SDG 6 - Clean Water and Sanitation - Hungarian University of Agriculture and Life Sciences
SDG 6 - Clean Water and Sanitation
Menu Display
SDG 6 - Clean Water and Sanitation
Last modified: 24. November 2025
At the Hungarian University of Agriculture and Life Sciences (MATE), we align with the objectives of Sustainable Development Goal 6, which focuses on “Clean Water and Sanitation”. Clean water is a precious resource that is vital for life, agriculture, and the environment. Our university places great emphasis on research, education, and innovation in the fields of water management, environmental science, and agriculture. We are committed to developing sustainable practices that ensure the availability and sustainable management of water resources. Through our academic programs, research initiatives, and community outreach, we aim to address the challenges related to clean water and sanitation, not only in Hungary but also on a global scale. We understand that access to safe and clean water is fundamental to human well-being, and we are dedicated to contributing our expertise to achieve SDG 6 and create a more sustainable and equitable world.
For detailed information see the topics by clicking on the chapters:
1. WATER USAGE AND CARE
1.1. Water suppliers and services
1.2. Wastewater treatment
1.3. Prevention of polluted water entering the water system
1.4. Free drinking water provided on the campuses
1.5. Water-conscious building standards
1.6. Water-conscious planting
2. WATER REUSE
2.1. Water reuse policy
2.2. Water reuse measurement
3. WATER IN THE COMMUNITY
3.1. Water management educational opportunities
3.2. Off-campus water conservation support
3.3. Sustainable water extraction on campus
3.4. Cooperation on water security
3.5. Promoting conscious water usage on campus
3.6. Promoting conscious water usage in the wider community
1. WATER USAGE AND CARE
1.1 Water suppliers and services
With its diverse campuses, research sites, and training facilities spread across the country, MATE relies on multiple regional water utility providers. Consequently, both drinking water supply and wastewater management are handled by different service companies, depending on the specific location of each university unit.
MATE’s extensive network of campuses and facilities is served by several regional water utility providers, each responsible for supplying drinking water and managing wastewater in their respective areas.
Gödöllő and its surroundings are served by DMRV Zrt.
https://www.dmrvzrt.hu/hu/Fooldal
At the Buda Campus, services are provided by Budapest Waterworks and Budapest Sewage Works Zrt.
https://www.vizmuvek.hu/hu/kezdolap/ugyintezes
The Georgikon Campus receives water services from the Transdanubian Regional Waterworks Ltd. (DRV Zrt.).
On the Kaposvár Campus, water and wastewater services are ensured by Kaposvár Water and Sewerworks Ltd. (Kavíz Kft.).
In Karcag, the Tiszamenti Regional Waterworks Ltd. (TRV Zrt.) is responsible for service provision.
Gyöngyös is served by the Heves County Waterworks Ltd.
In the following section, we present the projects through which we address water management.
1.2. Wastewater treatment
MATE ensures the responsible management of wastewater across its campuses by working with the regional utilities designated for each location. These professional service providers handle the collection, treatment, and safe discharge of wastewater in compliance with national environmental regulations. Through these partnerships, the university maintains high standards of environmental protection and contributes to the sustainable operation of its educational and research facilities.
The disposal of waste water
Public sewerage, like the provision of drinking water, is a public utility service. From an environmental perspective, MATE prioritizes the protection of surface water, groundwater, and soil, ensuring the quality and usability of water resources while promoting their sustainable and responsible management.
The wastewater generated by the Szent István Campus is discharged to a public sewage treatment plant. The pollutant content of the wastewater generated depends on the technology used, the type and quantity of materials used and discharged into the wastewater. (In: Environmental Order - Környezetvédelmi Rend of the Szent István Campus, p. 13.)
As the following example presents MATE has taking an active role in projects and research which aims to innovate the wastewater aftertreatment:
Hungarian-Chinese innovation for wastewater aftertreatment
A collaboration between Hungarian and Chinese researchers has developed a more efficient technology than ever before for the after-treatment of wastewater. The innovative process involves irradiating the effluent of a wastewater treatment plant with accelerated electron beams, which can greatly reduce the toxicity of the wastewater. The research project also involved the MATE Institute of Food Science and Technology.
https://uni-mate.hu/hír/-/content-viewer/magyar-kinai-innovacio-a-szennyviz-utokezelesere/20123
Microbiome-Driven Applications for Sustainable Food Systems
The „Microbiome-Driven Applications for Sustainable Food Systems” research focuses on advancing scientific understanding of the microbiome’s role in creating sustainable and healthy food systems. The group investigates how microbial communities contribute to food safety, quality, and nutritional value, as well as how they can be harnessed for the valorisation of food waste. Through an integrated and interdisciplinary approach, the researchers explore the interactions between microorganisms and matrices, aiming to establish data-driven, efficient, and environmentally responsible food production systems.
Microorganisms play a dual role in food technologies—while beneficial species enable the transformation of raw materials into nutritionally rich and bioactive products, pathogenic ones pose risks to food safety. By studying these dynamics, the group aims to optimize fermentation processes and microbial applications, reducing food waste and enhancing food and beverage quality. The project also focuses on developing publicly accessible microbiome datasets, promoting open science and innovation. In the long term, this work supports the creation of sustainable supply chains, reducing environmental impact and strengthening the economic resilience of the agri-food sector.
https://research.uni-mate.hu/hu/w/flagship-research-group-of-prof.-quang-d.-nguyen
1.3 Prevention of polluted water entering the water system
MATE considers it crucial to prevent any polluted water from entering the water system, including contamination resulting from accidents or incidents on campus. The university works with specialized laboratories for the regular disposal of hazardous waste. Additionally, strict chemical handling rules prohibit pouring any chemicals into taps, while all other types of contaminated water are directed regional waterwork. The organizations involved in wastewater management are listed in Section 1.1. Water suppliers and services.
Reducing the pollutant content of wastewater discharged into the collecting system
The Environmental Order - Környezetvédelmi Rend of the Szent István Campus (p. 13) states that the following measures should be taken for the technologies of most concern for harmful pollution: for laboratory technologies, the safety data sheets of the hazardous substances and preparations used should be consulted and the safety data sheets should be followed. Thus, as an environmentally responsible organization, we ensure that all polluted wastewater and contaminants are properly managed and directed into the appropriate collection systems to prevent any discharge into the water system. This includes measures to handle pollution caused by accidents and incidents on campus.
MATE conducts research on water quality and pollution management across its campuses, focusing on both surface water and groundwater systems. The university’s studies examine the impact of agricultural runoff, industrial contaminants, and wastewater on ecosystems, aiming to develop sustainable treatment and mitigation strategies. These research efforts integrate laboratory analyses, field monitoring, and innovative technologies, contributing to improved environmental protection and responsible water resource management.
Scientific researches in the framework to the KEHOP-3.2.1-15-2021-00037 project
A BSc thesis investigated the advanced treatment of wastewater generated during sludge processing. The research focused on a two-stage ultrafiltration–reverse osmosis (UF–RO) system, which allowed the removal of suspended solids from clarified sludge water (UF) and reduced ion concentrations (RO). The RO permeate produced clean water suitable for irrigation, flushing, or safe discharge into natural water bodies, potentially improving water quality. The concentrated fraction from the UF–RO system was suggested as a liquid soil conditioner or for addition to similar mixtures to enhance product quality. During the study, the student conducted membrane testing, evaluated optimal operational parameters, and performed analytical characterization of both the feed material and the resulting products, ultimately summarizing the findings and practical implications.
https://stud.mater.uni-mate.hu/8035/1/814333100.pdf
Scientific Student Association research investigated the use of microalgae in wastewater treatment technologies. In the conducted model experiments, the student monitored nutrient removal during a one-week treatment and then examined the water separation of algae by adding different flocculent plants. The settling efficiency was measured at various times and concentrations, and the results were evaluated from multiple perspectives. The research contributed to the development of a nitrogen and phosphorus removal method in which nutrients were transferred from the treated wastewater into a solid phase in an organic form that can be absorbed by plants.
Another study examined the management and utilization of distillery wastewater/ spent mash (brewery or distillery residue), a type of organic waste that presents significant challenges due to its high acidity, organic content, and substantial levels of polyphenols, macro- and micronutrients, and heavy metals. Composting was identified as a viable strategic option for valorising this material, promoting the recycling and stabilization of its organic matter and nutrients. The review analysed various composting methods, including traditional composting, vermicomposting, and co-composting, along with their advantages and disadvantages. To optimize composting efficiency, different materials such as sewage sludge, vinasse, green and animal manure, inorganic additives, straw, municipal solid waste, and other agri-food or animal bio-wastes were considered for inclusion. The use of these materials and mixtures aimed to enhance the composting process, accelerate decomposition, and improve the quality of the final compost.
WaterGreenTreat
The WaterGreenTreat project, led by the Institute of Aquaculture and Environmental Safety, adopts a circular‑economy approach to wastewater treatment by developing eco‑friendly, 3D‑printed photocatalysts made from metal‑oxide nanocomposites. These novel structures are designed to remove persistent organic pollutants—such as pharmaceutical residues and textile dyes—from industrial wastewater, enabling the reclaimed water to be safely reused for agricultural irrigation. MATE’s role in the consortium includes conducting comprehensive ecotoxicological testing across multiple trophic levels, both in vitro and in vivo, to assess the safety and detoxification efficiency of the treated water using their specialized infrastructure.
1.4. Free drinking water provided on the campuses
The university provides free drinking water for students, staff and visitors on all the campuses. Tap water is drinkable and of good quality ensured by the standard of the public providers of each campus.
Gödöllő and its surroundings are served by DMRV Zrt.
https://www.dmrvzrt.hu/hu/Fooldal
At the Buda Campus, services are provided by Budapest Waterworks and Budapest Sewage Works Zrt.
https://www.vizmuvek.hu/hu/kezdolap/ugyintezes
The Georgikon Campus receives water services from the Transdanubian Regional Waterworks Ltd. (DRV Zrt.).
On the Kaposvár Campus, water and wastewater services are ensured by Kaposvár Water and Sewerworks Ltd. (Kavíz Kft.).
In Karcag, the Tiszamenti Regional Waterworks Ltd. (TRV Zrt.) is responsible for service provision.
Gyöngyös is served by the Heves County Waterworks Ltd.
Generally, our campuses receive drinking water from the public supply network. The Central Campus in Kaposvár also has its own well equipped with a hydroglobe. At the Wildlife Centre (Vadgazdálkodási Központ), animals are partially supplied with water from on-site wells. Boreholes exist at Iregszemcse and at the horticultural section of the Training and Experimental Station (Tan- és Kísérleti Üzem), although they are currently not in operation. The quality of well water is regularly monitored. Water extraction is carried out under a permit issued by the Baranya County Directorate for Water and Water Protection
Quality of the water
The quality of the water supplied from the aquifers is regularly monitored by the Environmental and Water Quality Protection Department of DMRV Zrt. (DMRV Zrt. Környezet- és Vízminőségvédelmi Osztálya) in accordance with the relevant legal requirements and the water quality testing plan approved annually by the Public Health Authority. Water quality testing is carried out partly by DMRV ZRt's accredited laboratory and partly by external accredited laboratories.
The quality of the water supplied complies with the requirements of Government Decree 201/2001 (X. 25.) on "Quality Requirements for Drinking Water and the Monitoring Procedure" and the water quality limits set out therein.
https://faolex.fao.org/docs/pdf/hun97809.pdf
The water supply of Gödöllő is only partially provided by local aquifers, the missing water is bank-filtered water of Danube origin, which is supplied by regional pipelines and mixed with water from aquifers.
https://www.dmrvzrt.hu/hu/godolloi-vizminoseg
1.5. Water-conscious building standards
Since its founding, MATE has been committed to modernizing and upgrading its campus buildings with a strong focus on sustainability. In recent years, renovations and reconstructions with energy- and water-efficiency in mind have become increasingly common. Recent upgrades have introduced a range of water-conscious features, including automatic sensor or push-button urinals with flush valves, water-saving hand-held showerheads, self-closing taps, and water flow regulators in bathrooms and restrooms across the main buildings and other campus facilities. These measures help significantly reduce water consumption while maintaining high standards of hygiene and comfort for students and staff.
Environment and Energy Efficiency Operational Programme
Under the Operational Programme for Environment and Energy Efficiency, MATE has successfully secured two major grants. The first, running from 2022 to 2023, focused on enhancing the energy efficiency of campus buildings and promoting the use of renewable energy sources. The second, from 2021 to 2023, supported initiatives aimed at preparing for a circular economy by improving the management and processing of agricultural and green waste.
https://palyazatok.uni-mate.hu/kehop-6.2.1-23-2023-00009
Increasing the energy efficiency of the buildings of MATE with renewable energy
The energy retrofit of the Gödöllő Campus buildings, constructed between 1860 and 1970, was designed to enhance energy efficiency and reduce the campus’s environmental footprint. Previously, outdated heating systems and poor thermal insulation resulted in excessive energy consumption and significant heat loss. The renovation addressed these challenges through window and door replacements, improved insulation, modernized heating systems, and the installation of solar panels, all compliant with Hungary’s 2006 TNM energy standards.
The project supports the objectives of the EU Energy Efficiency Directive and Hungary’s Operational Programme for Environment and Energy Efficiency, contributing to lower greenhouse gas emissions and reduced energy costs. Beyond technical improvements, the investment promotes sustainable development, climate change mitigation, and an eco-conscious culture within the university. The upgrades create a safer, healthier, and more environmentally friendly campus, fully aligned with national and EU energy policies.
https://palyazatok.uni-mate.hu/kehop-6.2.1-23-2023-00009
Energy‑saving investment in Keszthely
At the Georgikon Campus in Keszthely, energy efficiency projects are being implemented on multiple buildings, including the D and E buildings. The upgrades include enhancing primary energy production capabilities and overall building performance, ensuring that facilities used for teaching and research are more sustainable and energy-conscious. This development complements similar projects on the other campuses, reflecting MATE’s broader commitment to modern, eco-friendly educational infrastructure. Campus project overview.
Energy‑saving investment in Kaposvár
A major energy‑saving (“rezsicsökkentő”) investment has begun at the Kaposvár campus of the Hungarian University of Agricultural and Life Sciences (MATE), involving the modernization of two buildings with over half a billion forints in funding. The contract, worth HUF 517 million, was awarded to Pillér Invest Ltd., and is expected to be completed by September of next year. Among the renovated structures is a locally protected circular building, as well as an older teaching building of about 4 130 m², where they will replace windows and insulate the roofs. The project also includes a modern lightning‑protection system, and the old academic building will be heated and cooled via a new heat‑pump system, which is projected to reduce maintenance costs by 30–35%.
1.6 Water-conscious planting
As an agriculture-focused university, MATE is constantly working on how it can initiate and implement research that will enhance environment-conscious thinking, lifestyle and economic activity. As a result of climate change, the drought of recent years has posed a major challenge for agriculture, including water management and irrigation. Our university has research centres and groups that are continuously working on several projects to address arising challenges.
Research Centre for Irrigation and Water Management (ÖVKI)
The Research Centre for Irrigation and Water Management (ÖVKI) in Szarvas focuses on three strategic areas: agricultural water management, irrigation management, and rice research. In agricultural water management, the centre develops techniques to adapt to extreme hydrological events such as droughts and floods caused by climate change, and it advances excess water management through GIS-based hazard mapping. Remote sensing technologies, including unmanned aircraft systems, are applied to monitor the soil-water-plant system across agricultural areas.
In irrigation management, ÖVKI promotes water-saving and environmentally friendly technologies, including lysimeter studies to measure crop water and nutrient use, irrigation scheduling, modern sensor systems, agroforestry development, reuse of agricultural effluents, and the adaptation of modern irrigation methods. Their work aims to improve Hungarian irrigation practices and expand irrigated areas.
As the centre of Hungarian rice research and breeding, ÖVKI develops high-yielding, stress-tolerant rice varieties suitable for conventional, organic, and aerobic cultivation under temperate climates. Both conventional and biotechnological breeding methods are used, including doubled-haploid lines via androgenesis in cooperation with the Cereal Research Non-profit Co., Szeged. A rice gene bank of Hungarian and international varieties supports these efforts.
ÖVKI also operates a Demonstration and Training Centre for Irrigation Management, supported by the Ministry of Agriculture, to enhance the efficiency of Hungary’s irrigation sector. The center actively collaborates on national and international projects, with partnerships in the Philippines, Chile, Laos, and Thailand. Its main infrastructure includes the Rice Research Station, Lysimeter Station, Irrigation Research Station, and Radiological Research Station, and it maintains close cooperation with other MATE Institutes and departments across Szarvas and other campuses.
https://kornyezettudomany.uni-mate.hu/en/ontozesi-es-vizgazdalkodasi-kutatokozpont-en
Research on soil-plant-water-atmosphere systems under field conditions
One of ÖVKI’s key projects focuses on the soil-plant-water-atmosphere system under field conditions, including irrigation, nutrient management, and crop breeding, conducted at the MATE ÖVKI Lysimeter Station. Understanding soil water and nutrient cycles, accurately determining crop water use and requirements, and evaluating the efficiency of different irrigation methods are essential for environmentally sustainable agricultural practices. The Lysimeter Station, equipped with over 320 lysimeters and advanced instrumentation, also provides a platform for testing and developing innovative methods and products.
https://uni-mate.hu/w/talaj-növény-víz-atmoszféra-rendszer-kutatása
Innovative Aquaculture Water-Saving Prototype
A Proof-of-Concept grant supports the work of a MATE student addressing water reuse challenges in European continental aquaculture, including domestic pond farms. The project focuses on developing a novel fishing method that allows the harvesting of juvenile fish from ponds without draining the water and reduces bycatch in marine environments. The grant funding will enable the construction and testing of a functional prototype of the fishing device.
AQUASERV
Also related tot he Institute of Institute of Aquaculture and Environmental Safety, a project entitled „AQUASERV - Research Services for the Blue Economy” enables MATE to participate in an international consortium dedicated to advancing sustainable aquaculture and fisheries research. Over its five-year duration, the project aims to unite, develop, and integrate research and innovation capacities—including facilities, equipment, and expertise—across Europe. By providing transnational and virtual access to research infrastructures, AQUASERV promotes scientific progress and supports the implementation of key EU strategies such as the Common Fisheries Policy, the Farm to Fork Strategy, the Sustainable Blue Economy, and the European Green Deal. As an associated partner, MATE contributes through six distinct research infrastructures, offering advanced facilities for collaborative.
https://akvakultura.uni-mate.hu/aquaserve
2. WATER REUSE
Use of rainfall
MATE's Centre for Circular Economy Analysis highlights the pressing need for urban rainwater‑use strategies in the face of climate change, warning that most cities still follow a “pipe‑end” mindset—quickly draining rainwater instead of capturing it. They argue that to unlock the full potential of rainwater, more systematic planning, better data, and a coherent strategy that weighs both the benefits and the risks are needed. While rainwater is already used in households for garden irrigation, toilet flushing, and sometimes even washing, its broader adoption in cities is still limited due to concerns about quality and volume. The Centre calls for innovation, including low‑energy water treatment, new collection surfaces, and storage systems that can make urban rainwater reuse more sustainable and widely feasible.
Research on the potential use of compost leachate
In addition, the Centre for Circular Economy Analysis is conducting research on the recovery and potential reuse of leachate produced during composting processes. This work focuses on evaluating the water content and nutrient load of the liquid that drains from compost piles and exploring methods to treat and repurpose it in a sustainable manner. The research, initiated as part of a KEHOP-funded project, aims to integrate circular economy principles into organic waste management, reducing environmental impact while recovering valuable resources for agricultural or other applications.
https://palyazatok.uni-mate.hu/en/kehop-3.2.1-15-2021-00037
2.1. Water reuse policy
The university operates at numerous locations across the country, each served by different local water providers, so campuses currently follow their own internal regulations for water use and management. A unified MATE policy to maximise water reuse across all sites is under development.
Recovery of waste water at the Kaposvár Campus
Only legally compliant wastewater, sewage sludge and sewage sludge compost may be used on agricultural land. This means that the Kaposvár Campus cannot use its own wastewater, but can use the material from the municipal wastewater treatment plant for soil improvement. The agricultural use of wastewater, sewage sludge and sewage sludge compost is authorised by the soil protection authority for a maximum period of 5 years.
- Sewage sludge may not be stored on land. Only the quantity of sewage sludge that can be used and processed immediately may be transported to the agricultural area designated for use.
- The sewage sludge shall be applied below the surface of the soil or, in the case of surface application, shall be worked immediately after siltation. The sewage sludge compost shall be applied immediately after surface application.
- The use of sewage, sewage sludge shall be prohibited for the cultivation of vegetable crops and fruit in contact with the soil and in the preceding year. For other crops it may be used outside the growing season or between harvest and the next sowing.
(In: Environmental Instructions - Környezetvédelmi Utasítás, Kaposvári Campus, p. 15)
2.2. Water reuse measurement
The university’s training hotel, Hotel Opál* Superior, received the Green Hotel Award, earning a silver certification in 2023 for its environmental commitment. This recognition is part of the “Green Hotel” programme of the Hungarian Association of Hotels and Restaurants, which promotes sustainability in the hospitality sector. Hotel Opál demonstrated strong environmental performance through energy and water conservation, the use of eco-friendly products, and the prioritisation of locally sourced goods.
Sustainability is a core principle of the hotel’s operations rather than simply an award objective. Its efforts focus on reducing energy use through efficient practices, with plans to further enhance performance through the installation of solar panels. Despite financial pressures—such as increasing energy costs—the hotel aims to maintain high service quality while preventing energy waste and ensuring strict cost control. Hotel Opál’s approach reflects a long-term commitment to environmentally responsible and forward-looking hospitality.
3. WATER IN THE COMMUNITY
3.1. Water management educational opportunities
MATE provides educational opportunities for a wide audience to learn about good water management, for local communities as well.
MATE’s Department of Water Management and Climate Adaptation actively encourages students to apply their water-management knowledge within their local communities. Beyond teaching and research, the department aims to provide off-campus support for water conservation initiatives. Students enrolled in courses such as Agrometeorology and Water Management, Water Treatment and Utilization, Water Management, Water Quality, and Water Resources Engineering are motivated to share their skills and expertise outside the university. Particular emphasis is placed on working with communities in the watershed of the Rákos Stream, located near the Szent István Campus. To support public access to environmental information, the department makes data from its meteorological station in Gödöllő openly available and is developing a local soil-moisture estimation system to offer timely irrigation guidance based on ongoing research.
https://environment.uni-mate.hu/en/department-of-water-management-and-climate-adaptation
The Department of Irrigation Development and Land Reclamation is responsible for teaching courses related to its field and for carrying out high-level research and advisory activities. Its broader mission includes providing expert consultation, training, education and research on agricultural irrigation development, water management and land-reclamation practices. The department focuses primarily on modernising agricultural irrigation technologies through water- and energy-efficient solutions; developing cultivation and soil-management practices that mitigate climate change impacts and domestic water scarcity; advancing complex land-reclamation systems; exploring innovations in micro-irrigation; and conducting precision water and soil-resource management research. In addition, it contributes to national irrigation development through agricultural water-management studies and supports a wide range of agronomic R&D&I activities.
https://kornyezettudomany.uni-mate.hu/bemutatkozas-omt
Fishing and Angling Scientific College
The Fisheries and Angling Scientific College aims to complement the university’s curriculum by providing its members with practical, hands-on knowledge in fisheries, angling, aquaculture, ornamental fish breeding, fish processing and related fields—areas where compulsory and elective courses offer limited opportunities. It also supports exceptionally talented students by enabling them to acquire specialised expertise needed for scientific or practical work aligned with their interests. Each year, the College organises at least one study trip to supplement theoretical training with on-site experience, and every semester it hosts 1–2 professional lectures delivered not only by university staff but also by key representatives from industry, authorities and professional organisations. Members are regularly encouraged to attend major professional events where they can learn about current trends and innovations. The College collaborates closely with MATE’s Institute of Aquaculture and Environmental Safety, offering talented students the opportunity to participate in R&D&I activities and graduate with practice-oriented, industry-relevant knowledge. Alongside professional programmes, a variety of community-building activities—such as fishing competitions or fish soup cook-offs—strengthen the group, helping students form a supportive, lasting community throughout their university years and beyond.
https://akvakultura.uni-mate.hu/hal%C3%A1szati-%C3%A9s-horg%C3%A1szati-szakkoll%C3%A9gium
Agricultural Water Management Scientific College
The Agricultural Water Management Scientific College, founded in 2016, now operates within MATE’s Institute of Environmental Sciences as a centrally supported talent development programme. It provides students with opportunities to gain additional knowledge beyond their regular coursework, participate in research activities through available support schemes, and engage in a professional community. Its key aims include offering specialised training forums, promoting student involvement in research, fostering an active professional network, developing skills valued by the labour market, providing interdisciplinary education through general and specialised courses, and supporting the acquisition of democratic values and cooperative, community-based working practices.
https://szentistvancampus.uni-mate.hu/mezogazdasagi-es-vizgazdalkodasi-szakkollegium-szarvas-
Master's degree in Agricultural Water Management Engineering
The program aims to train professionals in agricultural water management, with a special focus on sustainable integrated water resources management. The program focuses mostly on water management and engineering related subjects, with additional courses in agricultural and natural sciences, economics and legal studies. Besides providing a strong theoretical base, we aim to equip our students with a sound practical background as well, utilizing advanced methods of earth observation and modelling, complementing related field and laboratory work. Building on the international experience of our staff, this course aims to provide students with the knowledge they need to succeed in today’s world.
https://environment.uni-mate.hu/agricultural-water-management-engineering-msc-
Master's degree in Ecotoxicology
The aim of the course is to train ecotoxicology specialists who are able to independently identify ecotoxicological phenomena on the basis of their knowledge of natural sciences, biology (mainly ecology and toxicology) and social sciences. They are familiar with the principles of the most important methods of ecotoxicology and the ways in which they can be applied. They are capable of assessing and remediating the environmental damage detected and of placing their work in a social context. Our qualified ecotoxicologists can find employment in many areas of the labour market (industry, research and development-innovation, services, public administration and all areas where knowledge of environmental risk assessment in line with European Union standards is required).
The ecotoxicologist among other things has a knowledge of the possible behaviour of pollutants in the environment, their detection and monitoring methods, has an bility to assess the effects of pollutants in different media (soil, water, air) and the responses of different objects (populations, communities, ecosystems, biosphere) to pollutants, has a knowledge of global environmental problems, their economic and social context and the measures taken to address them, has a knowledge and application of environmental risk assessment.
https://genetika.uni-mate.hu/képzés/-/content-viewer/okotoxikologus-mesterkepzesi-szak/20123
Advanced training as an energy management engineer/consultant
The programme focuses on training specialists with a solid understanding of general energy and energy management principles, as well as the application possibilities of renewable energy sources. It covers the technical and economic aspects of energy production and supply, with particular emphasis on renewable resources and their integration into energy systems. Students study topics related to energy use, including heating technologies, power plant components, fuel preparation systems, energy converters, thermal and electrical systems, heat exchangers, and boilers. The course also introduces the main equipment associated with renewable energy—such as biomass, solar, wind, hydropower, and geothermal technologies—primarily from a mechanical engineering perspective, along with the fundamental units of power plants, their operation, and technical characteristics. Graduates acquire the knowledge and skills needed to operate, develop, and ensure the efficient and economical functioning of energy systems.
Specialized training for facility energy engineers
The aim of the specialised training programme is to expand and deepen the existing knowledge of professionals involved in the design and operation of building technical systems—particularly building services engineering—by focusing on building energy use and its connection to the optimisation of heating, ventilation, and air-conditioning systems, as well as the efficient utilisation of renewable energy sources. The curriculum covers the design of energy-efficient buildings, including passive houses and zero-energy buildings, as well as the energetic renovation of existing structures. Graduates will be equipped to rationalise and improve the energy consumption of buildings while taking into account the thermal comfort needs of occupants.
3.2. Off-campus water conservation support
MATE’s Department of Water Management and Climate Adaptation supports water conservation off campus
MATE’s Department of Water Management and Climate Adaptation actively encourages students to apply their water-management knowledge within their local communities. Beyond teaching and research, the department aims to provide off-campus support for water conservation initiatives. Students enrolled in courses such as Agrometeorology and Water Management, Water Treatment and Utilization, Water Management, Water Quality, and Water Resources Engineering are motivated to share their skills and expertise outside the university. Particular emphasis is placed on working with communities in the watershed of the Rákos Stream, located near the Szent István Campus. To support public access to environmental information, the department makes data from its meteorological station in Gödöllő openly available and is developing a local soil-moisture estimation system to offer timely irrigation guidance based on ongoing research.
https://environment.uni-mate.hu/en/department-of-water-management-and-climate-adaptation
3.3. Sustainable water extraction on campus
Where water is extracted (for example from aquifers, lakes or rivers) the University utilises sustainable water extraction technologies on associated university grounds on and off campus. The quality of the water supplied from the aquifers is regularly monitored by the Environmental and Water Quality Protection Department of DMRV Zrt. (DMRV Zrt. Környezet- és Vízminőségvédelmi Osztálya) in accordance with the relevant legal requirements and the water quality testing plan approved annually by the Public Health Authority. Water quality testing is carried out partly by DMRV ZRt's accredited laboratory and partly by external accredited laboratories.
The quality of the water supplied complies with the requirements of Government Decree 201/2001 (X. 25.) on "Quality Requirements for Drinking Water and the Monitoring Procedure" and the water quality limits set out therein.
https://faolex.fao.org/docs/pdf/hun97809.pdf
3.4. Cooperation on water security
MATE cooperates with local, regional, national, or global governments on water security within national and international projects.
Danube Agrifood Master (DAFM)
The Danube AgriFood Master (DAFM) is a joint MSc programme titled “Sustainability in Agriculture, Food Production and Food Technology in the Danube Region”. It addresses sustainable development as a competent response to the challenges posed by climate change and the need to protect and promote livelihoods. Using the Danube region as a model for all riparian regions worldwide, the programme emphasises environmentally conscious approaches to agriculture and food production.
DAFM aims to educate students who are attuned to sustainable agriculture and food systems. The curriculum highlights the importance of ensuring food safety and stability while maintaining environmental resources and ecosystem services, which are critical for adapting to climate crises, overpopulation, and the depletion of natural resources. By integrating these principles, the programme prepares graduates to contribute effectively to sustainable and resilient agricultural and food systems.
The 120 ECTS joint degree combines the expertise of a consortium of European higher education institutions to offer research-based, high-quality training in sustainable agriculture, soil and water management, climate adaptation, food security, food production, and food technology. It provides a strong foundation across natural sciences, engineering, economics, and social sciences, supporting interdisciplinary approaches and intercultural communication while promoting sustainable bioeconomy concepts. Full partner universities offering the DAFM degree include MATE (Hungary), CZU (Czech Republic), BOKU (Austria), SUA (Slovakia), UNIZG (Croatia), UNS (Serbia), and ULST (Romania)
https://agrifoodmaster.eu/index.html
The DAFM Summer School for second-generation students was held at the University of Zagreb Faculty of Agriculture from July 1–5, 2024, on the theme “Towards Resilient Agriculture”. Twenty-three students attended, participating in 17 lectures delivered by professors from UNIZG and partner universities. The programme included field-based lectures and a visit to Plitvice Lakes National Park.
https://agrifoodmaster.eu/dafm-summer-school-20232024.html
CEEPUS summer school in Split
The CEEPUS Summer School based on Network entitled “Water – a common but anomalous substance …” took place at the University of Split from July 7–13, 2024, hosted by its Faculty of Science in collaboration with the Faculty of Chemistry and Technology. The week-long program focused on physical chemistry, computer modelling, and applications of aqueous solution systems—covering topics such as colloids, hydrogels, deep eutectic solvents, and ionic liquids. Mornings were dedicated to lectures, while afternoons featured lab workshops divided into an experimental module and a computational modelling module, allowing students to work in small groups under direct supervision. The event brought together 37 students and 19 instructors from several Central and Southeast European countries.
https://waternetwork.splet.arnes.si/split-2024/
E³UDRES²
E³UDRES² is a European University Alliance - a network of higher education institutions located in Europe, that have decided to closely work together and collaborate in the fields of research, teaching, innovation and much more. MATE is fully engaged in E³UDRES² activities, currently holding the status of Associated Partner.
https://en.uni-mate.hu/international-projects
In December, 2024, MATE hosted one of the three European hubs of the E³UDRES² Hackathon on its Buda Campus under the theme “One World – One Protein – One Soil”, focusing on food sustainability and soil health.
3.5. Promoting conscious water usage on campus
MATE is committed to modernizing and upgrading its campus buildings with a strong focus on sustainability. In recent years, renovations and reconstructions with energy- and water-efficiency in mind have become increasingly common. Recent upgrades have introduced a range of water-conscious features, including automatic sensor or push-button urinals with flush valves, water-saving hand-held showerheads, self-closing taps, and water flow regulators in bathrooms and restrooms. MATE also actively promotes conscious water usage on the campuses by organizing conferences and presentations. For example, each year, the United Nations Water Organization (UN-Water) focuses on a specific theme, which is linked to the World Water Day motto.
3.6. Promoting conscious water usage in the wider community
The university actively promotes conscious water usage in the wider community as well. The MATE’s Department of Water Management and Climate Adaptation encourages to engage with their local communities and share their knowledge and skills related to water management. Beyond teaching and research, the department aims to provide off-campus support for water conservation initiatives. Students enrolled in courses such as Agrometeorology and Water Management, Water Treatment and Utilization, Water Management, Water Quality, and Water Resources Engineering are motivated to share their skills and expertise outside the university. Particular emphasis is placed on working with communities in the watershed of the Rákos Stream, located near the Szent István Campus. To support public access to environmental information, the department makes data from its meteorological station in Gödöllő openly available and is developing a local soil-moisture estimation system to offer timely irrigation guidance based on ongoing research.
https://environment.uni-mate.hu/en/department-of-water-management-and-climate-adaptation
The “International Scientific Conference on Water (ISCW)” is held annually at MATE’s Szarvas campus, serving as a multidisciplinary platform for international discussions on all aspects of water. The conference provides an excellent opportunity to exchange ideas, establish and strengthen academic networks, and foster dialogue between academia, public institutions, the private sector, and civil society. It focuses on current global and regional trends in water use.
https://iscw.hu/history-and-gallery/#iscw_2024
https://iscw.hu/wp-content/uploads/2024/06/Program-of-7th-ISCW-20_21_06_2024_v2.pdf