We strive to understand the mysteries of two opposing biological phenomena: aging, which is a progressive structural and functional decline of living beings on all levels of organization, and robustness, a natural capacity to resist damage and counteract aging and diseases.
Similar age of onset for diverse age-related diseases (ARD) in most humans and the existence of rare “outliers” – centenarians that remain disease-free throughout their lifetime - suggest a common cause, and even mechanism, for all ARD. On the molecular level, oxidative damage to proteins and in particular protein carbonylation lies at the core of aging and ARD. Importantly, protein variants differ in their intrinsic susceptibility to carbonylation, and we are particularly interested in the two extreme ends of the spectra: carbonylation-resistant proteins, and proteins with higher-than-average vulnerability to oxidative damage, such as various disease-associated mutants. The key question is then how such damaged proteins hamper cellular function and kill the cells in degenerative diseases. Furthermore, we are developing novel, nanotechnology-based approaches to detect carbonyls on recombinant proteins and in the cellular environment.
In the second line of our research, we use bioinformatics and experimental approaches to tackle natural strategies for attenuating age-related deterioration on the level of cell populations and tissues. Age-dependent accumulation of damage in individual cells is a stochastic process and as such leads to a progressive increase in heterogeneity of cells within tissues. Nevertheless, in spite of the increasing number of damaged cells, the tissues remain healthy and functional for decades. This tissue robustness can be explained by cellular parabiosis – healing of highly damaged cells by means of molecular exchange with their healthy neighbors. In addition to its role in sustaining viability of damaged cells, cellular parabiosis could potentially suppress development of cancers, keeping the pioneer malignant cells silent for extended periods of time.
The main goal of all our projects is to set basis for development of strategies to attenuate aging and to delay the onset of age-related diseases.
The group has been established in 2007 by Prof. Miroslav Radman and is now led by Katarina Trajkovic (as of 2019).
Rodolphe Antoine (C.N.R.S. Institut Lumière Matière, Lyon, France)
Vlasta Bonačić-Koutecký (Center of Excellence for Science and Technology - Integration of Mediterranean Region (STIM) at the University of Split)
Tanja Dučić (ALBA Synchrotron, Cerdanyola del Valles, Spain)
Silva Katušić Hećimović (Institute Ruđer Bošković, Zagreb, Croatia)
Anita Kriško (University Medical Center Goettingen, Germany)
Milena Ninković (University Medical Center Goettingen, Germany)
Tatjana Paunesku (Northwestern University, Chicago, USA)
Eva Žerovnik (Jožef Stefan Institute, Ljubljana, Slovenia)
Tražimo studenta za rad 15-20 sati tjedno, u grupi "Biologija robusnosti" na Mediteranskom institutu za istraživanje života.
Opis posla: Pomoćni poslovi u laboratoriju (pomoć u održavanju laboratorija, pravljenje otopina, pakovanje nastavaka, autoklaviranje, pravljenje gelova za elektroforezu, i sl.)
Zainteresirani studenti mogu poslati CV i kratko motivacijsko pismo na email adresu firstname.lastname@example.org.
We welcome enthusiastic researchers interested in aging and robustness of life to join our team.
MedILS, Mestrovicevo setaliste 45
21000 Split, Croatia