. The course engages the disciplines of economics, regional planning, environmental science, geography, and sociology in investigating the externalities of transportation. The course aims to provide a practical and contemporary, but yet critical introduction to this subject. It will involve the study real and contemporary examples.

TARGET

Bachelor

WHEN

04/09/2023 to 22/01/2024

WHO

Budapest university of technology and economics Müegyetem

FORMAT

On-site

+INFO, CONTACT OR REGISTRATION LINKS

For more information check this link and/or contact email

ECTS

2

Transport operation

WHAT

Process of planning transport establishment using methodological guides. Structure and Chapters of Feasibility Study and Preliminary Feasibility Study. Fit to the policy, evaluation of projects. Development of project variants, evaluation of variables and variations. Planning principles for bus stations, railway stations, airports. The concept of intermodality, the design and function of intermodal nodes. Establishing transfer links. Principles and aspects of universal design. International and domestic, positive and negative examples of intermodal nodes. Consultation related to the design task.

TARGET

Master

WHEN

04/09/2023 to 22/01/2024

WHO

Budapest university of technology and economics Müegyetem

FORMAT

On-site

+INFO, CONTACT OR REGISTRATION LINKS

For more information check this link and/or contact email

ECTS

5

Turkish for Foreigners (A1 Level)

WHAT

Course Description: Students who take this A1 level course will be able to understand and use basic grammatical structures of Turkish language (there is/there isn’t, locative case, accusative case, the present continues, etc.), create an introduction dialogue, introduce oneself, describe household items, talk about free time, introduce families, fill out an information form, plan a trip and write a short letter.

TARGET

Bachelor

WHEN

18/09/2023 to 29/12/2023

WHO

Istanbul Technical University

FORMAT

Hybrid

+INFO, CONTACT OR REGISTRATION LINKS

For more information check this link and/or contact email

ECTS

4

Uncertainty Quantification in Numerical Simulations

WHAT

Uncertainty quantification is used in analysis and modeling (e.g. sources of uncertainty in a physical system), optimization and operations research (e.g. uncertainties on supply and demand in the modeling of a supply chain), vision and machine learning (processing noisy data…), or quantitative finance (financial risk management…).

Numerical simulation is an essential tool for modeling and analyzing complex systems in many scientific fields (physics, biology, chemistry, finance, economics, etc.). The expectations associated with it are multiple: better identification and control of risks, limitation of the costs of real experiments (car crash tests for example), search for cost-performance trade-offs, etc. The presence of many sources of uncertainty (on the models, their parameters, the reference measurements) nevertheless raises the question of the confidence that can be associated with the decisions and predictions provided by the simulation.

The objective of this course is to present a set of mathematical methods to model, propagate and analyze these uncertainties in numerical simulations.

TARGET

Master

WHEN

20/11/2023 to 24/11/2023

WHO

Ecole des Ponts ParisTech

FORMAT

On-site

+INFO, CONTACT OR REGISTRATION LINKS

ECTS

1,5