Current projects
Code: J7-2596
Project name:
Intelligent Content-Aware Nanospectroscopy (iCAN) of molecular events in nanoparticles-induced neurodegeneration
Provider of funds logo:
Project head: Iztok
Urbančič, PhD
Research organisation:
University of Ljubljana, Faculty of Computer and Information Science
Researchers:
Tilen
Koklič, PhD
Rok
Podlipec, PhD
Danijel
Skočaj, PhD
Janez
Štrancar, PhD
Domen
Tabernik
Iztok
Urbančič, PhD
Young researchers:
Inhalation of fine particulate matter (PM ) and ultrafine nanoparticles in polluted air is knowingly associated with neurodegenerative and other chronic diseases, which are one of the major contributors to the global death burden. Even though increasing amounts of engineered nanoparticles enter the environment, our limited understanding of the mechanisms of their action hinders efficient prevention and treatment of associated health conditions.
To understand the causal relationship between exposure to nanoparticles and disease progression, it is crucial to discern Adverse Outcome Pathways (AOPs), which connect initiating events on the molecular level to the adverse outcome at the level of an organism via a complete sequence of causally linked key events. We have recently visualised such early supramolecular rearrangements at the NP-cell contact by advanced live-cell superresolution microscopy and spectroscopy techniques.
However, their slow acquisition process has precluded adequate sampling of such rare events to complete the AOPs.
We aim to improve the statistics of the captured rare events by developing the Intelligent Content-Aware Nanospectroscopy (iCAN). We will employ intelligent state-of-the-art computer-vision algorithms to automatically identify the content of interest for targeted nanospectroscopic measurements, which will allow us to identify and quantify early events following NP exposure. By additional evaluation of the response of individual cells to their local dose, we aim to causally connect the early events leading towards neurodegenerative effects of exposure to nanoparticles.
- Automated recognition of events in images
- Automated characterisation of events by advanced microscopic modalities
- Correlation of the event rates and local dose with the cellular response
- Management and dissemination
Code: J2-2513
Project name:
Controllable broadband electromagnetic-radiation shielding
Provider of funds logo:
Project head: Matej
Pregelj, PhD
Research organisation:
Researchers:
Young researchers:
Code: J1-2462
Project name:
Topological turbulence in confined chiral nematic fields
Provider of funds logo:
Project head: Miha
Ravnik, PhD
Research organisation:
University of Ljubljana, Faculty of Mathematics and Physics
Researchers:
Anton
Gradišek, PhD
Uroš
Jagodič, PhD
Matevž
Marinčič
Igor
Muševič, PhD
Anja
Pusovnik, PhD
Miha
Ravnik, PhD
Young researchers:
Research Objective 1: Realize Janus micro-spheres and micro-rods with surface functionalisation that will be propelled in the nematic liquid crystal (NLC), when an external electric field be applied.
Research Objective 2: To propel Janus particles in NLCs by external electric field and determine the nature of their pair interaction in 2D.
Research objective 3: To explore and understand the collective behaviour of electrically propelled Janus particles in 2D.
Research Objective 4: To explore and understand collective behaviour of electrically propelled Janus particles –active turbulence- in chiral nematic droplets.
This is a very high risk project, which aims at studying active topology of electrically driven soft matter in 3D microscale confinement that has never been studied before. This will be possible by using state-of-the-art 3D imaging STED technique that allows for real-time imaging of topological defects formation and their identification. Given the tremendous complexity of orientationally ordered liquid crystals compared to isotropic fluids, the success of this project is likely to open the door to entirely new topological phenomena in self-organized active soft matter.
- Materials and methods.
- Single Janus particle in the nematic LC driven by the external electric field.
- Pair interaction of Janus particles in a nematic LC propelled by the electric field.
- Collective motion of electrically propelled Janus particles in a 2D nematic.
- Collective motion of micro-rods in chiral nematic droplets.
- Numerical simulations of active Janus particles in nematic.
Code: J1-2461
Project name:
Novel experimental approach for determination of quantum spin liquids
Provider of funds logo:
Project head: Andrej
Zorko, PhD
Research organisation: 'Jožef Stefan' Institute
Researchers:
Young researchers:
- Kondo response of herbertsmithite and the nature of its ground state
- Spinon-spinon interactions in the Kondo response and the spin Hamiltonian of Zn-brochantite
- Magnetic ground state of barlowite, its spin Hamiltonian and doping effects
Past projects
Code: N1-0148
Project name:
Stabilization and destabilization of spin liquids by perturbations
Provider of funds logo:
Project head: Andrej
Zorko, PhD
Research organisation:
Researchers:
Young researchers:
Background and rationale: Quantum spin liquids (QSLs) represent an intriguing state of matter, where quantum entanglement plays a decisive role. These states that are typically born out of geometrical frustration, remain magnetically disordered even at zero temperatures. In the majority of cases, the stabilization and destabilization mechanisms of QSLs remain vague. According to theory, perturbations to the simplest nearest-neighbor isotropic (Heisenberg) exchange Hamiltonian, like structural disorder, interactions with further neighbors, and magnetic anisotropy, are of key importance. As these effects are usually intertwined in real materials and since QSL realizations are scarce, the experimental confirmation of these predictions is eagerly anticipated.
Objectives and specific aims: The main objective of the proposed project is to provide a new experimental insight into the problem of perturbation by studying several novel representatives of the two most common frustrated spin lattices in two dimensions, the triangular lattice (TL) and the kagome lattice (KL). In the TL case we will focus on the predicted randomness-induced QSL-like states in the newly synthesized family of materials Ba2MnTe1-xWxO6, for which preliminary bulk characterizations hint at this intriguing effect. The same effect will be systematically investigated also in two representatives of KL, Zn-brochantite and Zn-barlowite, which feature different QSL ground states. Our specific aim is to find how impurities interact with various QSL states in a Kondo-like effect, which has been very recently observed for the first time in a magnetic insulator. Secondly, we will thoroughly investigate the influence of further-neighbor couplings and magnetic anisotropy on the ground state in the above-mentioned materials and in another KL representative YCu3(OH)6Cl3, where impurities are absent.
Methods to be used: To reach the goals of the project, complementary expertise is necessary, which is provided by our bilateral approach. We will employ a combination of highly sensitive local-probe techniques, each providing indispensable insight. The Swiss team are experts in muon spin relaxation (μSR), with the leader Dr. Hubertus Luetkens being the head of the Bulk μSR Group at the Paul Scherrer Institute (PSI) and in charge of the new μSR instrument FLAME that will start operation in 2020. The high magnetic fields and low temperatures that this instrument can reach perfectly fit the needs of this project. The Slovenian team lead by Prof. Dr. Andrej Zorko are experts in magnetic resonance techniques, including nuclear magnetic resonance (NMR) and electron spin resonance (ESR). The instruments at the Jožef Stefan Institute (JSI) cover a broad range of magnetic fields, while experiments under extreme conditions will be performed in specialized facilities. To complement the experiments numerical calculations will also be performed at JSI.
Expected results and impact for the field: Our holistic approach will provide missing information about the effects of various perturbations on the ground states of the TL and the KL models. The results will allow us to assess the theories of the randomness-induced QSL-like states and the predicted perturbation-dependent phase diagrams of both lattices. This is an important step towards understanding these enigmatic ground states. Moreover, the QSL concept may be related to other intriguing quantum phenomena, such as high-Tc superconductivity, and possesses a high application potential in quantum technologies. We plan to employ a PhD student on the Swiss side and to co-finance several researchers on the Slovenian side, including PhD students and postdocs. Young scientists involved in the project will thus have access to top-level facilities, expertise, and knowledge, as the project will foster frequent exchange of researchers between two leading laboratories in their respective fields.
Project phases and their realization:
- Characterization of the ground states and randomness induced QSL state in TL Ba2MnTe1-xWxO6
- Determination of the spin Hamiltonian and defect interactions in Zn-brochantite
- Determination of the doping effect on the magnetic ground state of kagome antiferromagnets
- Characterization of the magnetic ground states of YCu3(OH)6Cl3 and Y3Cu9(OH)19Cl8
Code: N1-0116
Project name:
Liquid-crystal microdroplet lasers for sensing inside live cells
Project head: Zuhail
Kottoli Poyil, PhD
Research organisation:
Researchers:
Zuhail
Kottoli Poyil, PhD
Code: N1-0104 (D)
Project name:
Biointegrated lasers for resarch of living organisms
Project head: dr. Matjaž Humar
Project head at F5: dr. Matjaž Humar
Applicant organisation: 'Jožef Stefan' Institute
Researchers:
Code: J3-1758
Project name:
Adverse outcome pathway leading to atherosclerosis
Project head: Tilen Koklič, PhD
Project head at F5: Tilen Koklič, PhD
Applicant organisation: 'Jožef Stefan' Institute
Researchers:
Zoran Arsov, PhD
Stane Pajk, PhD
Rok Podlipec, PhD
Janez Štrancar, PhD
Iztok Urbančič, PhD
Technical associates:
Young researchers:
Participating research organisation:

Researchers:
Aleš Blinc, PhD
Mojca Božič Mijovski, PhD
Project description:
Atherosclerosis is a chronic inflammatory disease causally linked to pro-inflammatory cytokine interleukin 6 (IL 6) expression locally by different cells and tissues. Inhalation of nanoparticles in polluted air induces expression of the IL-6 by pulmonary macrophages, epithelial cells, and vascular endothelial cells. However, possible molecular events linking inhaled nanoparticles and IL 6 to inflammation of vascular endothelium and subsequent fibrin clot formation remain unknown. Here we propose to test a hypothetical pathway. We propose that IL-6 expression is induced by coagulation factor Xa activated on membrane-wrapped nanoparticles, eventually leading to fibrin clot formation around the cell membrane-wrapped nanoparticles. For this purpose, we will employ a newly proposed series of connected cell mono-culture in vitro models and super-resolution imaging techniques.
References:
[1] H. Kokot et al., "Prediction of Chronic Inflammation for Inhaled Particles: the Impact of Material Cycling and Quarantining in the Lung Epithelium," Adv. Mater., vol. 32, no. 47, p. 2003913, 2020, doi: 10.1002/adma.202003913.
[2] T. Sengupta, T. Koklic, B. R. Lentz, and R. Majumder, "Phosphatidylserine and phosphatidylethanolamine regulate the structure and function of FVIIa and its interaction with soluble tissue factor," Biosci. Rep., vol. 41, no. 2, p. BSR20204077, Feb. 2021, doi: 10.1042/BSR20204077.
[3] Detekcija TiO2 nanodelcev v fibrinskem strdku z uporabo fluorescenčne mikroskopije : magistrsko delo. Golmajer Zima, Neža ; Osterman, Natan (mentor); Štrancar, Janez (comentor). Type of work: 2.09 master's thesis. Year: 2020. COBISS.SI-ID 27414275
[4] P. H. Danielsen et al., "Effects of physicochemical properties of TiO2 nanomaterials for pulmonary inflammation, acute phase response and alveolar proteinosis in intratracheally exposed mice," Toxicol. Appl. Pharmacol., vol. 386, p. 114830, Jan. 2020, doi: 10.1016/j.taap.2019.114830.
Code: J1-9145
Project name:
Study of intracellular forces by deformable photonic droplets
Project head: doc. dr. Matjaž Humar
Project head at F5: doc. dr. Matjaž Humar
Applicant organisation: 'Jožef Stefan' Institute
Researchers:

Code: J2-1740
Project name:
Advanced inorganic and organic thin films with enhanced electrically-induced response
Project head: prof. dr. Vid Bobnar
Project head at F5: prof. dr. Vid Bobnar
Applicant organisation: 'Jožef Stefan' Institute
Researchers:
- dr.
Andreja Benčan Golob
- dr.
Zdravko Kutnjak
- dr.
M
arta Lavrič
- dr.
Barbara Malič
- dr.
Nikola Novak
- dr.
Tadej Rojac
- dr.
Brigita Rožič
- dr.
H
ana Uršič Nevemšek
Young researchers:
Code: J1-9145
Project name:
Probing spin states near the surface of quantum spin materials
Project head: prof. Denis Arčon
Project head at F5: prof. Denis Arčon
Applicant organisation: 'Jožef Stefan' Institute
Researchers:
- Dr.
Alan Gregorovič
- Dr.
Martin Klanjšek
- Dr.
Matej Pregelj
- Dr.
Andrej Zorko
Technical associates:
Participating research organisation: Faculty of Mathematics and Physics of the University of Ljubljana
Researchers:
- Dr.
Igor Muševič
Code: J1-9147
Project name: Advanced soft nematicaloric materials
Project head: dr. Brigita Rožič
Project head at F5: dr. Brigita Rožič
Applicant organisation: 'Jožef Stefan' Institute
Researchers:
- Dr.
Zdravko Kutnjak
- Dr.
Andraž Rešetič
- Dr.
Brigita Rožič
- Dr.
Boštjan Zalar
- Dr.
Marta Lavrič
Young researchers:
Participating research organisation:
Researchers:
- Dr.
Gregor Skačej
Description of the research project:
The project aims to develop advanced soft materials with a giant mechanocaloric effect based on liquid crystal elastomers and to build a first prototype of mechanocaloric device. Specifically, we propose research on soft liquid-crystal-elastomer (LCE) based mechanocaloric materials, to initiate the development of novel mechanocaloric cooling elements for environmentally friendlier cooling technologies with superior energy efficiency. We will synthesize liquid crystal elastomers with optimized elastocaloric and barocaloric effect. These materials will be used as cooling elements in a prototype of mechanocaloric cooling device that will be developed and tested within the proposed project.
Description of the work programme:
STEP 1
The project will start with the search for physical and structural parameters such as the elastomer network architecture (main/side chain architecture, degree of mechanical anisotropy imprinted upon synthesis, crosslinker density), mesogenic unit properties (length, nematic-isotropic transition temperature), and the degree of sample swelling that can have significant impact on the magnitude of the elastocaloric and barocaloric response in different groups of the LCE materials. The LCE materials will be chosen to serve as cooling material in the prototype of the elastocaloric cooling device.
STEP 2
In this step the most optimal mechanocaloric materials chosen in the first step will be synthesized and characterized. These materials will be used later in the third step for the building of the prototype of the elastocaloric cooling device. In addition, in this step the planning of the technical implementation of the prototype elastocaloric device supported by modelling will be carried out.
STEP 3
In this final step the technical realization of the elastocaloric cooling device prototype based on the LCE together with characterization and optimization of its operation will be done. This step also includes the dissemination of the final results.
Code: J2-6779-1
Project name: New advanced electrocaloric materials for novel environmentally-friendly dielectric refrigeration technology
Period: 1.7.2014 - 30.06.2017
Project head: dr. Zdravko Kutnjak
Project head st F5: dr. Zdravko Kutnjak
Applicant organisation: 'Jožef Stefan' Institute
Researchers:
- Dr.
Andreja Benčan Golob
- Dr.
Vid Bobnar
- Dr.
Goran Casar
- Dr.
Georgios Kordogiannis
- Dr.
Barbara Malič
- Dr.
Tadej Rojac
- Dr.
Brigita Rožič
- Dr.
Maja Trček
- Dr.
Katarina Vojisavljević
- Dr.
Boštjan Zalar
- Dr.
Blaž Zupančič
Young researchers:
Technical associates:
Participating research organisation:

Researchers:
- Dr.
Blaž Jelenc
- Dr.
Andrej Kitanovski
- Dr.
Uroš Plaznik
- Dr.
Primož Poredoš
Participating research organisation:

Researchers:
- Dr.
Milan Ambrožič
- Dr.
Samo Kralj
Code: J2-7526-2
Project name: Multifunctional materials for actuator and cooling devices
Period: 1.1.2016 - 31.12.2018
Provider of funds logo:
Project head: dr. Tadej Rojac
Project head st F5: dr. Zdravko Kutnjak
Applicant organisation: 'Jožef Stefan' Institute
Researchers:
- Dr.
Andreja Benčan Golob
- Dr.
Vid Bobnar
- Dr.
Zdravko Kutnjak
- Dr.
Barbara Malič
- Dr.
Mojca Otoničar
- Dr.
Maja Trček
- Dr.
Hana Uršič Nemevšek
- Dr.
Marko Vrabelj
Young researchers:
Technical associates:
Participating research organisation:

Researchers:
- Dr.
Marjan Bele
- Dr.
Elena Chernyshova
- Dr.
Goran Dražić
- Dr.
Manca Logar
Code: J2-8191
Project name: High-resolution optical magnetometry with cold cesium atoms
Period: 1.5.2017 - 30.04.2020
Project head: dr. Peter Jeglič
Project head st F5: dr. Peter Jeglič
Applicant organisation: 'Jožef Stefan' Institute
Researchers:
- Dr.
Tomaž Apih
- Dr.
Alan Gregorovič
- Dr.
Erik Zupanič
- Dr.
Rok Žitko

Researchers:
- Dr.
Samo Beguš
- Dr.
Vincencij Žužek
Code: J2-9227
Project name: Sensor technologies in diagnostics and monitoring of cultural heritage buildings
Period: 1.5.2017 - 30.04.2020
Project head: dr. Zvonko Jagličić
Project head st F5: dr. Janez Dolinšek
Applicant organisation: Institute of Mathematics, Physics and Mechanics
Researchers:
- Dr.
Vojko Jazbinšek

Researchers:
- Dr.
Janez Dolinšek
- Dr.
Stanislav Vrtnik

Researchers:
- Dr.
Andreja Abina
- Dr.
Uroš Puc
- Dr.
Aleksander Zidanšek

Researchers:
- Dr.
Samo Beguš
- Dr.
Vincencij Žužek
Participating research organisation:

Researchers:
- Dr.
Violeta Bokan-Bosiljkov
- Dr.
Patricia Cotič
- Dr.
Marjeta Kramar Fijavž
- Dr.
Andreja Padovnik
- Dr.
Petra Štukovnik
- Dr.
Vlatko Bosiljkov
Technical associates:
Code: J2-9227
Project name: Electroporation-based treatments with new high-frequency electroporation pulses
Project head: dr. Matej Reberšek
Project head st F5: dr. Igor Serša
Applicant organisation: University of Ljubljana, Faculty of Electrical Engineering
Researchers:
- Dr.
Janja Dermol-Černe
- Dr.
Bor Kos
- Dr.
Matej Kranjc
- Dr.
Damijan Miklavčič
Technical associates:
Participating research organisation: 'Jožef Stefan' Institute
Researchers:
- Dr.
Mojca Urška Mikac
- Dr.
Igor Serša
- Dr.
Jernej Vidmar
Code: J2-9253 (C)
Project name: Multicaloric cooling
Project head: dr. Hana Uršič Nemevšek
Project head st F5: dr. Zdravko Kutnjak
Applicant organisation: 'Jožef Stefan' Institute
Researchers:
- Dr.
Zdravko Kutnjak
- Dr.
Barbara Malič
- Dr.
Tadej Rojac
- Dr.
Brigita Rožič
Technical associates:
Participating research organisation: University of Ljubljana, Faculty of Mechanical Engineering
Researchers:
- Dr.
Andrej Kitanovski
- Dr.
Uroš Plaznik
- Dr.
Jaka Tušek
Code: J3-6803
Project name: Role of Calcium and lipid membranes in survival of critically ill patients
Project head: dr. Tilen Koklič
Project head st F5: dr. Tilen Koklič
Applicant organisation: 'Jožef Stefan' Institute
Researchers:
- Dr.
Zoran Arsov
- Dr.
Maja Garvas
- Dr.
Mojca Urška Mikac
- Dr.
Janez Štrancar
- Dr.
Iztok Urbančič
- Dr.
Igor Serša
Technical associates:
Participating research organisation: U
niversity of Ljubljana, Faculty of Medicine
Researchers:
- Dr.
Andrej Fabjan
- Dr.
Jernej Vidmar
- Dr.
Vito Starc
Participating research organisation: University Medical Centre Ljubljana
Researchers:
- Dr.
Aleš Blinc
- Dr.
Mirza Šabovič
- Dr.
Gregor Tratar
Code: J3-9288
Project name: Optimization of MRI techniques for assessment of thrombolytic treatment outcome
Applicant organisation: 'Jožef Stefan' Institute
Project head: prof. Igor Serša
Project head at F5: prof. Igor Serša
Researchers:
- Dr.
Tilen Koklič
- Dr.
Mojca Urška Mikac
- Dr.
Janez Štrancar
- Dr.
Jernej Vidmar
Technical associates:
Participating research organisation: University Medical Centre Ljubljana
Researchers:
Technical associates:

- Dr.
Andrej Fabjan
- Dr.
Dušan Šuput
- Dr.
Andrej Vovk
- Dr.
Fajko Bajrović
Code: J7-8272
Project name: Integrated multi-channel artificial nose for vapor trace detection (Integrirani večkanalni umetni nos za zaznavanje sledov molekul v parni fazi)
Applicant organisation:
Project head: dr. Igor
Muševič,
home page
Project head at F5: dr. Igor
Muševič,
home page
Researchers:
Technical associates:
Participating research organisation:
Researchers:
Technical associates:
This project will form the basis for a completely new branch of scientific research and development, applying innovative AI methods to newly developed 64-channel sensor array for detection of trace vapors of dangerous molecules in the atmosphere. Lately, there has been a lot of activities the field of development of new e-nose methods and platforms for the obvious reason of terrorist attack prevention. Many different sensors and concepts were developed in the last decade with the aim of detecting very low concentrations of trace vapors of explosives such as TNT, PETN and RDX in the atmosphere in order to protect urban areas from terrorist threats. The current sensitivity of the state-of-the-art sensor systems allows us to detect very low concentrations of target molecules, of the order of 1 target molecule in 1012 to 1014 molecules of atmosphere. The successful realisation of numerous research projects (Strle et al., IEEE Sens. J., 2012) showed that micro-capacitive sensor arrays based on COMS micro-capacitors and low-noise detection chips are able to detect such low concentrations of dangerous vapors. The sensitivity we have achieved has pushed the boundaries of the existing sensor technology. Its greatest limitation is the chemical selectivity of the sensor array which, up until now, has consisted of at most 16 chemically selective functionalised micro-capacitors. The aim of this project is to improve signal processing and pattern recognition methods by developing a new, 64-channel senor system. This will be a small yet important step towards the realisation of an e-nose with a high density of sensors, which we expect to be made from thousands of olfactory cells, mimicking the efficiency of a dog’s nose. Based on the proposed research actvities, we want to introduce the concept of application of AI methods to improve the chemical selectivity of the 64-sensor array. As the first of its kind, this project will bring together an interdisciplinary team of physicists, chemists specialised in organic chemistry, microelectronic engineers, mathematicians and AI specialists.
Code: N1-0052
Project name: Correlated electrons in confined molecular systems
Provider of funds logo:
Project head: dr. Denis Arčon
Project head at F5: dr. Denis Arčon
Applicant organisation: 'Jožef Stefan' Institute
Researchers:
- Dr.
Martin Klanjšek
- Dr.
Matej Pregelj
- Dr.
Andrej Zorko
Young researchers:
Code: J1-6723
Project name: Topology and Photonics of Liquid Crystal Colloids and Dispersions
Provider of funds logo:
Project head: dr. Muševič Igor,
domača stran
Project head at F5: dr. Muševič Igor,
domača stran
Applicant organisation: 'Jožef Stefan' Institute
Researchers:
dr. Matjaž Humar
dr. Škarabot Miha
dr. Gradišek Anton
dr.
Mirri Giorgio
dr. Nikkhou Maryam
- dr.
Posnjak Gregor
- dr.
Pregelj Matej
- dr.
Rožič Brigita
- dr.
Seč David
- dr.
Tkalec Uroš
Technical associates:
Young researchers:
Participating research organisation: Faculty of Mathematics and Physics of the University of Ljubljana
Researchers:
- dr.
Čančula Miha
- dr.
Ravnik Miha
Young researchers:
Code: J1-7300
Project name:
Thermophoretic guidance, accumulation and sorting of biomolecules in microfluidic devices
Period: 1.7.2014 - 30.06.2017
Provider of funds logo:
Project head: dr. Natan Osterman
Project head at F5: dr. Andrej Vilfan
Applicant organisation: Faculty of Mathematics and Physics of the University of Ljubljana
Researchers:
- Dr.
Dušan Babič
- Dr.
Martin Čopič
- Dr.
Igor Poberaj
Participating research organisation: 'Jožef Stefan' Institute
Researchers:
- Dr.
Igor Križaj
- Dr.
Miha Škarabot
- Dr.
Andrej Vilfan
- Dr.
Mojca Vilfan
Participating research organisation: University of Ljubljana, Faculty of Medicine
Researchers:
- Dr.
Jure Derganc
Code: J1-7032
Project name:
High-Entropy Alloys
Period: 1.1.2016 - 31.12.2018
Project head: Dr. Janez Dolinšek
Project head at F5: Dr. Vrtnik Stanislav
Applicant organisation: 'Jožef Stefan' Institute
Researchers:
- Dr.
Vid Bobnar
- Dr.
Anton Gradišek
- Dr.
Andreja Jelen
- Dr.
Primož Koželj
- Dr.
Mitja Krnel
- Dr.
Andraž Rešetič
- Dr.
Stanislav Vrtnik
Young researchers:
Technical associates:
Participating research organisation: Faculty of Mathematics and Physics of the University of Ljubljana
Technical associates:
- Dr.
Andraž Kocjan
Participating research organisation: Institute of Mathematics, Physics and Mechanics
Researchers:
- Dr.
Zvonko Jagličić
- Dr.
Marko Jagodič
- Dr.
Vojko Jazbinšek
Code: J1-7300
Project name:
Metamaterials from liquid crystal colloids
Period: 1.1.2016 - 31.12.2018
Provider of funds logo:
Project head: dr. Miha Ravnik
Project head at F5: dr. Miha Ravnik
Applicant organisation: 'Jožef Stefan' Institute
Researchers:
- Dr.
Anna Ryzhkova
- Dr.
Miha Škarabot
- Dr.
Slobodan Žumer
- Dr.
Nikkhou Maryam
- Dr.
Matjaž Humar
- Dr.
Igor Muševič
Technical associates:
Participating research organisation: Faculty of Mathematics and Physics of the University of Ljubljana
Researchers:
- Mag.
Shun Wang
Jure Alpinc