Our foundation has extensive experience in R&D across various fields of electrical engineering. We have developed educational materials, curricula, and methodologies and contributed to numerous successful R&D projects, including live-line maintenance, dynamic line rating (DLR), insulation diagnostics, industrial electrostatics, high-voltage technology, and electrical safety. Detailed expertise in each area is available under the Research Areas section.
Throughout our work, we have collaborated with numerous industry partners, such as EON Hungária Group, MVM Émász Áramhálózati Kft., MVM Démász Áramhálózati Kft., MVM OVIT Zrt., MVM XPert Zrt., Mavir Zrt., Dunamenti Erőmű Zrt., LEGO Manufacturing Kft., BMW AG, Amprion GmbH, TEIAS SA, AUDI HUNGARIA Zrt., MVM Paksi Atomerőmű Zrt., Electrostatics Kft., Ganz Transformer & Electrical Rotating Machine Manufacturing Ltd., MOL Plc., Xcel Energy Inc., Schneider Electric SE, TOMINTEX Kft., and many others.
Some of our highlighted projects include:
OneNet (H2020)
The OneNet project, funded under the Horizon 2020 framework, aims to create conditions that enable the efficient utilization of modern network services. These services are designed to fully leverage energy storage and decentralized energy production while ensuring fair, transparent, and accessible conditions for consumers. At the core of the project is the development of a consumer-centric network operation model. To achieve this, OneNet plans to establish new markets, products, and services, along with a specialized information system. Additionally, OneNet proposes a novel solution that connects various platforms into a unified system, facilitating better integration and communication across different network components.
FARCROSS (H2020)
The FARCROSS project (Facilitating Cross-Border Electricity Transmission through Innovation) supports cross-border electricity trading through its innovative developments. The project involves participants from the electricity generation value chain, with a consortium comprising 31 partners, including transmission system operators, distribution network operators, market operators, service providers, and manufacturing companies. As part of the project, partners compare the functionality of innovative overhead line monitoring tools that can increase transmission capacity in real time (dynamic line rating). The parameters measured by these tools also allow for state and lifetime estimation of network elements. Additionally, participants are involved in a co-optimized market demonstration (OPTIM-CAP DEMO) that enables the joint cross-border trading of reserve capacity and electricity among four countries: Croatia, Slovenia, Hungary, and Romania.
FLEXITRANSTORE (H2020)
The FLEXITRANSTORE project aims to enhance the flexibility of European electricity networks and support the integration of renewable energy sources. The project tests various technologies (such as dynamic line rating) and solutions (including algorithms for preventing line icing and the development of the FEG platform) that enable flexible and secure energy transmission and distribution. FLEXITRANSTORE seeks to improve network stability and efficiency while reducing costs for energy consumers. It also explores the application of advanced energy storage systems and the operation of smart grids.
INTERRFACE (H2020)
The INTERRFACE project focuses on creating a unified digital platform that connects energy providers, consumers, and network operators. The project’s main goal is to facilitate the effective integration of renewable energy sources and increase consumer participation in the energy market. Through innovative solutions, the INTERRFACE project supports the flexibility and sustainability of the European energy system. Domestic partners have tested the platform’s operation and the possibilities for smart energy usage in real-world environments, particularly aimed at promoting the effective integration of renewable energy sources.
“Célzott Lendület” – “Targeted Momentum”
This research was supported by the Hungarian Academy of Sciences and E.ON Hungary through the MTA-BME FASTER Research Group Program. To facilitate the work of system operators, an Integrated Asset Condition Management System (IACMS) was developed, integrated into the low-voltage electricity system. This advancement enhances the reliability of the network, leading to a reduction in the number, frequency, and duration of consumer outages. A key objective of the cable diagnostics expansion is to compare the condition of various LV cables, enabling more sustainable and efficient maintenance and replacement of existing cables. The project also examined the predictive capabilities regarding failures based on the aforementioned factors. A mathematical model was developed to analyze the dependence of failure rates on the listed operational parameters. The predictive module was designed to be robust against database deficiencies. Based on the results of these investigations, a methodology was developed for selecting cable sections for maintenance or replacement.
Condition review and innovative diagnostic tool development for the Paks NPP
The International Atomic Energy Agency (IAEA) has established several requirements to extend the operational lifespan of the Paks Nuclear Power Plant. One such requirement is to assess whether the electrical parameters of critical cables remain adequate throughout the extended operational period. The conducted assessments revealed the actual technical condition of the cables: extensive aging tests were performed on samples, including thermal, thermonuclear, and electrical tests. Additionally, a comprehensive diagnostic methodology and tools were developed to establish the correlation between the dielectric and material properties of the cables and their expected lifespan.
E.On cable diagnostics and lifetime management
During this project, diagnostic methods for cables at various voltage levels and types were examined, and diagnostic strategies and guidelines were developed. By analyzing diagnostic methodologies and failure statistics, a prioritization methodology was established that serves as a basis for comparing different cables regarding type, age, and environment. An expert system was developed and implemented, which can be utilized in formulating strategies for cable replacement.
The CABLEGNOSIS project aims to deliver innovative cable technologies that will play a key role in supporting the EU’s clean energy transition, specifically addressing the 2050 targets. CABLEGNOSIS will focus on the development of advanced insulation and conductor design technologies, high-performance and environmentally friendly cable insulation materials, and aging studies of superconducting cables. Additionally, the project will explore recyclability technologies for power cable materials and introduce AI-based tools for pre-fault condition monitoring, aging analysis, and remote diagnostics. A comprehensive feasibility assessment framework will also be developed, including detailed analyses on the use of superconducting cables for submarine connections. A specific feasibility study will be conducted for offshore wind parks in the Netherlands and Germany. HUMEA will contribute the project with improved cable recycling technology. Validation testing will be performed on the recycled insulating material to evaluate its usability as electrical insulation at lower voltage levels.
