Laboratory B02 - Photovoltaic Cell Testing and Characterisation is dedicated to testing, characterising and evaluating the performance of photovoltaic cells and modules, providing the infrastructure required for analysing the electrical and functional parameters of solar energy conversion systems. Through the equipment available, the laboratory supports research, development and training activities in the field of photovoltaic technologies, contributing to the assessment of the efficiency, reliability and safety of the components used in renewable energy generation systems.
The laboratory's facilities include a photovoltaic cell testing and characterisation system manufactured by Oriel Instruments, used to determine the electrical characteristics and energy performance of photovoltaic cells under controlled laboratory conditions. This equipment allows the analysis of current-voltage (I-V) curves, the determination of maximum generated power, and the evaluation of solar energy conversion efficiency.
To verify electrical safety conditions, the laboratory is equipped with an insulation voltage tester for photovoltaic modules, manufactured by HT Instruments, used to identify any insulation faults and to assess the compliance of modules with the applicable technical requirements and safety standards.
The laboratory is also equipped with a system for characterising photovoltaic module strings, manufactured by HT Instruments, which allows the analysis of the electrical behaviour of module assemblies connected in series or in parallel. This equipment facilitates the identification of performance losses, the detection of faults, and the evaluation of the operating parameters of photovoltaic installations under conditions close to real-world operation.
Through its experimental infrastructure, Laboratory B02 supports applied research, technological testing and academic training in the field of renewable energy, providing a suitable framework for studying the performance and reliability of modern photovoltaic systems.
Responsible: Dorin Leț
Laboratory B03 - Physico-Chemical and Sensory Analysis of Viticultural and Winemaking Products specialises in the physico-chemical analysis and sensory evaluation of viticultural and winemaking products, providing the infrastructure required for determining the quality, authenticity and compliance parameters of wines and other grape-derived products. The activities carried out within the laboratory focus on characterising chemical composition, monitoring the technological processes specific to the wine industry, and evaluating the organoleptic properties that influence the final quality of the products.
The laboratory's facilities allow a broad range of specific analyses to be performed. Total acidity is determined using an HI84502 acidity titrator manufactured by Hanna Instruments, equipment used to assess one of the most important indicators of wine quality and stability. Sulphur dioxide content, an essential parameter for the preservation and microbiological protection of wine products, is analysed using an HI84500 sulphur dioxide analyser manufactured by Hanna Instruments.
For the assessment of the acid composition of wines, the laboratory has an HI83748 tartaric acid analyser manufactured by Hanna Instruments, intended for determining the concentration of this organic acid, which plays an important role in the stability and sensory profile of viticultural and winemaking products. Active acidity is measured using a pH meter, employed to monitor the parameters that influence biochemical processes, microbiological stability and the organoleptic characteristics of wines.
The sugar content and the degree of ripeness of the must or wine are determined using an RF-PDF digital refractometer manufactured by SCITEK, as well as other refractometers available in the laboratory. An ebulliometer, equipment specific to oenological analysis laboratories, is used to assess alcohol concentration and to monitor fermentation processes.
The laboratory is also equipped with instruments for conditioning and storing samples, including an HWC 200 EELW/N wine refrigerator manufactured by HOOVER and a refrigerator for sample conditioning, which ensure that the optimum temperature conditions required for analyses and sensory evaluations are maintained.
Through its analytical and experimental infrastructure, Laboratory B03 supports research, quality control, product development and academic training in the fields of viticulture and oenology. The equipment available allows the complete characterisation of viticultural and winemaking products, contributing to the optimisation of technological processes and to ensuring high standards of quality and food safety.
Responsible: prof. univ. dr. Gabriela Teodorescu, Andreea Laura Bănică
The Laboratory - Photovoltaic Module Assembly and Testing is dedicated to the fabrication, interconnection, lamination and functional evaluation of photovoltaic modules, providing the infrastructure required for studying the technological processes specific to the conversion of solar energy into electricity. Through the equipment available, the laboratory supports applied research, experimental development and practical training in the field of photovoltaic technologies.
The laboratory's facilities include equipment for the interconnection and assembly of photovoltaic cells, used to create the electrical connections between cells and to configure the structures required for producing photovoltaic modules. This equipment allows the investigation of the technological stages of assembly and the optimisation of the processes that influence the performance, stability and reliability of the resulting modules.
The laboratory has a laminator for photovoltaic modules, equipment essential for encapsulating the cells and protecting them against mechanical, thermal and environmental factors. The lamination process contributes to increasing the durability of photovoltaic modules and to ensuring that they operate under conditions similar to those encountered in real-world use.
To evaluate the performance of the modules produced, the laboratory is equipped with a solar simulator for photovoltaic modules, manufactured by Endeas. This allows modules to be tested under controlled irradiance conditions, facilitating the determination of the relevant electrical parameters, the analysis of functional behaviour and the assessment of solar energy conversion efficiency.
Through its technological and experimental infrastructure, the laboratory contributes to developing skills in the design, fabrication and testing of photovoltaic modules, supporting applied research, technology transfer and academic training in the field of renewable energy and modern photovoltaic systems.
Responsible: Dorin Leț
Laboratory B05 - Prototyping and Eco-Design in Mechanical Systems is dedicated to the development, testing and optimisation of mechanical products and components through the use of modern design technologies, additive manufacturing, digitisation and experimental evaluation. The laboratory provides the infrastructure required for producing functional prototypes, analysing the mechanical behaviour of structures, and integrating eco-design principles into the product development process.
The activities carried out within the laboratory aim to reduce environmental impact by optimising material consumption, to increase the efficiency of design processes, and to develop sustainable technical solutions. The research conducted allows the mechanical performance of products to be assessed as early as the prototyping stage, contributing to a reduction in the time and costs associated with the development process.
The laboratory is equipped with the MTS-BIONIX multiaxial dynamic testing system for mechanical parts, used to investigate the behaviour of materials and components subjected to complex loading. This allows strength, durability and reliability tests to be carried out under controlled conditions, providing relevant data for validating design solutions and optimising mechanical performance.
For the digitisation and three-dimensional reconstruction of components, the laboratory has an EXASCAN portable 3D scanner, used for the rapid and accurate acquisition of object geometry. This equipment supports reverse engineering, dimensional inspection, digital modelling and the development of prototypes based on existing components.
The rapid prototyping process is supported by the FORM 1 SLA stereolithography system, which allows three-dimensional components and models to be produced with a high degree of precision and surface quality. The 3D printing technology used facilitates the validation of design concepts, the production of functional prototypes and the development of innovative products in the field of mechanical systems.
Through its experimental and digital infrastructure, Laboratory B05 supports applied research, technological development and knowledge transfer in the field of mechanical engineering, contributing to the promotion of eco-design concepts, innovation and the sustainable development of modern mechanical products and systems.
Responsible: Mihai Simona
Laboratory B06 - Renewable Energy Systems, Energy Security and Predictive Modelling for Buildings and Industry - NextGen Energy Lab is dedicated to the research, development and evaluation of sustainable energy technologies, with the aim of analysing the performance of renewable energy systems and developing intelligent solutions for increasing energy efficiency in buildings and industrial applications. The laboratory provides the infrastructure required for monitoring energy and environmental parameters, modelling the behaviour of energy systems, and experimentally validating solutions based on renewable sources.
The activities carried out within the laboratory focus on assessing renewable resources, analysing the performance of photovoltaic and wind systems, monitoring climatic conditions, and developing predictive models for optimising energy consumption and generation. The research conducted contributes to increasing energy security and to the efficient integration of renewable sources into modern energy infrastructures.
The laboratory is equipped with specialised instruments for measuring environmental parameters and renewable energy resources, including a KIPP & ZONEN CV2 pyranometer for monitoring solar radiation and a Steinberg weather station with WiFi connectivity, integrated sensors and climatic parameter logging functions. This equipment allows the collection of the data required for analyses of the availability and variability of renewable energy resources.
For experimental and educational activities, the laboratory has an ESTI RC/0488 solar cell, solar energy kits, a wind turbine kit and a fuel cell kit, which facilitate the study of the operating principles of the main renewable energy conversion technologies and the assessment of their performance under different operating conditions.
The measurement and analysis infrastructure is complemented by advanced electronic and electrical instruments, including a Chauvin Arnoux C.A 876 digital multimeter, a PeakTech P 1640 TECH multifunction measuring instrument, GW Instek GDM-541 digital multimeters, a PeakTech 3730 resistance and capacitance tester, an MI 3103 DigiAΩ megohmmeter for measuring insulation resistance, and a Rigol DS-5102C digital oscilloscope. This equipment allows the characterisation of electrical circuits, signal analysis, and the evaluation of the functional parameters of energy and electronic systems.
Through its experimental infrastructure and its monitoring and modelling capabilities, Laboratory B06 supports applied research, technological development and academic training in the fields of renewable energy, energy efficiency and intelligent energy management systems, contributing to the development of innovative solutions for the energy transition and the sustainability of the built environment.
Responsible: Gabriela Mântescu
Laboratory B06 - Renewable Energy Systems, Energy Security and Predictive Modelling for Buildings and Industry - NextGen Energy Lab is dedicated to the research, development and evaluation of sustainable energy technologies, with the aim of analysing the performance of renewable energy systems and developing intelligent solutions for increasing energy efficiency in buildings and industrial applications. The laboratory provides the infrastructure required for monitoring energy and environmental parameters, modelling the behaviour of energy systems, and experimentally validating solutions based on renewable sources.
The activities carried out within the laboratory focus on assessing renewable resources, analysing the performance of photovoltaic and wind systems, monitoring climatic conditions, and developing predictive models for optimising energy consumption and generation. The research conducted contributes to increasing energy security and to the efficient integration of renewable sources into modern energy infrastructures.
The laboratory is equipped with specialised instruments for measuring environmental parameters and renewable energy resources, including a KIPP & ZONEN CV2 pyranometer for monitoring solar radiation and a Steinberg weather station with WiFi connectivity, integrated sensors and climatic parameter logging functions. This equipment allows the collection of the data required for analyses of the availability and variability of renewable energy resources.
For experimental and educational activities, the laboratory has an ESTI RC/0488 solar cell, solar energy kits, a wind turbine kit and a fuel cell kit, which facilitate the study of the operating principles of the main renewable energy conversion technologies and the assessment of their performance under different operating conditions.
The measurement and analysis infrastructure is complemented by advanced electronic and electrical instruments, including a Chauvin Arnoux C.A 876 digital multimeter, a PeakTech P 1640 TECH multifunction measuring instrument, GW Instek GDM-541 digital multimeters, a PeakTech 3730 resistance and capacitance tester, an MI 3103 DigiAΩ megohmmeter for measuring insulation resistance, and a Rigol DS-5102C digital oscilloscope. This equipment allows the characterisation of electrical circuits, signal analysis, and the evaluation of the functional parameters of energy and electronic systems.
Through its experimental infrastructure and its monitoring and modelling capabilities, Laboratory B06 supports applied research, technological development and academic training in the fields of renewable energy, energy efficiency and intelligent energy management systems, contributing to the development of innovative solutions for the energy transition and the sustainability of the built environment.
Responsible: Dorin Leț
Laboratory B12 - Advanced Electronics and Prototyping Laboratory is dedicated to the research, development and testing of modern electronic systems, providing the infrastructure required for the design, characterisation and validation of electronic circuits and equipment. The laboratory supports applied research, technological development and advanced training in the fields of electronics, instrumentation and rapid prototyping.
The activities carried out within the laboratory focus on the analysis of electrical and electronic signals, the characterisation of components and circuits, the assessment of the functional compatibility of electronic systems, and the development of prototypes using modern additive manufacturing technologies. The infrastructure available makes it possible to investigate complex electrical and electronic phenomena, ensuring the conditions required for developing and validating innovative solutions.
The laboratory is equipped with high-performance measuring and analysis instruments, including a TELEDYNE LECROY HDO6104 digital oscilloscope, HM0724 and HM2024 laboratory oscilloscopes, a HAMEG HM8118 RLC bridge, a HAMEG HM8123 frequency counter, an HMC8012 laboratory multimeter and a Voltcraft WWS5062 digital multimeter. This equipment allows the precise measurement and analysis of electrical parameters, the characterisation of electronic components and the investigation of circuit behaviour under different operating regimes.
For powering and supplying the electronic systems under test, the laboratory has a 600 V, 5 A LAB SMS 3600 direct current power supply, as well as a Tabor Electronics WWS5062 signal generator. This equipment facilitates the simulation of real operating conditions and the evaluation of the performance of the electronic devices developed or analysed.
Diagnostic and inspection capabilities are complemented by a Fluke Ti400 thermal imaging camera, used to analyse temperature distribution and to identify areas subject to high thermal stress or faults in electronic components and systems. This technology contributes to assessing the reliability and optimising the performance of electronic and electromechanical devices.
The laboratory benefits from a modern rapid prototyping infrastructure, being equipped with a BambuLab X1C FDM 3D printer and an Anycubic Photon Mono M7 Pro SLA 3D printer. This equipment allows the rapid production of components, enclosures and functional prototypes of varying complexity and precision, facilitating the process of developing and validating innovative products.
Through its experimental and technological infrastructure, Laboratory B12 supports research, innovation and technology transfer in the fields of electronics and intelligent systems, contributing to the development of advanced products and technologies and to the training of specialists in electronics, instrumentation and digital manufacturing.
Responsible: Liviu Olteanu
Laboratory B13 - Software Technologies in the Design of Renewable Energy Systems is dedicated to the development and use of advanced software solutions for the design, simulation, optimisation and management of systems based on renewable energy sources. The laboratory supports applied research and technological development aimed at integrating digital tools and intelligent technologies into the energy sector.
The activities carried out within the laboratory focus on the use of software technologies for modelling and analysing renewable energy systems, facilitating the assessment of their functional performance and the optimisation of their operating parameters. The infrastructure available allows the development and implementation of numerical models, software applications and algorithms used to simulate the behaviour of photovoltaic, wind and hybrid systems, as well as intelligent energy infrastructures.
The laboratory provides support for the computer-aided design of renewable energy systems, the analysis of energy integration scenarios, and the development of software solutions for energy monitoring, control and management. Experimental and simulation activities contribute to optimising energy efficiency, assessing sustainability, and developing energy architectures adapted to the requirements of the digital and energy transition.
Through its activities, Laboratory B13 contributes to the development of interdisciplinary research in the fields of renewable energy, the digitalisation of energy systems and intelligent technologies, facilitating collaboration with academia and industry and supporting research, innovation and technology transfer projects in the field of software solutions for sustainable energy.
Responsible: Croitoru Gabriel
Laboratorul B21 –
Responsible: Oliver Magdun
Laboratorul B22
Responsible: Gurgu Ion Valentin
Laboratory B23 is dedicated to the research and development of technologies for energy conversion and integration into modern grid-connected energy infrastructures. The laboratory supports applied and experimental activities aimed at optimising the performance of energy systems based on renewable sources, increasing energy conversion efficiency and developing intelligent solutions for the management of energy flows.
The activities carried out within the laboratory focus on the analysis, modelling and testing of the energy conversion systems used in grid-connected applications, including photovoltaic systems, power converters, inverters and energy management equipment. The infrastructure available allows the assessment of the functional behaviour and operating parameters of energy systems under different operating conditions and modes of integration into smart electricity grids.
The laboratory provides support for the development and experimental validation of technological solutions intended for the efficient conversion of energy and the integration of renewable sources into modern energy systems. The experimental activities make it possible to investigate the stability, compatibility and performance of grid-connected systems, contributing to the optimisation of control and energy management strategies.
Through its activities, Laboratory B23 contributes to the development of interdisciplinary research in the fields of energy conversion, power electronics and smart energy grids, facilitating collaboration with academia and industry and supporting research, innovation and technology transfer projects aimed at the energy transition and sustainable development.
Responsible: Dorin Leț
Laboratorul B25 –
Responsible: Liviu Olteanu
Laboratory B26 - NextGen Energy Lab - Renewable Energy Systems, Energy Security and Predictive Modelling for Buildings and Industry is dedicated to the research and development of intelligent energy solutions based on renewable energy sources, the monitoring of environmental parameters, and the development of predictive models for optimising energy consumption and generation. The laboratory provides the infrastructure required for studying modern energy systems, integrating renewable technologies and assessing their performance in applications specific to the built environment and the industrial sector.
The activities carried out within the laboratory address the analysis of renewable energy resources, the assessment of the performance of photovoltaic and wind systems, the monitoring of climatic conditions, and the development of tools for energy modelling and forecasting. The research conducted contributes to increasing energy efficiency, reducing environmental impact and strengthening energy security through the integration of sustainable technologies into modern infrastructures.
The laboratory is equipped with instruments for monitoring renewable resources and environmental parameters, including a KIPP & ZONEN CV2 pyranometer for measuring solar radiation and a STEINBERG WiFi LCD weather station, used to monitor temperature, humidity and other climatic parameters relevant to assessing the energy potential of a site. The data obtained allows the development and validation of the predictive models used in the analysis and management of energy systems.
For experimental and educational activities, the laboratory has an ESTI RC/0488 solar cell, which facilitates the study of the processes involved in converting solar energy into electricity and the assessment of the operating parameters of photovoltaic devices. These activities are complemented by experiments dedicated to the characterisation and optimisation of renewable energy systems under different operating conditions.
The measurement and analysis infrastructure includes a Chauvin Arnoux C.A 876 digital thermometer with an integrated temperature probe, a PeakTech P 1640 TECH multifunction measuring instrument, GW Instek GDM-541 digital multimeters, a PeakTech 3730 resistance and capacitance tester, and an MI 3103 DigiAΩ megohmmeter for assessing insulation resistance. This equipment allows the characterisation of electrical installations and energy components, providing essential information on the performance, safety and reliability of the systems analysed.
Through its experimental infrastructure and its monitoring, analysis and modelling capabilities, Laboratory B26 supports applied research, technological development and academic training in the fields of renewable energy, energy efficiency and intelligent energy management systems. The laboratory contributes to the development of innovative solutions for the energy transition and to the training of specialists capable of responding to current challenges in the field of energy and sustainability.
Responsible: Gabriela Mântescu
Laboratory C01 - Environmental Quality Monitoring is dedicated to the assessment and control of environmental parameters through the use of advanced analytical methods, required for applied research, pollutant monitoring and the support of environmental protection activities. The laboratory provides the infrastructure required for analysing the chemical composition of environmental samples and for investigating the contaminants present in water, soil and other matrices analysed within research projects and institutional collaborations.
Through its analytical capabilities, the laboratory is able to carry out quantitative elemental analyses by atomic absorption spectrometry, a method used to determine the concentrations of elements and metals in various types of samples. The techniques employed ensure high sensitivity, accuracy and reproducibility, facilitating the assessment of contamination levels and the compositional characterisation of the samples investigated.
The activities carried out within the laboratory contribute to the development of research in the fields of environmental monitoring, the assessment of anthropogenic impact and the control of environmental quality. The laboratory also supports collaboration with academic, institutional and business partners by providing analytical and scientific support for research projects, environmental studies and technology transfer activities.
Responsible: Croitoru Gabriel
Laboratory C02 - Chromatography and Thermal Analysis is dedicated to investigating the chemical composition and thermal behaviour of the materials, substances and complex samples used in applied research and technological development activities. The laboratory's infrastructure supports the advanced analyses required for compositional characterisation, compound identification and the assessment of material stability under a range of experimental conditions.
The laboratory has the capability to perform HPLC chromatographic analyses used for qualitative and quantitative determinations, a method essential for the separation, identification and quantification of compounds in highly complex samples. The analytical techniques employed produce accurate and reproducible results, and are applicable to research in the fields of the environment, materials, biochemistry, pharmaceutical products and other interdisciplinary areas.
The activities carried out within the laboratory contribute to the development of experimental research and to supporting projects focused on quality control, compositional assessment and the optimisation of technological processes. The laboratory provides analytical support for academic and industrial collaborations, facilitating knowledge transfer and the development of innovative solutions based on modern instrumental analysis methods.
Responsible: Cristiana Rădulescu
Laboratory C04 - Physical and Structural Characterisation of Matter is dedicated to investigating the physical and structural properties of materials and functional systems through advanced experimental methods of analysis and characterisation. The laboratory supports applied research and technological development activities aimed at understanding the relationship between the structure, composition and functional properties of matter across a range of scientific and engineering fields.
Through the infrastructure available, the laboratory is able to carry out analyses for the physical and structural characterisation of matter, using techniques dedicated to investigating the structural, morphological and physico-chemical properties of materials. The experimental activities contribute to assessing the behaviour of materials under different conditions of use and processing, providing relevant information for optimising performance and developing innovative technological solutions.
The laboratory supports interdisciplinary research in the fields of advanced materials, nanotechnology, materials physics and functional technologies, facilitating the analysis of a wide range of materials, from inorganic and organic compounds to hybrid systems and multifunctional materials. The results obtained contribute to the experimental validation of the processes and materials developed within research and technology transfer projects.
Through the activities it carries out, Laboratory C04 contributes to strengthening the research infrastructure of ICSTM and to developing collaboration with academia and industry, supporting projects in innovation, advanced characterisation and the development of materials and technologies with applications in strategic fields.
Responsible: Croitoru Gabriel
Laboratorul C05 –
Responsible: Cristina Mihaela Nicolescu
Laboratory C06 is dedicated to the essential stages of preparing, pre-treating and conditioning the samples used in physico-chemical and instrumental analyses. The laboratory provides the experimental support required to obtain representative and stable samples that meet the methodological requirements of subsequent analyses.
Through the activities it carries out, the laboratory contributes to increasing the accuracy and reproducibility of analytical results by applying controlled sample preparation procedures. The processes performed include homogenisation, separation, pre-treatment and conditioning operations, adapted to the type of sample and to the objectives of the investigation.
The laboratory supports applied research and interdisciplinary activities in the fields of materials, the environment and instrumental analysis, providing the infrastructure required for the rigorous preparation of samples ahead of physico-chemical characterisation. Through its integrative role, Laboratory C06 contributes to the quality of the analytical workflow and to supporting the research, innovation and technology transfer projects carried out within ICSTM.
Responsible: Croitoru Gabriel
Laboratory C11 - Laboratory for the Research, Prototyping and Development of Integrated Electronic Microsystems Using IoT-EDGE Technologies is dedicated to the development and validation of intelligent electronic solutions for applications in the Internet of Things (IoT), embedded systems and edge computing technologies. The laboratory provides the infrastructure required for the design, production and testing of electronic prototypes, facilitating the development of devices and microsystems capable of acquiring, processing and transmitting data in real time.
The activities carried out within the laboratory address the integration of hardware and software components into intelligent electronic systems, the development of distributed monitoring and control platforms, and the implementation of solutions for automation, communications and local data processing. The research conducted contributes to the development of innovative applications intended for industry, smart infrastructures and modern cyber-physical systems.
The laboratory is equipped with a printed circuit board prototyping and development line, which allows the rapid production and testing of the electronic circuits required for research and development projects. This infrastructure facilitates the transition from concept and design to functional prototypes, reducing the time needed to develop and validate new electronic products.
For the characterisation and functional verification of the circuits and systems developed, the laboratory has laboratory oscilloscopes used to analyse electrical signals and to assess the behaviour of electronic components under different operating regimes. This equipment makes it possible to investigate the dynamic parameters of circuits and to identify any non-conformities during the development process.
The experimental infrastructure is complemented by programmable and adjustable direct current voltage and current supplies, used to power and test electronic devices under controlled conditions, together with digital multimeters intended for measuring electrical parameters and verifying the performance of the systems developed.
Through its design, prototyping and testing capabilities, Laboratory C11 supports applied research, innovation and technology transfer in the fields of electronic microsystems, IoT technologies and edge computing. The laboratory contributes to the development of intelligent solutions for digitalisation, automation and advanced connectivity, responding to the current requirements of digital transformation and smart industry.
Responsible: Miron-Alexe Viorel; Gurgu Ion Valentin
Laboratory C12 - Physical and Structural Characterisation of Matter is dedicated to investigating the composition, structure and physical properties of materials through the use of modern analysis and characterisation techniques. The laboratory provides the infrastructure required for studying metallic, ceramic, polymeric, composite and geological materials, supporting fundamental and applied research activities in the field of materials science and engineering.
The activities carried out within the laboratory focus on the identification of crystalline phases, the determination of elemental composition, the analysis of the internal structure of materials, and the assessment of the physico-chemical changes produced by manufacturing, use or degradation processes. The research conducted contributes to the development and optimisation of the advanced materials used across a range of industrial and technological fields.
The laboratory is equipped with an Ultima IV X-ray diffractometer (XRD), used to analyse crystalline structure and to identify the phases present in materials. This equipment makes it possible to investigate the structural properties of materials and to assess the changes arising from thermal, mechanical or chemical treatments.
For the determination of elemental composition, the laboratory has a Supermini200 wavelength-dispersive X-ray fluorescence spectrometer (WDXRF), equipment that allows the qualitative and quantitative analysis of chemical elements in a wide range of materials. The characterisation capabilities are complemented by an ORTEC DigiDART portable gamma spectrometer, used for radiometric measurements and for the identification and quantification of radionuclides in samples and materials.
Samples are prepared and conditioned for analysis using a Testchem vibratory disc mill, employed to grind and homogenise materials, and a Testchem manual laboratory press intended for producing the compacted samples required for X-ray fluorescence analyses. The laboratory also has a Venticell forced-convection oven for drying and the controlled treatment of samples ahead of experimental analyses.
High-precision gravimetric determinations are carried out using an Ohaus analytical balance, which ensures the accuracy of the measurements required for sample preparation and characterisation processes. The integration of this equipment allows a complete analytical workflow, from the preparation of materials through to advanced structural and compositional characterisation.
Through its experimental and analytical infrastructure, Laboratory C12 supports research, innovation and technology transfer in the field of materials characterisation, contributing to the development of high-performance materials and to understanding the mechanisms that influence their properties and behaviour in industrial and scientific applications.
Responsible: Gheboianu Anca Irina
Laboratory C13 is dedicated to the development and characterisation of functional materials through advanced surface modification and surface engineering technologies. The laboratory supports applied research and experimental development activities aimed at producing thin films with controlled properties and at optimising surface behaviour for engineering, energy and functional applications.
Through its technological capabilities, the laboratory is able to deposit and develop functional thin films used to improve the mechanical, tribological, electrical, optical or protective properties of materials. The processes developed facilitate control over deposition parameters and the adaptation of film characteristics to the requirements of the intended applications, contributing to the development of materials and surfaces with advanced performance.
The laboratory also has infrastructure for treating and modifying surfaces by RF plasma techniques, used to activate, functionalise and optimise the surface properties of materials. These technologies allow control over interfacial interactions and improve the functional compatibility of surfaces in a range of industrial and research applications.
Through the activities it carries out, Laboratory C13 contributes to the development of interdisciplinary research in the fields of advanced materials and surface technologies, supporting innovation projects, collaboration with industry and technology transfer towards high value-added applications.
Responsible: Croitoru Gabriel
Laboratory C14 - Physical and Structural Characterisation of Matter by Optical Microscopy and Atomic Force Microscopy is dedicated to investigating the microstructure, morphology and surface properties of materials through advanced microscopy techniques and analysis at the micro and nanometric scale. The laboratory provides the infrastructure required for characterising the materials used in fields such as materials engineering, electronics, nanotechnology, biotechnology and environmental science.
Laboratory C14 - Physical and Structural Characterisation of Matter by Optical Microscopy and Atomic Force Microscopy is dedicated to investigating the microstructure, morphology and surface properties of materials through advanced microscopy techniques and analysis at the micro and nanometric scale. The laboratory provides the infrastructure required for characterising the materials used in fields such as materials engineering, electronics, nanotechnology, biotechnology and environmental science.
The laboratory is equipped with an Axio Imager M2m research optical microscope, used for the detailed examination of microstructures and for the metallographic analysis of different categories of materials. Its capabilities allow high-resolution images to be obtained and complex investigations to be carried out into the structure and distribution of constituent phases.
For analysis and training activities, the laboratory has a Primo Star microscope, intended for routine microscopic observations and for the study of the morphological characteristics of samples. In addition, a Stemi 2000-C stereo microscope allows the three-dimensional examination of surfaces and components with complex geometries, facilitating the assessment of defects, the degree of wear and the dimensional characteristics of the materials and devices analysed.
The advanced characterisation capabilities are complemented by an Ntegra Prima atomic force microscope (AFM), equipment that makes it possible to investigate surface topography at the nanometric scale and to determine physical properties such as roughness, adhesion and surface interactions. This system allows high-precision analyses to be performed on the functional materials and structures used in modern research.
Through its optical microscopy and nanocharacterisation infrastructure, Laboratory C14 supports fundamental and applied research, technological development and knowledge transfer in the field of materials characterisation. The laboratory contributes to the development of innovative materials and technologies, providing experimental support for interdisciplinary projects in materials science and engineering.
Responsible: Alin Bucurică
Laboratory C15 - Electron Microscopy and X-ray Spectrometry Laboratory is dedicated to the advanced characterisation of materials through modern electron microscopy and elemental analysis techniques, providing the infrastructure required for investigating the structure, morphology and chemical composition of materials at the micro and nanometric scale. The laboratory supports fundamental and applied research in the fields of materials science, nanotechnology, surface engineering, electronics and advanced technologies.
The activities carried out within the laboratory focus on the microstructural analysis of materials, the identification of defects and inhomogeneities, the determination of elemental composition, and the investigation of the distribution of chemical elements in different types of samples. The analytical capabilities available allow the assessment of the relationship between structure, composition and the functional properties of the materials used in industrial and research applications.
The laboratory is equipped with an SU-70 scanning electron microscope manufactured by Hitachi, high-performance equipment used for the detailed investigation of surface morphology and topography. The microscope produces high-resolution images and allows the analysis of the structural characteristics of materials at the microscopic and nanometric scale, providing essential information for the study of their behaviour and performance.
Compositional analysis capabilities are provided through the integration of advanced X-ray spectrometry systems. The electron microscope is coupled with an UltraDry energy-dispersive spectrometer manufactured by Thermo Scientific, which allows the rapid identification and quantification of the chemical elements present in samples. Elemental distribution analyses and chemical mapping facilitate the detailed investigation of microstructures and of material transformation processes.
The laboratory also has a MagnaRay wavelength-dispersive spectrometer manufactured by Thermo Scientific, intended for high-precision elemental analyses. The integration of EDS (Energy Dispersive Spectroscopy) and WDS (Wavelength Dispersive Spectroscopy) techniques provides complementary information on the composition of materials, ensuring both the rapid identification of elements and quantitative determinations with a high degree of accuracy.
The system is completed by the hardware and software infrastructure required for the acquisition, processing and interpretation of experimental data, facilitating complex analyses and the development of modern methodologies for the characterisation of materials. The laboratory's capabilities allow the investigation of a wide range of materials, from metals and alloys through to ceramic, polymeric, composite and nanostructured materials.
Through its electron microscopy and X-ray spectrometry infrastructure, Laboratory C15 supports advanced research, innovation and technology transfer, contributing to the development of high-performance materials and to understanding the mechanisms that determine their properties and behaviour in state-of-the-art scientific and industrial applications.
Responsible: Dulamă Ioana Daniela
Laboratory C16 is dedicated to the development, processing and characterisation of polymeric materials and composites with functional properties adapted to modern applications in industry, technology and applied research. The laboratory supports interdisciplinary activities aimed at producing innovative materials, optimising physico-mechanical performance, and assessing the behaviour of these materials under specific conditions of use and degradation.
Through the infrastructure and capabilities available, the laboratory is able to produce polymeric materials and advanced polymer composites, using methods and processes dedicated to developing materials with controlled properties and with functionalities adapted to the requirements of engineering and technological applications. The experimental activities focus on optimising the composition, structure and behaviour of materials in relation to the mechanical, thermal and functional performance required in the intended fields of application.
The laboratory also has capabilities for the physico-mechanical characterisation of polymeric materials, facilitating the assessment of mechanical properties, structural behaviour and the stability of the materials developed. The analyses carried out contribute to understanding the relationship between composition, processing and the final performance of materials, providing support for optimising manufacturing processes and for the experimental validation of the solutions developed.
An important direction of the activities carried out within the laboratory concerns the assessment of the biodegradability and disintegration of polymeric materials, in the context of developing sustainable materials and reducing environmental impact. The investigations carried out allow the analysis of material behaviour under controlled degradation conditions and support research aimed at environmentally friendly solutions and technologies compatible with the principles of the circular economy.
Through its activities, Laboratory C16 contributes to the development of research in the fields of advanced polymeric materials, sustainable materials and innovative technologies, facilitating collaboration with academia and industry and supporting research, innovation and technology transfer projects.
Responsible: Croitoru Gabriel
Laboratory C21 - Physical and Structural Characterisation of Matter is dedicated to investigating the chemical composition, molecular structure and physical properties of materials through the use of advanced spectroscopic techniques. The laboratory provides the infrastructure required for the analysis and identification of organic and inorganic materials, the characterisation of chemical compounds, the assessment of structural changes, and the investigation of the physico-chemical processes that influence the properties of materials.
The activities carried out within the laboratory address the determination of molecular structure, the identification of functional groups, the analysis of chemical composition, and the assessment of the interactions between the various components of materials. The research conducted contributes to the development and optimisation of the advanced materials used in fields such as materials engineering, applied chemistry, biotechnology, environmental protection and energy technologies.
The laboratory is equipped with a Vertex 80 Fourier transform infrared (FTIR) spectrometer coupled with a Hyperion 2000 microscope, a system that allows the chemical and structural characterisation of materials at the microscopic scale. This infrastructure makes it possible to identify the local composition of samples, the distribution of compounds and the structural changes produced by various physical and chemical processes.
The analytical capabilities are complemented by the Vertex 80 FTIR spectrometer and the Hyperion 2000 microscope, used to investigate molecular properties and to carry out high-resolution spectral analyses. This equipment allows the detailed characterisation of solid, liquid and powdered materials, providing essential information on their structure and composition.
For the analysis of molecular structure and the identification of chemical compounds, the laboratory has a Xantus-2 portable Raman spectrometer, equipped with two excitation wavelengths, 785 nm and 1064 nm. This system makes it possible to perform rapid, non-destructive analyses on a wide range of materials, and is used both in fundamental research and in quality control and material identification applications.
The laboratory is also equipped with an Evolution 260 Bio double-beam UV-Vis spectrometer, used to determine optical properties and to analyse compounds in solution by absorption spectrophotometry. The equipment allows precise quantitative and qualitative determinations, and is used for the study of chemical and biochemical processes and of molecular interactions.
Through its molecular spectroscopy and optical analysis infrastructure, Laboratory C21 supports advanced research, innovation and technology transfer in the field of the characterisation of materials and substances. The laboratory contributes to the development of high-performance solutions and materials, providing experimental support for interdisciplinary projects in materials science, chemistry and advanced technologies.
Responsible: Știrbescu Raluca-Maria; Nicolescu Cristina-Mihaela; Bănică Andreea Laura
Laboratory C22 - Physico-Chemical Characterisation of Materials by Analytical Methods is dedicated to the compositional analysis and assessment of the physico-chemical properties of materials using modern investigation and characterisation techniques. The laboratory provides the infrastructure required for determining elemental composition, assessing material stability, analysing contaminants and investigating physical and chemical transformation processes, supporting fundamental and applied research in the fields of advanced materials and environmental protection.
The activities carried out within the laboratory address the identification and quantification of chemical elements in various categories of materials, the assessment of their behaviour under thermal and oxidative stress, and the development of modern methodologies for the analysis and quality control of materials. The research conducted contributes to the optimisation of industrial processes and to the development of materials with superior performance and reduced environmental impact.
The laboratory is equipped with a Multi EA4000 elemental analyser manufactured by Analytik Jena, used to determine the carbon (C), sulphur (S) and chlorine (Cl) content of materials and samples of industrial and environmental interest. This equipment allows precise and reproducible determinations to be made, essential for characterising chemical composition and assessing the compliance of the materials analysed.
For the determination of mercury at trace level, the laboratory has a Mercur Duo system manufactured by Analytik Jena, equipment specialised in the analysis of this element, which has a major impact on the environment and on health. The analytical capabilities are complemented by a PetroOxy oxidation stability analyser manufactured by Anton Paar, used to assess the oxidation resistance of fuels, oils and other products of energy and industrial significance.
The characterisation of materials is also supported by a QCM 200 quartz crystal microbalance manufactured by Stanford Research Systems, used for the highly sensitive measurement of adsorption, deposition and surface modification processes. The laboratory also has a VarJ1 microencapsulation system manufactured by Nisco, intended for the development and characterisation of functional materials, controlled release systems and innovative products based on microstructures.
The experimental infrastructure is completed by an inoLab IDS Multi 9430 multiparameter meter manufactured by WTW, used to determine the physico-chemical parameters of solutions and suspensions, together with equipment for sample preparation and processing, including a US2020 ultrasonic extractor manufactured by Albrigi Tecnologie, a Select ultrasonic bath manufactured by Elma, and a polishing machine used for the controlled preparation of surfaces and samples intended for high-precision analyses.
Through its analytical and experimental infrastructure, Laboratory C22 supports advanced research, technological development and knowledge transfer in the fields of materials characterisation, environmental technologies and quality control. The laboratory contributes to the development of innovative solutions for the analysis of materials and to understanding the processes that influence their performance, stability and sustainability.
Responsible: Dulamă Ioana Daniela
Laboratory C23 is dedicated to the assessment and control of environmental parameters through modern methods of analysis and monitoring, used in applied research and in the development of solutions for environmental protection and the sustainable management of resources. The laboratory provides the infrastructure required for investigating the quality of environmental factors and for analysing the impact of human activities on natural and industrial ecosystems.
The activities carried out within the laboratory address the monitoring and analysis of the physico-chemical parameters specific to the environment, using analytical methods and techniques dedicated to assessing the quality of water, soil, air and other matrices of interest. The analyses carried out contribute to the identification and quantification of pollutants, the assessment of contamination levels, and the support of control and compliance activities in relation to environmental requirements.
The laboratory supports interdisciplinary research aimed at developing innovative methodologies and solutions for environmental monitoring, risk assessment and the optimisation of protection and remediation strategies. The infrastructure available produces accurate and reproducible results, required for research activities, impact studies and sustainable development projects.
Through its activities, Laboratory C23 contributes to strengthening the research and technology transfer capacity of ICSTM in the fields of environmental monitoring and sustainable technologies, facilitating collaboration with academic, institutional and business partners within research, innovation and specialist consultancy projects.
Responsible: Croitoru Gabriel
Laboratory C24 is dedicated to the research and development of the functional materials used in energy conversion, storage and management processes. The laboratory supports interdisciplinary activities aimed at developing advanced technological solutions for sustainable energy systems, contributing to the progress of research in the fields of renewable energy and materials with high functional performance.
The activities carried out within the laboratory address the production, processing and characterisation of the materials used in energy conversion applications, such as photovoltaic systems, electrochemical devices, materials for energy storage and functional structures intended for modern energy technologies. The research conducted aims to optimise the structural, electrical, thermal and electrochemical properties of materials, with a view to increasing the efficiency and stability of the energy systems developed.
The laboratory provides the infrastructure required for investigating the relationship between the composition, structure and functional performance of the materials used in energy conversion, facilitating the experimental validation of innovative solutions and the development of technologies compatible with the requirements of the energy transition and of sustainability. The experimental activities support applied research in the fields of advanced materials, nanomaterials and intelligent energy systems.
Through its activities, Laboratory C24 contributes to strengthening the research infrastructure of ICSTM in the fields of energy and functional materials, facilitating collaboration with academia and industry and supporting research, innovation and technology transfer projects aimed at developing the energy technologies of the future.
Responsible: Croitoru Gabriel
Laboratory C25 - Elemental Analysis by ICP-MS is dedicated to the determination of elemental composition and to the analysis of traces of metals and metalloids in a wide range of materials and samples of industrial, biological and environmental interest. The laboratory provides the infrastructure required for carrying out highly sensitive and precise analyses, using inductively coupled plasma mass spectrometry (ICP-MS), one of the most powerful methods of elemental characterisation available internationally.
The activities carried out within the laboratory address the identification and quantification of chemical elements present at very low concentrations, the determination of metallic contaminants, the monitoring of environmental quality, and the characterisation of the materials used across a range of technological fields. The research conducted allows the assessment of the elemental composition of solid, liquid and biological samples, contributing to the development of advanced solutions for quality control, environmental protection and the optimisation of industrial processes.
The laboratory is equipped with an iCAP Qc inductively coupled plasma mass spectrometer manufactured by Thermo Scientific, high-performance equipment used for the simultaneous analysis of a large number of chemical elements with extremely low detection limits. The system allows rapid and precise determinations to be made on a wide variety of samples, and is used in research on advanced materials, environmental monitoring, food analysis, biological studies and industrial applications.
To automate the analytical process and increase experimental productivity, the spectrometer is coupled with a CETAC ASX-520 autosampler supplied by Spectralab Scientific Inc. This system allows samples to be handled automatically and extensive series of measurements to be carried out with a high degree of reproducibility and accuracy.
The laboratory's infrastructure also includes computer systems dedicated to experimental control and to data acquisition and processing, together with a laminar flow hood intended for the preparation of samples under controlled conditions, reducing the risk of contamination and ensuring compliance with the specific requirements of highly sensitive analyses.
Through its advanced analytical capabilities, Laboratory C25 supports fundamental and applied research, technological development and knowledge transfer in the fields of materials characterisation and environmental monitoring. The laboratory contributes to the development of modern methods of elemental analysis and to providing essential data for interdisciplinary projects in materials science, chemistry, biology and environmental technologies.
Responsible: Dulamă Ioana Daniela
Laboratory C26 is dedicated to the stages of preparing, pre-treating and conditioning the samples required for the physico-chemical, structural and instrumental analyses carried out within research and experimental development activities. The laboratory provides the technical infrastructure required to obtain representative samples compatible with the requirements of the analytical methods used across different fields of investigation.
Laboratory C26 is dedicated to the stages of preparing, pre-treating and conditioning the samples required for the physico-chemical, structural and instrumental analyses carried out within research and experimental development activities. The laboratory provides the technical infrastructure required to obtain representative samples compatible with the requirements of the analytical methods used across different fields of investigation.
The laboratory supports interdisciplinary activities in the fields of materials, the environment, applied chemistry and advanced technologies, facilitating the preparation of samples for structural, compositional, spectroscopic and thermo-chemical investigations. Through the integration of controlled and standardised preparation procedures, the laboratory contributes to improving the efficiency of the experimental workflow and to ensuring the quality of research activities.
Through its activities, Laboratory C26 contributes to strengthening the support infrastructure for experimental and analytical research within ICSTM, supporting research projects, interdisciplinary collaboration, and innovation and technology transfer activities.
Responsible: Andreea Laura Bănică; Bănică Andreea Laura
Laboratory B01 - CNC Machining and Manufacturing Processes represents a technological infrastructure dedicated to applied research, experimental development and the production of mechanical components with a high degree of geometric and functional complexity. The laboratory supports interdisciplinary research activities in the field of advanced manufacturing, offering modern capabilities for the design, prototyping and production of the parts used in industrial, technological and academic applications.
Through the integration of multiaxis CNC machining technologies, the laboratory is able to produce complex parts and research prototypes with high dimensional precision, intended both for experimental validation and for the development of innovative solutions for mechanical and mechatronic systems. The equipment available facilitates highly accurate machining of complex geometries, contributing to the optimisation of manufacturing processes and to the reduction of technological development times.
The laboratory also has advanced capabilities for precision CNC turning and combined machining, used to manufacture functional mechanical components, experimental parts and the subassemblies required for research and technology transfer activities. The processes developed within the laboratory produce high-quality surfaces and tight tolerances, essential for high-performance engineering applications.
The activities carried out within Laboratory B01 support research in the fields of intelligent manufacturing, the optimisation of machining processes and the development of innovative products, contributing to strengthening collaboration between academia and industry.
Responsible: Gabriel Croitoru
Laboratory A11 - Multidisciplinary Analysis of Data-Based Economic and Social Systems is dedicated to the research, modelling and evaluation of economic and social phenomena through the use of modern statistical analysis methods and advanced data processing tools. The laboratory provides the infrastructure required for investigating the complex relationships between economic, social and organisational variables, supporting evidence-based decision-making processes and the development of predictive models based on data.
The activities carried out within the laboratory address the collection, processing, modelling and interpretation of data from social research, economic studies, organisational analyses and interdisciplinary projects. The research conducted makes it possible to identify the factors that influence economic and social performance, to assess causal relationships between variables, and to develop explanatory and predictive models used in decision-making.
The laboratory is equipped with specialised software for structural modelling and multivariate analysis using the Partial Least Squares Structural Equation Modelling (PLS-SEM) method. These tools allow complex conceptual models to be built and validated, the relationships between latent and observable variables to be analysed, and the influence of economic and social factors on the phenomena studied to be assessed.
The statistical analysis capabilities are supported by the SPSS platform, used to carry out descriptive and inferential analyses, hypothesis testing, regression analysis, factor analysis and other advanced statistical methods. This tool provides support for the rigorous processing of data and for the preparation of studies with a sound scientific basis.
The laboratory also has software tools for data analysis and processing, including Microsoft Excel, used for managing databases, preliminary statistical analysis, the development of calculation models and the graphical representation of results. The integration of these applications facilitates complete analytical workflows, from data collection through to the interpretation and dissemination of research results.
Through its digital and methodological infrastructure, Laboratory A11 supports interdisciplinary research, the development of economic and social models, the evaluation of public policy and the analysis of organisational performance. The laboratory contributes to developing advanced skills in data analysis and to generating knowledge relevant to academia and to the economic and social sphere.
Responsible:Sorina-Geanina STĂNESCU; Mihaela-Denisa COMAN
Laboratory A11 - Multidisciplinary Analysis of Data-Based Economic and Social Systems is dedicated to the research, modelling and evaluation of economic and social phenomena through the use of modern statistical analysis methods and advanced data processing tools. The laboratory provides the infrastructure required for investigating the complex relationships between economic, social and organisational variables, supporting evidence-based decision-making processes and the development of predictive models based on data.
The activities carried out within the laboratory address the collection, processing, modelling and interpretation of data from social research, economic studies, organisational analyses and interdisciplinary projects. The research conducted makes it possible to identify the factors that influence economic and social performance, to assess causal relationships between variables, and to develop explanatory and predictive models used in decision-making.
The laboratory is equipped with specialised software for structural modelling and multivariate analysis using the Partial Least Squares Structural Equation Modelling (PLS-SEM) method. These tools allow complex conceptual models to be built and validated, the relationships between latent and observable variables to be analysed, and the influence of economic and social factors on the phenomena studied to be assessed.
The statistical analysis capabilities are supported by the SPSS platform, used to carry out descriptive and inferential analyses, hypothesis testing, regression analysis, factor analysis and other advanced statistical methods. This tool provides support for the rigorous processing of data and for the preparation of studies with a sound scientific basis.
The laboratory also has software tools for data analysis and processing, including Microsoft Excel, used for managing databases, preliminary statistical analysis, the development of calculation models and the graphical representation of results. The integration of these applications facilitates complete analytical workflows, from data collection through to the interpretation and dissemination of research results.
Through its digital and methodological infrastructure, Laboratory A11 supports interdisciplinary research, the development of economic and social models, the evaluation of public policy and the analysis of organisational performance. The laboratory contributes to developing advanced skills in data analysis and to generating knowledge relevant to academia and to the economic and social sphere.
Responsible:Dorin Leț