VILNIUS TECH Strengthens Partnership within the ENIHEI: Memorandum of Understanding Signed

January 7, 2026
VILNIUS TECH, one of the founding members of the European Network of Innovative Higher Education Institutions (ENIHEI), has signed a Memorandum of Understanding (MoU), reaffirming its commitment to active participation in the network and to strengthening the European innovation ecosystem.
 
ENIHEI was established in 2022 at the initiative of the European Commission with the aim of bringing together forward-looking higher education institutions capable of making a significant contribution to the implementation of the New European Innovation Agenda. The network comprises 38 universities, selected either directly by the European Commission or nominated by the governments of EU Member States for their outstanding performance in innovation, research and entrepreneurship.
 
Since its establishment, ENIHEI has operated as an informal partnership and a community of practice, enabling universities to exchange knowledge, experience and ideas that foster creativity, entrepreneurship and talent development. After three years of active cooperation, during which a number of substantial reports and recommendations were prepared for the European Commission, the network decided to move towards a more formal structure. The signing of the Memorandum of Understanding formalises the members’ commitment to active engagement in ENIHEI activities and to the pursuit of shared strategic objectives.
 
“Representing Lithuanian higher education institutions participating in European University Alliances, we are proud to contribute to shaping the future of European higher education and innovation. This Memorandum strengthens our role as an active partner and opens up new opportunities for cooperation for our researchers, students and the entire academic community,” says Assoc. Prof. Dr Živilė Sederevičiūtė-Pačiauskienė, Vice-Rector for Studies at VILNIUS TECH.
 
ENIHEI is also an associate partner of the +EU4All Community of Practice, representing European University Alliances and contributing to the strengthening of inclusion, accessibility and equality in higher education across Europe.
 
The updated ENIHEI strategy defines six key pillars of activity: the development of innovation hubs and international research ecosystems, the promotion of sustainability in higher education, the acceleration of digital transformation, the expansion of cooperation and knowledge exchange, the encouragement of entrepreneurship and social innovation, and a more active dialogue with policy makers.
 
VILNIUS TECH’s participation in ENIHEI is closely linked to the University’s involvement in the ATHENA European University Alliance (Advanced Technology Higher Education Network Alliance). European University Alliances are long-term partnerships initiated by the European Commission, bringing together universities from different countries to jointly develop integrated education, research and innovation spaces.
 
The ATHENA Alliance unites universities with a strong technological and applied sciences profile and focuses on a just and inclusive green and digital transition, strengthening societal resilience, and close cooperation with industry and other social partners. As an active member of ATHENA, VILNIUS TECH contributes to the achievement of these goals and, through its engagement in ENIHEI, strengthens the synergy between the two initiatives, jointly contributing to the development of a more open, innovative and socially responsive European higher education system.

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New doctoral dissertation
New doctoral dissertation
VILNIUS TECH Library invites you to follow the published new dissertations. The dissertation „Moment–curvature analysis of concrete beams reinforced with steel bars and fibres“ prepared at VILNIUS TECH by Amarjeet Kumar. The dissertation was prepared in 2021–2026. Scientific consultant – Prof. Dr Habil. Gintaris Kaklauskas. The dissertation was defended at the public meeting of the Dissertation Defence Council of the Scientific Field of Civil Engineering in the Aula Doctoralis Meeting Hall of Vilnius Gediminas Technical University at 2 p.m. on 16 September 2026. This dissertation presents a simplified curvature-based analytical framework for predicting the cracking behaviour of reinforced and steel fibre-reinforced concrete (R/SFRC) beams subjected to flexural loading. Existing analytical and code-based approaches rely on experimentally determined residual tensile-strength parameters and simplified constitutive assumptions, resulting in inconsistent deformation predictions. Therefore, this research develops an analytical model to predict the moment–curvature response of R/SFRC members without direct dependence on residual tensile strength testing. The First Chapter examines the mechanisms governing deformation and cracking in R/SFRC beams with and without steel bars subjected to bending. Various analytical approaches for evaluating serviceability performance are reviewed, with particular emphasis on curvature-based analysis as a fundamental parameter for describing structural response. Existing curvature models and the theoretical backgrounds are critically discussed, followed by a survey of previously proposed curvature formulations for deformation and cracking assessment. The Second Chapter presents the development of an enhanced analytical moment–curvature model for R/SFRC members by extending the formulation proposed by Kaklauskas et al. (2024). The proposed model incorporates fibre contribution at both cracking and fully cracked stages through two parameters, γ₁ and γ₂. In addition, the ACI-based cracking moment formulation was replaced with a Eurocode 2 approach to improve compatibility with European design standards. Regression-based expressions for these parameters were established using an extensive experimental database and validated against existing analytical models and code-based formulations, including Model Code 2020 and RILEM 162 TDF. The proposed model demonstrated improved predictive accuracy, achieving an overall prediction error of approximately 1.5% with a coefficient of variation of 0.228. The Third Chapter presents an experimental and analytical investigation of R/SFRC beams reinforced with conventional and dual hooked-end steel fibres. The proposed framework successfully described the tension stiffening behaviour of the tested members. Beams reinforced with dual hooked-end fibres exhibited significantly higher γ₂ values, indicating enhanced post-cracking behaviour, extended tension-stiffening response, and improved serviceability performance. Comparisons with standard code-based formulations showed that Model Code 2020 generally provided more accurate moment–curvature predictions than RILEM 162 TDF, while code-based approaches tended to overestimate stiffness, particularly for beams with lower reinforcement ratios. Doctoral dissertation readers can search via VILNIUS TECH Virtual Library.
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VILNIUS TECH eBooks for Research and Study
VILNIUS TECH eBooks for Research and Study
Are you looking for eBooks for research and study? We invite you to use the VILNIUS TECH eBook platform ebooks.vilniustech.lt. VILNIUS TECH eBooks – More than 700 VILNIUS TECH eBooks published in a wide range of academic disciplines. You will be able to: Choose books based on your interests and relevant topics. Purchase an electronic version of a book for a week, a month or a semester. Purchase a printed copy of the VILNIUS TECH book. Are you a member of the VILNIUS TECH community? The VILNIUS TECH community members can access all eBooks on ebooks.vilniustech.lt free of charge while using the university network (e.g., at University) or working/studying remotely and using VPN. Where can you read eBooks? You can read eBooks on your PC (Windows, Mac), smartphone, and tablet. Where can you find your eBook subscription? Purchased or subscribed eBooks can be found in the Bookshelf tab. Where can you find all eBooks? All VILNIUS TECH eBooks can be found in the Catalogue tab. How do you search? You can search for the eBook by entering a title or keyword in the search box or using Advanced Search. You can select where to search for your keyword in the Advanced Search: Catalogue - will search for books in the catalogue; Description - will search for the keyword in full-text documents (PDF). If you select Phrase Match, you can search for the exact phrase you need. You can also narrow your search by author, eISBN, year, or category. How do you filter eBooks? You can filter eBooks by Publication date and Categories using the Filter by function. Printed books are available for purchase. It is important for the reader to make sure that a book contains all the information they need when planning to buy it. It is possible to search for the required information (words, phrases, or sentences) among all books available on ebooks.vilniustech.lt. In addition, before purchasing a book, it is possible to browse the table of contents and read excerpts. All VILNIUS TECH eBooks have an individual DOI provided in URL format. If you encounter such a link in another source of information (books, articles, websites, etc.), type it into your web browser, and you will be redirected to the specific eBook. If you have questions about eBook acquisition and subscriptions, please contact ebooks@vilniustech.lt. * The VILNIUS TECH community members can access the eBooks through the University's computer network and from home by connecting to the VILNIUS TECH network through a VPN. The VILNIUS TECH community can connect to an institutional account. To read eBooks offline, users need to download the Mon`k offline app by navigating to the home page and accessing the download section. To install the app on your phone, download the Mon`k app from the Google Play Store or Apple App Store.
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