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The information here is no longer updated.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.

BRI – Biodiversity and Business: from Research to Impact

WHAT

The protection of biodiversity is a global challenge, and the EU aims to lead the way in reversing its loss through its 2030 Biodiversity Strategy. Businesses play a crucial role in developing a model that safeguards and regenerates biodiversity and the ecosystem services they provide. The Seasonal School “Biodiversity and Business: from Research to Impact” is dedicated to tackling the global challenge of biodiversity protection and promoting a regenerative economic development model. The objectives of the Seasonal School are as follows:

(1) examine and promote a development model capable of protecting and regenerating biodiversity and the services that ecosystems provide, from a perspective of regenerative economic development;

(2) provide participants with stimuli and tools to understand and measure the impact of business on biodiversity, evaluate risks and opportunities; and

(3) foster technological and organizational innovation, encouraging the development of new technological and organizational solutions that foster a regenerative economy that protects natural capital.

The Seasonal School is affiliated with the National Biodiversity Future Center (NBFC), an Italian project funded by the European Union’s NextGenerationEU initiative. The NBFC, approved by the Italian Ministry of University and Research, involves 48 partners and over 1,300 researchers focused on biodiversity.

TARGET

Seasonal School

WHEN

22/01/2024 to 26/01/2024

WHO

Scuola Superiore SantAnna

FORMAT

On-site

+INFO, CONTACT OR REGISTRATION LINKS

For more information check this link and/or contact email

ECTS

3

Building Construction 4

WHAT

Flat roofs. Classification, general design aspects, basic construction principles (inclination and geometry of the water collecting areas) according to the impacts on the roofs. Arrangement of roofing layers. Requirements concerning to the different constructions, layers, materials, building physics. Waterproofing (membranes, coatings), applied materials and their features. Technologies and details. Tracking type and terrace roofs, green roofs. Flooring. Effects and requirements. Layers, subsystems, acoustical evaluation. Substructures of floor coverings and their technical features. Classification according to the materials, specifications. Waterproofing against domestic and industrial wet effects. Drywalls, suspended ceilings, internal wall coverings. Labelling systems, design aspects, effects, requirements, basic structural principles. Internal separating structures of residential buildings satisfying acoustical requirements, connecting details of slabs, floorings and stairs. Principles of primary building engineering service systems and building constructions of sanitary block.

TARGET

Bachelor / 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

Building Constructions 2

WHAT

The subject deals mainly with pitched roof constructions, roof coverings and different types of foundations – the latter with consideration to waterproofing solutions. During seminar lectures the principles and details of shallow and deep foundations are introduced, according to functional and load bearing requirements of various building constructions as well as subsurface water and soil type effects. Also introduced are the functions and primary principles of different pitched roof constructions such as: traditional roof, rafter type (modern) roof, purlin and truss type roof as well as contemporary methods of carpentry. Further explanation is provided on occupied (built-in) attic constructions with focus on principles, layers, ventilation, windows and lighting. The main types of roof coverings are shown, such as concrete and clay tiles, flashings and metal roof coverings with special attention to principles and details.

TARGET

Bachelor / 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

Building physics

WHAT

One dimensional steady state heat transfer of composit slabsThermal condition for a room, balance temperature of a nonheated space, energy conservation approaches. Conduction: Fourier’s equation, Concept of thermal conductivity, Range of thermal conductance of building materials, One-dimensional steady state conduction through a plane slab. Convection. Steady state heat transfer of composite slabs, overall heat transfer coefficient, temperature gradient. Modified conduction of insulations. Air gaps. Reverse tasks: Maximizing inner temperature different. fulfilling new Uvalue requirement for existing wall. Examples.Linear heat transmissionIntroduction to Thermal Bridges, Definition of
Self-Scale Temperature, two applications of SST, Definition of Apparent Thickness, Generalized model of wall corner,
generalized model of wall corner temperature, Example: estimation of wall corner temperature. Moisture transfer
Definition of Moist air, Dalton‘s Law, Moisture content, Saturation vapour pressure, Relative humidity, dew point, dry
and wet bulb temperatures, Specific Enthalpy, Moisture balance, Mechanism of vapour transfer, Scope of calculation,
Vapour conductivity and resistance, Overall vapour resistance of multilayer wall, Overall vapour transfer, Design
consideration, example. Introduction to Solar Architecture Indirect Solar collecting walls. Mass walls: principles,
surface, shading, energetic operation, delaying, losses, operation in summer, irradiated solar energy, examples,
simplified thermal model. Example: calculation of thermal balance of a mass wallSolar Design Strategies Sustainable
future (global impact of buildings, energy crises, the 2030 challenge, sustainable future). Energy Conscious Design
(historical overview – traditional and modern architecture, international style, energy conscious architecture and
refurbishment). Energy Conscious Refurbishment. Building Energy Standards (building energy regulation,
certifications, standards). Energy Consumption of Buildings (Low and Passive and “zero” energy buildings). Autonom
buildings. Energy Conscious Architecture, Passive Solar Systems (smart conceptual design, building volumes,
thermal mass, mass wall, Trombe wall, transparent insulation, sun space, green roofs). Active Solar Systems (pvpanesl, solar collectors, heat pump, wind turbine)

TARGET

Bachelor / 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

2

Building Service Engineering 1

WHAT

Water supply The physical and chemical properties of water. Obtaining of water from the nature. Mechanical, chemical and biological treatment of water. Water treatment process of swimming pools. Transport of water. Characteristics of water pumps. Fresh water demand and production, hydrofors and hydroglobes. Cold water distribution network in a building. Metering of water consumption. Pipe materials and appliancies: valves and taps, safety equipments. Fire protection networks. Domestic hot water demand and production. Domestic hot water networks in a building. Boiler types. Circulation. Appliancies: toilets, baths, showers, washing machines, etc. Legionella. Waste water systems Requirements of waste water networks. Traps and syphons. Sanitary rooms for disabled people. Waste water networks. Rain water networks. Pipe materials and fittings. Gas supply Physical properties of natural and PB gas. Dangers of gas supply. Safety requirements. Gas supply networks outside and inside the building. Gas meters. Materials and fittings of gas networks. Gas appliancies: boilers, stoves, ovens. Categorisation and safety requirements of appliancies. Chimneys: types and requirements. Parameters of drought. Drought diverter. Artificial lighting Visual environment and its components. Characteristics of the human vision. Essential ideas of lighting technique: luminous flux, luminous intensity, illuminance, luminance. Characterisation of surfaces: reflection and transmission, spreading of light, colour. Requirements concerning the lighting. Average illuminance and its uniformity. Colour rendering. Modelling ndash; shadows effect. Limitation of glare. Colour appearance. Balanced ratio of luminance. Cost efficiency. Artificial light-sources. Incandescent lamps. Fluorescent tubes. Compact tubes. HID lamps: mercury lamps, metal halide lamps and sodium lamps. Meeting of requirements. Efficiency-method. Proposed setting of luminaries. Electric network of buildings Parts of the network. Characteristics of the network: form, nominal voltage. Typical installations: lighting, building services and technology. Connection of building to public network. Transformers and its placing. Required areas of switchboards and transformers. Indirect contact.

TARGET

Bachelor / 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

2

Building Service Engineering 2

WHAT

Calculation of heat loss of buildings. Energy consumption of a heated space. Introduction to fluid flow. Classification of Heating. Central heating. Elements of water heating system. Pipe distributing networks Emitters and surface heating. Controlling. Renewable energy sources for heating and producing domestic dot water. Introduction to psychometrics. Psychometric processes. Ventilation (Classification, natural ventilation and mechanical one, fundamental systems of air inlet and extract) Estimation of the necessary air volume. Air heating and cooling systems. Air conditioning.

TARGET

Bachelor / 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

2