Research Resources – List

Television and Film Studio of the Faculty of Arts at Pavol Jozef Šafárik University in Košice is an experimental media workplace operating within the Department of Slovak Studies, Slavic Philologies and Communication. It was established to support research and education focused on the interaction of sound and image in media environments, which is essential for both theoretical and practical development in philological studies.
The studio serves as a space for academic research as well as teaching in the field of mass media communication. It plays a key role in connecting theoretical knowledge with real media practice. In addition, it provides facilities and technical support for the university television UniTV, where students actively participate in creating their own media content under professional guidance.
Located in the Aristoteles building in Košice, the studio is equipped with modern audiovisual technology, including professional cameras, lighting systems, sound equipment, and editing workstations. It consists of a television studio, a professional editing suite, and multiple student editing stations, enabling both individual and team-based production work.
The studio significantly enhances students’ practical skills, creativity, and readiness for careers in media and communication industries.

The Future Classroom Lab (FCL) is an innovative learning and research environment designed to support modern teaching methods and the integration of digital technologies into education. The classroom is structured into several functional zones, each focused on a specific type of learning activity, such as collaboration, creation, presentation, research, interaction, and self-development.
The lab is equipped with advanced technological tools, including laptops, interactive displays, virtual reality headsets, audio-visual equipment, and recording devices. These tools enable students and educators to engage in active, student-centered learning, develop digital competencies, and experiment with innovative teaching approaches.
The FCL supports both educational activities and research focused on pedagogy, digital education, and learning processes. It provides a flexible environment that encourages teamwork, creativity, critical thinking, and independent learning.
This infrastructure is also used for teacher training, workshops, and the development of new educational methodologies. It promotes interdisciplinary collaboration and serves as a platform for testing and implementing innovative educational practices.

LICOLAB (Language Information and Communication Laboratory) is a leading interdisciplinary research and educational centre at the Faculty of Arts, Pavol Jozef Šafárik University in Košice. The laboratory specializes in acoustic phonetics, with a methodological focus on the analysis and resynthesis of speech signals in both the time and frequency domains. In recent years, LICOLAB has expanded into perceptual phonetics, applying clinical audiometry and calibrated technologies to better understand how speech is processed and perceived in real-world conditions.
Research at LICOLAB integrates machine learning and statistical modelling, including Hidden Markov Models, to study speech perception, interpreting processes, and suprasegmental features. Its research extends beyond linguistics into media studies, semiotics, and communication theory.
LICOLAB is not only a research hub but also a place for innovation and education. It provides a platform for experimental research and student training, with a strong emphasis on connecting theory with practice. Its activities include the design and implementation of speech and hearing experiments, creation of audiometric and speech comprehension tests, development of audiovisual stimuli and preparation of professional content for medical applications.
To maintain a high standard of hardware and software infrastructure, the laboratory features a professional recording studio, specialised software for speech and data analysis, EEG and eye-tracking equipment and a dedicated testing classroom. The LICOLAB offers an exceptional environment for high-quality research, while actively fostering collaboration, innovation and the development of practical skills.

The Psychological Laboratory of the Department of Psychology primarily serves scientific research in the field of cognitive psychology and related disciplines, for example in social cognition. Its main purpose is to create controlled conditions for studying mental processes and behavior. In Psychology laboratory we have wide range of equipment. For example, software equipment includes a program for designing experiments, presenting stimuli, and recording responses (Superlab 5) with corresponding sets of standardized stimulus materials in visual and auditory modalities (e.g., The NimStim set of facial expressions). In addition, a battery of classical cognitive tests (e.g., the Stroop test) across multiple platforms (e.g., Inquisit) or a battery of computer-adapted psychodiagnostic tests (e.g., The Vienna Test System) can be mentioned. In terms of hardware, mention can be made of the dedicated RB 840 response devices, which allow the registration of responses without latency, as well as an interface allowing the connection of other specialised tools, such as eye-tracking technology.

The Interpreting Laboratory provides a professional environment for the training of simultaneous interpreting. It enables students to practice interpreting from a variety of input sources, including pre-recorded audio, online materials, and live speech delivered via the instructor’s console.
In addition to core simultaneous interpreting skills, the laboratory is equipped with professional interpreting consoles that support the development of advanced conference interpreting techniques, such as relay interpreting, pivot interpreting, and effective booth interaction between interpreters.
The instructor interface allows for real-time monitoring of individual booths, recording of students’ interpreting performances, and the provision of targeted, individualised feedback. This setup ensures a comprehensive and practice-oriented learning experience aligned with current professional standards.

LUTIN – Laboratoire des Usages en Technologies d’Information Numériques – is a federative multidisciplinary research platform dedicated to the study of cognitive sciences, aiming to explore the relationship between humans and digital technology, within the framework of academic and industrial research. Since 2014, LUTIN has been a Research Federation under the supervision of the University of Paris 8, the EPHE-PSL, the University of Paris-Est Créteil and Universcience.

Housed within the Cité des Sciences et de l’Industrie in Paris, LUTIN supports the scientific cooperation activities carried out by its partner structures. It provides a framework conducive to hosting collaborative projects, pooling knowledge and skills, as well as networks, infrastructures and shared research platforms.

LUTIN is both a research platform dedicated to the study of digital uses and an innovation center serving fundamental and applied research. It offers a wide range of services thanks to a fleet of innovative technological equipment allowing the analysis of behavioral and neurophysiological measurements in real time (recording of eye movements, body movements, EEG, virtual reality, robotics, etc.) as well as the proximity and capacity to enroll a large body of users and volunteers among the visitors of the Cité des Sciences et de l’Industrie.

LUTIN aims to develop the acquisition of knowledge and research methods in the field of digital uses and practices, regardless of the area of application. It allows researchers to develop appropriate methodologies and techniques for observing and modeling uses, and for advanced students and engaged citizens to train in this interdisciplinary field (information and communication sciences and technologies, artificial intelligence, robotics, cognitive sciences, cognitive ergonomics).

LUTIN also aims to foster innovation by offering researchers and manufacturers the opportunity to lead open and participatory innovation projects by placing uses at the heart of innovation practice by involving target users from the design phases and throughout their development. It promotes the connection of communities of talent (researchers, manufacturers, entrepreneurs) with future users by associating public and private partners within ambitious projects that question and redefine the uses of digital technology. It occasionally allows entrepreneurs to evaluate their digital innovation before it is launched on the market.

HPLC-UV/DAD (High-Performance Liquid Chromatography with UV-Diode Array Detector) is an advanced analytical technique used for the qualitative and quantitative analysis of organic compounds. It effectively separates semi-volatile and non-volatile substances, making it valuable across various fields, including chemistry, biology, and environmental analysis.

MALDI-HRMS (Matrix-Assisted Laser Desorption/Ionization High-Resolution Mass Spectrometry) is a powerful analytical technique combining high-resolution mass spectrometry with a MALDI source. It enables the ionization of thermolabile molecules and facilitates the identification and quantification of organic compounds in complex matrices, making it ideal for various applications including mass imaging spectrometry (MSI).

Polarimetry is a technique used for the chemical analysis of organic compounds, particularly those that are optically active. By measuring the rotation of polarized light as it passes through a solution containing the solute, polarimetry provides qualitative and quantitative information about the substance being analyzed. The degree of rotation is influenced by the nature of the optically active species, the wavelength of light, and the length of the light path in the solution.

X-ray Photoelectron Spectroscopy (XPS) is a powerful, non-destructive analytical technique that provides detailed information about the chemical and electronic properties of elements present in the surface layers of materials (20-30 Å). By analyzing the kinetic energies of photoelectrons emitted upon X-ray excitation, XPS allows for the identification and quantification of elements, as well as insights into their oxidation states and chemical environments. The ProvenX-NAP System enhances traditional XPS capabilities by enabling analysis under Near Ambient Pressure (NAP) conditions, facilitating the study of surfaces in more realistic environments.

X-ray diffraction (XRD) is a non-destructive analytical technique used to identify and quantify the crystalline phases in solid materials. By analyzing the diffractograms produced when X-rays interact with crystalline structures, researchers can derive critical information about the material’s structure, composition, and properties. The Bruker D8-DISCOVER and D8-ADVANCE systems enable advanced analyses, including temperature variations, residual stress measurements, and crystallinity assessments, making XRD essential in materials science, geology, and engineering.

Raman-FTIR microscopy combines Raman spectroscopy and infrared spectroscopy to provide detailed chemical and structural information about various materials without the need for sample preparation. Using the Renishaw InVia microscope, this technique enables the analysis of organic and inorganic substances, revealing spatial distributions, layer thicknesses, and crystallinity. It facilitates a broad range of applications, from pharmaceuticals to materials science, allowing for dynamic studies and the identification of unknown materials.

The Zetasizer Ultra from Malvern Panalytical is an advanced analytical instrument for measuring size distribution and zeta potential of suspended particles and large molecules in liquid media. This versatile equipment allows for precise analysis while varying temperature, facilitating reproducible results. It is essential for characterizing nanomaterials, formulating paints and coatings, and ensuring the stability and quality of food and pharmaceutical products.

The Agilent 5500 Atomic Force Microscope (AFM) is a versatile tool for creating three-dimensional topographic maps of materials at nanometric and atomic resolutions. It operates in both contact and tapping modes, allowing for comprehensive surface characterization of a wide range of materials, including insulators, conductors, and biological samples. The AFM can also perform various measurements such as electrical conductivity, magnetic domain mapping, and nanohardness, making it essential for research in materials science, biology, and nanotechnology.

The Nikon TE 2000E Scanning Confocal Microscope is an advanced inverted optical microscope designed to capture high-resolution three-dimensional images of biological and material samples using fluorescence signals. It eliminates out-of-focus fluorescence, enabling detailed optical sectioning and volumetric analysis. Equipped with multiple excitation lasers and detection channels, this microscope is essential for colocalization studies, live cell imaging, and materials science applications, providing insights into cellular dynamics, surface properties, and more.

The Scios 2 High-Resolution Scanning Electron Microscope (FESEM-FIB) by FEI is a cutting-edge instrument that integrates a focused ion beam (FIB) and an electron beam to produce ultra-high resolution images and facilitate precise sample preparation for transmission electron microscopy. It features advanced detectors for compositional and material contrast, enabling in-depth morphological and chemical analysis of various materials, including magnetic and insulating specimens. With capabilities for 3D characterization and nanostructure fabrication, the Scios 2 is a versatile tool for nanotechnology research and material science applications.

The Quanta 600 Environmental Scanning Electron Microscope (ESEM) from FEI enables high-resolution imaging (3 nm) and analysis of materials at the micro and nanometer scale. It allows for the study of both conductive and non-conductive specimens under various pressure conditions (10⁻⁵ to 26 mbar) and temperatures (-20 °C to 1500 °C). ESEM provides morphological and topographical observations, energy dispersive X-ray spectroscopy (EDX) for elemental composition analysis, and dynamic experiments including humidity and temperature cycles, making it versatile for various applications in materials science, biomedical research, and quality control.

The JEOL F200 is a cutting-edge Transmission Electron Microscope (TEM) designed for atomic resolution imaging and analysis across various fields, including materials science and life sciences. With advanced features such as a cold field emission gun, multiple detector configurations, and high-speed imaging capabilities, the F200 facilitates detailed characterization of nanostructured materials, 2D materials, and biological samples. Its flexible design supports in-situ experiments under varying conditions, making it a versatile tool for researchers.

Transmission Electron Microscopy (TEM) is a technique that uses an electron beam to study the morphology, crystallinity, and chemical composition of materials at the micro and nanoscale. It provides high-resolution images (0.2 nm) and allows detailed analysis of biological and nanostructured materials, such as proteins, nanoparticles, and thin films.

The library of Roman, Medieval and Modern Law At the includes mainly volumes and periodicals of Romanesque area, coming not only from the Legal Institutes but also from the continuous purchases made by the Department over the years, as well as precious legacies and gifts (as in the case of the Arangio-Ruiz, Amirante, Mazzacane, Solazzi funds). It also includes works of History of Medieval and Modern Law, as well as a valuable and substantial collection of precious ancient volumes.

The library of constitutional law of the Department of Jurisprudence of the University of Naples Federico II houses volumes on the discipline of constitutional law, public law and comparative public law. You can find older volumes and treatises and more recent books. There are also scientific journal and review concerning constitutional and public law.

The apparatus allows to carry out resonant column and torsional shear tests on the same saturated soil specimen, applying effective isotropic confining stress ranging between 20 kPa and 800 kPa. The torque actuator allows to investigate the non linear mechanical behaviour of both soft and hard soils up to a maximum shear strain of about 0.5%. Shear modulus and damping ratio of soil can be measured at increasing shear strain. strain rate behaviour of soil can also be investigated.
Tests can be performed in undrained and drained conditions measuring pore pressure build-up and volume change respectively.

The large triaxial cell apparatus allows to perform tests on gravelly soils. The specimens with two dimensions (diameter=100 mm, height=200mm and diameter=200 mm, height=400mm) can be tested. Cyclic and monotonic tests can be performed.

The cyclic simple shear cell is a sophisticated apparatus, which can work with a double configuration: with rigid and flexible boundaries. In the latter, specimen is enclosed with an unreinforced latex membrane confined by pressurized water. A sophisticated control system allows to guarantee the K0-condition. This apparatus can perform cyclic and monotonic tests. It is particularly suited to evaluate the liquefaction resistance of soils.

The Study Centre on Reason of State and Democracy (www.ragionidistato.it) is endowed with its own library consisting of a specialised collection on the themes of Reason of State, Tacitism, Machiavellianism in the early modern age, and a selected fund dedicated to democratic political theory.

The ARS RoSA (Archivio della Ragion di Stato / Reason of State Archive) fund consists of more than 2000 volumes that are currently being catalogued and reordered, as well as an important collection of documentary and digital material expressly dedicated to the multiple historical and theoretical declinations of the theme of ‘ratio status’.

The Core Facility Interdisciplinary Center for Analytics on the Nanoscale (ICAN) at the University of Duisburg-Essen combines machines, methods and scientific expertise for analysis on the nanometer scale. The core of ICAN is the microscopy center in the NanoEnergieTechnikZentrum (NETZ) in Duisburg. With brand new laboratories, specially designed for the newest machines, the microsopy center is perfectly equipped for the most sensitive measurements down the atomic length scale.

At NETZ, we seek to develop sustainable methods for each step in the process chain: from synthesizing and refining functional materials to integrating these materials into finished components and devices. In each step, we strive to analyze and understand the mechanisms that operate on every relevant scale. This expertise enables us to formulate rules that are as generally applicable as possible – and to tailor the outcome of an individual process to reach the desired goal.

The Historical Library houses an ancient book heritage of about 6-7000 volumes including monographs and prestigious collections, representing an unparalleled historical-scientific reference for the physical and chemical sciences. Among them: Antoine Lavoisier Trattato elementare di Chimica, Venezia 1796; Antoine-Francois De Fourcroy. Systeme Des Connaissances Chimiques. Paris 1801, First Ed.; Annales de Chimie, Paris 1789-1840, First Ed.; Mathieux Orfila. Trattato de’ Veleni. Napoli 1834, First Ed.; Marie Curie. Recherches sur les Substances Radioactives, Paris 1904.

Transmission electron microscopy enables direct observation of the specimen under near native conditions. The specimen does not undergo any chemical treatment and the data present direct observation of the sample immobilized in the solution of interest.

Small angle X-ray scattering is powerful tool for characterization of particle`s size in nanoparticulate systems. It can be used for measurement of the systems containing particles with sizes up to 100 nm.

The magnetic measurements provide information about superparamagnetic and blocked state of as prepared magnetic nanoparticles. By the analysis of ZFC-FC curves we can extract the value of blocking temperature and predict the mutual magnetic interactions between the nanoparticles. The hysteresis loops interpretation and hysteresis parameters support the data retrieved from ZFC-FC measurements and confirm the magnetic nature of samples.

X-ray powder diffraction is universal technique for characterization and/or identification of powder materials. This method is a powerful tool which provides information concerning phase composition (identification of crystalline phases, quantification of crystalline phases), structural analysis of powder samples, determination of crystallinity (MCL, mean X-ray coherence length), and determination of content of amorphous component.

Mössbauer spectroscopy provides the information about local surroundings of probed iron atoms. By the interpretation of Mössbauer spectra and its hyperfine Mössbauer parameters we can estimate the valence state, oxidation state, spin state, magnetic state of prepared samples.

Triaxial test, direct shear test (100×100 mm and 300×300 mm) and simple shear test; compression tests, Special laboratory tests; e.g.

CBS Library is university library for Copenhagen Business School and is open to the public. The primary task of CBS Library is to make information, knowledge and services available in a structured and manageable way. The library is an integral part of CBS and attend to tasks regarding information, learning and dissemination for CBS’ students, researchers and lecturers. In addition to this, the library is a public library and make information, services and study facilities available to others than CBS.

“Facilities available:
– Sharebot Q 3D polymer printer
– Sharebot 42 3D polymer printer
– Markforged X7 3D polymer and composite printer
– Full equipment to produce polymer wires for 3D printing starting from both new and recycled materials
– Power quality analizer – Chauvin Arnoux 8331
– Gabi software for professional LCA analysis
– Hitachi TM 3000 SEM equipped with National Instruments EDX microprobe and Deben minitensile stage
– Leica DCM 3D Confocal Microscope
– Universal testing Machine 50 kN Galdabini Quasar
– Biologic SP 150 Potentiostat and Galvanostat with low impedance modulus for electrochemical analysis
– Rotating beam fatigue machine
– A series of light microscopes for various analysis
– A fully equipped metallographic preparation lab.”

Laboratory of Scanning Electron Microscopy (SEM) at DiSTAR is equipped with a SEM Jeol JSM5310 and a FESEM ZEISS Merlin VP. They both allow the investigation of the microstructure and morphology of raw inorganic and suitably prepared organic materials, through the acquisition of high resolution magnified digital images.
SEM Jeol JSM5310, in the lab since 1998, provides both 3D images through a secondary electron detector (SE) and topographic and compositional images through a backscattered electron detector (BSE). It is also equipped with an EDS X-Stream Inca Oxford detector that supplies qualitative evaluation of chemical elements starting from fluorine. A well performing reference standardization allows single point analyses of polished samples (resin embedded or thin sections).
The FESEM ZEISS Merlin VP SEM, available in the lab since 2017, works both in high vacuum and in variable pressure and reaches 1 million magnification. The very large vacuum chamber of Gemini 2 apparatus hosts samples up to 15 cm diameter. This SEM is equipped with an “”inlens”” detector of both secondary and backscattered electrons, a normal secondary electron detector and a variable pressure secondary electron detector. It is linked to an EDS Oxford X-Max detector and to a WDS Wave Oxford spectrometer equipped with 4 analytical crystals. The combined use of EDS and WDS analytical facilities allows the quantitative analysis of chemical elements starting from Boron. A dedicated software provides us with compositional maps for the automated evaluation of the mineralogical composition in an unknown sample. The FESEM facility allows non-destructive and non-invasive analyses of large samples, which makes this apparatus the most powerful tool for SEM investigation in cultural heritage and forensic geology fields. The laboratory is officially accredited for SEM analysis of asbestos, on both massive samples and airborne fibers.

Mass spectrometry is an analytical tool useful for measuring the mass-to-charge ratio (m/z) of one or more molecules present in a sample. These measurements can often be used to calculate the exact molecular weight of the sample components as well. Typically, mass spectrometers can be used to identify unknown compounds via molecular weight determination, to quantify known compounds, and to determine structure and chemical properties of molecules.

NMR is an abbreviation for Nuclear Magnetic Resonance. An NMR instrument allows the molecular structure of a material to be analyzed by observing and measuring the interaction of nuclear spins when placed in a powerful magnetic field. For the analysis of molecular structure at the atomic level, electron microscopes and X-ray diffraction instruments can also be used, but the advantages of NMR are that sample measurements are non-destructive and there is less sample preparation required. Fields of application include biology, foods, and chemistry, as well as new fields such as battery films and organic electroluminescence, which are improving and developing at remarkable speed. NMR has become an indispensable analysis tool in cutting-edge science and technology fields.

The Scientific and Technical Resources Service (SRCiT) provides technical support to the research, development and transfer activity that takes place at the URV and also to the companies and institutions.

This is a state-of-the-art project that makes analysis protocols available to the scientific community and professionals using the most advanced infrastructures in the field of mass spectrometry. These are three state-of-the-art high-resolution mass spectrometers, which allow the detection, confirmation of organic compounds and the analysis of unknowns in different types of samples. Fields of application range from metabolomics to the environment and industry. The three technologies that the HRMS CATSUD-URV Platform incorporates are: GC-HRMS (Exactive GC is a high-resolution system consisting of a mass spectrometer and a gas chromatograph); UHPLC-HRMS (Orbitrap ID-X Mass Spectrometer ™ Tribrid ™ is an integrated mass spectrometer consisting of the combination of three mass analyzers (quadrupole, a double cell ion trap and the Orbitrap) with dual fragmentation techniques (CID and HCD), coupled to the Vanquish high-resolution liquid chromatograph Flex UHPLC, for very sensitive and ultra-high resolution MSn analysis); MALDI-HRMS (Exploris 120 Mass Spectrometer from Thermo Scientific with a Spectroglyph MALDI source, combines a high-resolution mass analyzer for accurate mass detection, coupled to a matrix-assisted laser desorption/ionization source (MALDI))

This is an innovative project that aims to provide the scientific community and professionals with advanced infrastructures for work and analysis at the nanometer or lower scale. The Platform uses two high-resolution electron microscopy equipment that are integrated into the Microscopy and Nanometric Techniques Area. The two technologies that make up the CATSUD-URV Nanotechnology Platform are: High-resolution scanning electron microscope (FESEM-FIB) and FETEM – Transmission Electron Microscope of atomic resolution.

Equipment of the archaeology laboratory for cleaning finds, restoration of ceramics, preservation of metals and glass, records of finds, drawing and photographic documentation of finds.

Supercomputer cluster equiped with programs to run theoretical chemistry calculations

Development, testing of biological effectiveness and registration (commercial use) of synthetic phytohormone derivatives (alone or in a mixture with fertilizers). We are equipped with the following mechanization: plot drill machine, combine harvesters, mechanization for fertilizing and spraying the plots, laboratory for seed and plants preparation. The cultivated area is 5 ha and we have experienced staff for verifying the biological activity of substances in field experiments on wheat, barley, corn, canola and other crops

The instrument allows performing reactions under microwave irradiation at temperatures and pressures up to 300 °C and 300 psi in either 10 mL or 35 mL sealed vessels at 0.2-7.0 mL and 2.0-25.0 mL scale, respectively.

The equipment is suitable for the transfer of technologies from laboratory scale to semi-pilot and pilot scale production, as well as for the large scale syntheses of up to 500 g of products. Equipment consists of duplicated glass reactor 10 L with accessories (anchor stirrer with speed control, thermometer (PT 100), cooler, distillation flask), extractor (liquid – liquid; glass; 20 L; propeller with speed control) and isolation filter for solid products (stainless steel with PTFE inert coating).

NMR spectrometer is dedicated to liquid samples measurement and can be equipped with 5mm Royal Probe with automatic tuning and matching or 3mm BBI probe. Auto sampler for 24 samples together with Royal Probe allows continuous measurement for 24/7 at room or elevated temperature.

High performance liquid chromatographer for analytical and semi-preparative purifications

NMR spectrometer can be used for measurement of liquid samples as well as for solid state NMR. For liquid samples is used 5mm HFX-Royal Probe, which allows to measure 19F NMR with 1H decoupling. The samples can be measured in temperature range from -100°C to + 140°C. For solid state NMR, 4mm VT HXMAS probe is used at room or elevated temperature.

Prusa 3D printer to make 3D prints out of PLA, PETG and ABS plastics out of models (e.g. molecules)

We have long and succesful experience with isolation and cultivation of several animal and human primary cell cultures such as neonatal rat cardiomyocytes, rat and human hepatocytes, human keratinocytes, human umbilical cord endothelial cells, human dermal and gingival fibroblasts

Used to study the chemical composition of all kinds of samples (gas, liquid, solid), such as natural products, organic and inorganic pigments, or minerals – suitable for qualitative and quantitative analyses in both far- and mid-infrared regions

Used to identify the chemical composition of the solid or liquid samples, e.g. waxes, gels, pastes, filaments, pieces of wood and other natural samples, minerals, and metal pieces, etc. – suitable for qualitative and quantitative analyses

This phantom allows testing of X-ray based imaging techniques (including CT).

Ultrasound machine suitable for whole-body imaging

The Necropsy room is equipped with a big necroscopic table (cm 248×129) provided with an elevator system and four small necroscopic tables (cm 130×50). All tables comply with biosafety and biosecurity standard. A refrigerated room (+2°C) cm 281x108x235 and a freezing room (- 20°C) cm 281x108x235 allow storage of large amount of material. The room is equipped with four sinks for washing and disinfection of tools utilized for necropsy activities and an aluminum cabinet allows their preservation. All the procedures are carried out in compliance with the biosafety and biosecurity rules. A laboratory hood allows the storage and processing in complete biosafety of the tissues taken during the necropsy for the execution of collateral examinations (histological, bacteriological, toxicological examination).

The Center for Instrumental Analysis is the is the shared instrument facility for chemical analysis at the Department of Pharmacy. It includes 3 high-field NMR spectrometers (700 MHz, liquid 1H/13C/15N 5 mm cryo-probe or CP-MAS probe; 600 MHz, 1H/13C/15N/31P 5 mm cryo-probe, SampleJet autosampler; 400 MHz, 1H/BB 5 mm inverse probe), one Linear Trap LC-MS system, one Triple Quadrupole LC-MS system, one Single Quadrupole GC-MS system. Purchase of a high-resolution Orbitrap instrument is planned.

The IT platform is employed to publish and disseminate e-book series in Open Access. Share Books has been created by the University of Naples “Federico II “- Centre for Libraries. Since 2015 hosts the research publications of the Universities participating in the SHARE alliance, which involves the collaboration of 11 Universities of Southern Italy. Research publications are submitted to a double – blind peer – review process and are published in Italian and in English. The University of Naples Federico II owns a digital publishing brand, FedOA Press.

The ‘private cloud infrastructure was installed at the San Giovanni a Teduccio Campus and it is managed using containers and Kubernetes. The resources are divided among nodes for the collection, storage, processing and use of results using Business Intelligence techniques. In particular, the resources include two different types of machines: 1 DGX from Nvidia; 4 machines also equipped with a GPU from Nvidia. In addition, a storage system with about 750 TB of SSD storage has been deployed.

The ICT for Health project of the Department of Electrical Engineering and Information Technology (DIETI) has been selected among 180 national projects of Departments of Excellence funded by MIUR in 2017. The project has a five-year duration (2018-2022) for a funding share of €9,330,030.00 and a co-financing share of €2,506,000.00. The investment in infrastructure of the Departments of Excellence project was also used for the creation of an eHealth Big Data Analytic laboratory based on a public Cloud infrastructure and local datacenter, as well as upgrading the pre-existing infrastructure of DIETI laboratories through the acquisition of new instrumentation. The public Cloud infrastructure, based on Amazon Web Services (AWS) and managed by TIM SPA, is based on AWS Cloud resources for 3 years. The resources are divided among nodes for collecting, storing, processing data, also investigating the outcome through Business Intelligence techniques. In particular, the resources include: 4 hosts (virtual machines running Linux) configured as c5.2xlarge with 8 CPUs and 16 GB RAM; 2 instances of GPU-based virtual machines managed through Amazon SageMaker. 1 Elastic Map Reduce (EMR) cluster equipped with 2 EMR Core (r5d.2xlarge) and 3 EMR Master (r5d.2xlarge) nodes.

X’Pert diffractometer is a state-of-the-art X-ray powder diffractometer, capable of offering a very wide range of analyses and the possibility a complete characterization of geological and ornamental geomaterials. It is equipped with a theta/theta geometry goniometer with 45-position automatic sample changer and fast RTMS X’Celerator detector. Analysis of minerals, rocks, archaeological finds and various materials, both natural and synthetic, can be performed, and both qualitative interpretation and quantitative evaluation by Rietveld method are provided. The samples investigated include mainly silicates and non-silicates from different geological origins, samples from metalliferous deposits from various areas of the world, and metallic and lithoid materials for mineralogical studies of archeometric type.

The In Cell 2200 is an extremely sensitive instrument based on an automated microscope, dedicated to cell imaging that allows the extremely rapid visualization of live and fixed cells, in microplates or slides, but also of subcellular organelles and small microorganisms by using modules for temperature, humidity and CO2 control;

HIGH PERFORMANCE COMPUTING SERVER – 2 AMD EPYC 7552 48-Core Processor, 190 cores – 900 GB RAM STORAGE – 7 TB NVMe SSD

The FEI Nova NanoSEM scanning electron microscopes combine best-in-class imaging with superb analytical performance in one easy-to-use instrument combining very low kV imaging and analytical capabilities with unique low vacuum performance to meet your most demanding nanoscale characterization requirements. The microscope is equipped with TLD, EDT, BSE and LVD detectors.

The Tecnai G2 S-TWIN is an easy to use transmission electron microscope (TEM) designed to provide high-resolution imaging in materials sciences, nanotechnology and life science applications. Accelerating voltages ranging from 20 kV to 200 kV are ideal for polymers and biological matrices and provide the low voltage capability needed to minimize beam damage to delicate structures. The instrument is equipped with 4K Eagle camera.

This infrastructure is part of the Roadmap to Icelandic infrastructure and is being set-up and therefore not available yet.
i. Cell analysis and sorting facility. In recent years, methods that allow phenotyping of cells have become even more important to understand sub-populations and interactions among cells. Major progress has been made and now instruments have been developed that allow analysis of over 20 molecules per cell. This technology is a real necessity for diverse fields of biosciences, from basic science to the identification of cells needed for cellular therapy.
ii. Imaging facility. Microscopy and imaging have undergone major improvements in the last few years. In addition to constant improvements in conventional, fluorescent, confocal and electric microscopy, now newer instruments have been developed such as multi-photon, light sheet and super-resolution microscopes.
iii. Small animal facility. The University of Iceland Biomedical Center and ArcticLAS have been building a modern infrastructure for small animal experiments. The long-term goal is to move this infrastructure into academic surroundings, improve and expand it.
iv. Genomics facility. Major improvements have occurred in genomic technology, and these techniques are used in more and more bioscience fields. We aim to build a sequencing facility that allows for long range sequencing as well as single cell sequencing approaches.

This infrastructure is part of the Roadmap to Icelandic infrastructure and is being set-up and therefore not available yet. The objective is to build up the necessary infrastructure to strengthen this capability and create new possibilities for research and development within materials science and materials engineering in Iceland. The infrastructure will facilitate synergy between fields, and through that new possibilities, research directions and development in numerous fields including materials science, nanotechnology, solid state physics, advanced manufacturing, large scale production and biomedical technology, and will bring research and development capabilities in Iceland up to high international standards.

EFNGREIN is part of the Roadmap to Icelandic infrastructure and is being set-up and therefore not available yet. The EFNGREIN project aims to advance, maintain and improve access to infrastructure that is necessary for carrying out chemical analysis on a wide variety of molecules. Thus EFNGREIN will support research and development in Icelandic universities, research institutions and industry, within the fields of medicine, pharmacy and pharmaceutical sciences, the molecular life sciences, biotechnology, medical and chemical engineering, nutrition and chemistry.

The Analytics Core Facility Essen (ACE) is a central facility of the Center of Medical Biotechnology (ZMB) and of the Faculty of Biology of the University Duisburg-Essen. It offers access to state-of-the-art mass spectrometry-based proteomics for internal and external users. The timely technical equipment of the ACE allows us to provide a wide variety of different “bottom-up” and “top-down” proteomics methods. Furthermore, we also develop innovative solutions for project-specific demands. The service comprises all aspects of mass spectrometry-based proteomics, starting from technical advice and project planning, sample preparation and analysis to data analysis, data management and interpretation of results.

The ICCE provides the following services for all ZMB researchers and collaborating groups of the University Duisburg-Essen or external universities and research institutions: (i) state-of-the-art equipment for advanced light microscopy techniques, (ii) technical advice in sample preparation and (iii) support in image analysis

In the “Genomics Core Facility” (GCF) at the Aquatic Ecosystem Research Group, high-throughput analyses are performed to characterize biodiversity. A major focus is on the characterization of animal communities from bulk samples as well as from environmental DNA (eDNA) using the “DNA metabarcoding” technique. In addition, the GCF performs central analyses (metabarcoding, metagenomics, metatranscriptomics) for the DFG Collaborative Research Center 1439 “RESIST”.

The “Central Collection of Algal Cultures (CCAC)” at the University of Duisburg-Essen (UDE) is one of the largest collections of algal cultures worldwide (formerly Culture Collection of Algae at the University of Cologne). The CCAC was formally established in spring 2001, associated with membership in the “World Federation for Culture Collections”. The CCAC is part of the “World Data Centre for Microorganisms” and a member of the “European Culture Collections’ Organisation”.

Centerpiece of the Erwin L. Hahn Institute at the University of Duisburg-Essen is a whole-body ultrahigh field (UHF) MAGNETOM Terra 7-Tesla MRI System from Siemens Healthcare operating at a magnetic field strength of 7 Tesla. The 7 Tesla UHF MRI system provides a much higher sensitivity for structural and functional measurements in the human body. Thus, cross-sectional images with excellent image contrast and very high detail resolution can be produced.

The services of the Genomics and Transcriptomics Facility comprise genomic analyses via next generation sequencing, microarrays and real-time PCR. These include particularly the following tasks: consultation for project planning and selection of the appropriate method; consultation for and conduct of sample preparation and data analyses; technical support; quality control of the samples and intermediate products; development, establishment and optimization of methods.

The Light Microscopy Unit of the Imaging Center Essen runs state-of-the-art widefield, confocal, superresolution, multiphoton and light-sheet microscopes and a fast slide scanner. It also operates an S2 cell sorter, a whole-body fluorescence and luminescence imager and a pre-clinical ultrasound. The Electron Microscopy Unit operates a 120 kV TEM with tomography options and a dual-beam SEM that can be used for FIB/SEM tomography, array tomography and cryo-SEM. Comprehensive sample preparation equipment is available for both imaging modalities.

The West German Biobank Essen stores blood, blood derivates, urine as well as FFPE and snap frozen tissue. Besides the storage, administration and provision of samples, the WBE offers further services: production of tissue microarrays, slide scanning and extraction of nucleic acids. Before samples and data can be provisioned, a proposal has to be submitted to the scientific advisory board. The board reviews each proposal and consults further experts if necessary.

The motion analysis system with 8 Vicon Bonita 10 cameras is a system for marker-based motion detection. It consists of: (1) 8 high-speed infrared cameras that telemetrically capture the position of reflective markers in calibrated space; (2) force plates that measure ground reaction forces; (3) a computer system that synchronizes the measurement equipment and stores the data; (4) software for marker data tracking and biomechanical modeling; (5) an additional normal light high-speed camera; (6) a module for synchronization with an EMG measurement device. Typical application is the measurement and biomechanical modeling of human motion as used in sports science, exercise science and medicine.

Doppler Wind Lidar (Halo Photonics Stream Line XR) to measure wind and aerosol structure in the atmospheric boundary layer.

The research site in Obermieming, a red pine forest at an altitude of 980 m a.s.l., has been under construction since 2018 by a consortium of the Institutes of Ecology, Botany, Atmospheric and Cryospheric Sciences and Geography. The equipment of this research site includes an air-conditioned instrumentation container with power supply and wireless internet connection, a 30 m high measurement tower for micrometeorological measurements and a 6 m high walk-in tower for ecophysiological measurements. The towers are equipped with a wide range of sensors for quantifying micrometeorological and ecological processes.

The electron beam microprobe is used for qualitative and quantitative chemical analysis of solids with a spatial resolution in the range of not less than approx. 5 µm and can detect elements in the atomic number range Z=5-92 in the version available at the Institute of Mineralogy of the University of Innsbruck (W or LaB6 emitter, 5 WDX spectrometers, 1 EDX detector, 1 CL detector) and quantify them depending on the concentration range

Approx. 1000 m² water construction laboratory, equipped with two pumps with total capacity (Q) of 400l/s, one pump with Q=100l/s, one pump with Q=50l/s, high pressure pump Q=50l/s (head=80m), submersible pump Q=92l/s with head 11m

The NanoLab of the University of Innsbruck (NanoLab Innsbruck) was installed in 2008 and has been continuously expanded since then. It includes microscopy, analytics and mechanical materials testing as well as special areas such as thin film technology and fire protection. It is part of the research initiative “Advanced Materials” of the University of Innsbruck and is located at the “Campus Technik”, Innsbruck.

Devices and sensors for the analysis of stable carbon isotopes in CO2 and methane.

Induction Plasma System Teksphero-15: The Teksphero-15 enables spheroidizing of powder feedstock.
System features:
– Inductively coupled plasma generated by a signal generator with a power of 15 kW at a frequency range of 2 – 5 MHz.
– Spheroidizing reactor is suitable for use with reactive metals
– Vacuum powder collection system
– Vibratory powder feeding system
– Cyclone chamber for filtering fine powder Laboratory equipment for selective laser melting 400 W / 1100°C: The laboratory system enables additive (generative) manufacturing of components from materials that cannot be processed with conventional selective laser melting equipment.
Plant features: – Installation space can be heated up to 1100°C – 400 W fiber laser
– Size of build platform: dia. 170 mm
– Low O-content of 10 ppm
– Dual laser melting system AconityMidi
– Build platform heatable up to 800°C – 400 W / 1000 W fiber laser

The “Innsbruck Atmospheric Observatory (IAO) for Environmental Research in Alpine and Urban Terrain” is a core facility for physical and chemical observation of the atmosphere in urban areas embedded in the complex terrain of an alpine valley. The IAO is used for long-term monitoring as well as for targeted measurement campaigns. It consists of a permanent and a mobile infrastructure part.

Interfaces play a crucial role in multiphase systems in terms of material properties due to phase adhesion. Basis for characterization, modification and control of the interface in multiphase systems is thus the key for the development of new materials. The Core Facility “Interface in Hybrid Systems” provides research infrastructure for structural elucidation (chemical and physical) of interfaces in hybrid structures and contributes to establish fundamental understanding of interfacial phenomena.

Contract research and routine investigations in the field of electromagnetic compatibility and antenna measurement technology

Innsbruck Box (or i-Box for short) is a test bed for studying boundary layer processes in highly complex terrain. Designed to be a long-term “reference box” for studying the characteristics of turbulence structure and exchange processes in truly complex topography, i-Box represents an integrated approach combining three-dimensional long-term turbulence observations with high-resolution numerical modeling. Turbulence structure plays an important role in exchange processes of momentum, mass, and energy between the earth’s surface and the atmosphere. These processes are crucial for, e.g., numerical weather forecasts or climate scenario simulations, but are not yet fully understood, particularly not in complex topography. The goal of the project is to form a complete and physically based description of turbulence characteristics in complex terrain.

The Austrian Core Facility for Scientific Core Analysis provides state-of-the-art laboratory infrastructure for logging and scanning of cores obtained by drilling and coring. The facility is equipped with three core scanners: a Geotek Multi-Sensor Core Logger, a Smartcube Camera Image Scanner and a COX Analytics ITRAX XRF core scanner. All scanners make use of non-destructive analysis techniques to provide high-resolution optical, physical-property and element chemical data for scientific core analysis.