MPMS-XL SQUID magnetometer, Quantum Design, USA
The MPMS-XL SQUID magnetometer by Quantum Design is a superconducting quantum interference device (SQUID)-based system designed for comprehensive magnetic measurements in the temperature range from 1.9 to 350 K. The equipment enables investigation of the magnetic properties of materials under both direct current (DC) and alternating current (AC) magnetic fields. The system is equipped with an optical fiber assembly for irradiation of experimental samples, allowing the study of photoinduced processes, as well as an attachment for measurements of oriented single crystals. The technical capabilities of the setup provide highly accurate thermomagnetic measurements and detailed analysis of magnetic anisotropy in various functional materials.
Differential Scanning Calorimeter JH-DSC8L, Shanghai Jiahang Instruments Co., Ltd, China
The JH-DSC8L differential scanning calorimeter (DSC) is designed for investigating the thermal properties of materials and detecting phase transitions over a wide temperature range (–100 to 600 °C). The instrument provides highly accurate evaluation of heat capacity, melting and crystallization temperatures, glass transition temperatures, and other thermal effects, making it an effective tool for analyzing the composition and properties of various substances. The use of the calorimeter enables detailed thermal characterization of samples, assessment of their stability, and acquisition of data required for the development and optimization of functional materials.
Powder Diffractometer PowDix 600, ADANI, Belarus
The PowDix 600 benchtop powder diffractometer is designed for investigating the phase composition and structural characteristics of materials using the X-ray diffraction method. The instrument provides both qualitative and quantitative analysis of crystalline phases, identification of compounds, as well as evaluation of crystallinity and structural changes in samples. Its compact design and high measurement accuracy make the system an efficient tool for rapid materials analysis in both fundamental and applied research. The use of the diffractometer enables acquisition of detailed information on the composition and structure of substances required for solving a wide range of research задач.
Automatic Photoreactor Penn PhD M2, Penn Photon Devices, USA
The Penn PhD Photoreactor M2 automatic benchtop photoreactor by Penn Photon Devices is designed for photochemical synthesis and simulation of reaction processes under controlled light irradiation. The system provides precise control of irradiation parameters, temperature, and reaction time, enabling highly reproducible synthetic procedures under laboratory conditions. The use of the photoreactor expands the possibilities for the development and optimization of photochemical methodologies, as well as for investigating the mechanisms of light-driven reactions. Its compact design and process automation make the setup an efficient tool for modern applications in organic and materials synthesis.
Cole-Parmer MP-800 D Series STUART Melting Point Apparatus, Antylia Scientific, USA
The Cole-Parmer MP-800 D Series STUART melting point apparatus is designed for highly accurate determination of melting temperatures and evaluation of the thermal characteristics of substances. The instrument provides reliable detection of the phase transition from solid to liquid state, enabling its use for compound identification, purity control of samples, and investigation of physicochemical properties. Automation of the measurement process and high reproducibility of results make the system an efficient tool for analytical and synthetic laboratories.
SMP3 STUART Melting Point Apparatus, Antylia Scientific, USA
The SMP3 STUART melting point apparatus is designed for determining the melting temperature of substances and analyzing their thermal properties. The instrument provides uniform sample heating and precise detection of phase transitions, enabling its use for compound identification and purity control. High reproducibility of measurements and ease of operation make the system an effective tool for routine laboratory studies in organic and inorganic chemistry.
Memmert Incubator, Memmert, Germany
The Memmert incubator is designed to create and maintain stable temperature conditions required for the growth of crystals of dia- and paramagnetic compounds. The equipment provides precise control of environmental parameters, enabling reproducible formation of high-quality crystalline samples. The use of the incubator allows optimization of crystallization processes, performance of long-term experiments under controlled conditions, and preparation of materials suitable for subsequent structural and physicochemical investigations.
Labofuge 400 Refrigerated Centrifuge Thermo Scientific, USA
The Labofuge 400 refrigerated centrifuge is designed for the separation and sedimentation of reaction products under controlled temperature conditions. The instrument provides efficient precipitation of solid phases, separation of reaction mixture components, and preparation of samples for subsequent stages of analysis or synthesis. The temperature control capability ensures the stability of investigated systems and enables processing of temperature-sensitive materials. High reliability and reproducibility make the system an important component of laboratory infrastructure for chemical and materials science research.
NOVA-2S Microwave Synthesis System, Preekem, China
The NOVA-2S microwave synthesis system is designed for chemical synthesis using microwave heating, which accelerates reaction processes and improves their efficiency. The equipment enables precise control of temperature, pressure, and reaction time, ensuring reproducibility of results and optimization of synthesis conditions. The use of the system expands the possibilities for the development of new compounds and functional materials by reducing reaction times and increasing the yield of target products.
Unilab and Labmaster Glove Boxes, MBraun, Germany
The MBraun glove boxes are designed for performing laboratory operations in an inert atmosphere with substances sensitive to air and moisture exposure. The equipment provides stable conditions with minimal moisture and oxygen content, enabling safe synthesis, preparation, and handling of experimental samples. The systems are widely used for air-free chemical synthesis, materials processing, and storage of sensitive compounds under controlled atmospheric conditions.
The SMART APEX II (Mo) is a high-speed automatic diffractometer designed for single-crystal X-ray structure analysis with high precision. The system enables collection of diffraction data using Mo radiation and is equipped with a Helix cryogenic temperature device (Oxford Cryosystems, United Kingdom), allowing measurements in the range of 30–300 K. This expands the capabilities of structural analysis by enabling the study of phase transitions, temperature-dependent lattice deformations, and other thermally induced effects in a wide range of materials. The diffractometer is also equipped with a specialized collimator for high-pressure cell experiments, enabling structural studies of single crystals under pressures up to 3 GPa (~30,000 atm), including investigations of pressure-induced transitions in spin-crossover and other functional materials.
APEX DUO (Mo and Cu) fast automatic diffractometer, Bruker AXS, Germany
The APEX DUO (Mo and Cu) is a high-speed automatic diffractometer designed for comprehensive single-crystal X-ray structure analysis and determination of crystal structures. The system supports both Mo and Cu radiation, expanding the range of materials that can be investigated. It provides high-speed and high-precision diffraction data collection, enabling detailed structural modeling and analysis of crystalline compounds across a wide variety of experimental applications. The integrated Cobra temperature device (Oxford Cryosystems, United Kingdom) enables structural studies of single crystals under controlled temperature conditions in the range of 100–350 K.
The Optiprexx PLS is a high-precision photoluminescence diagnostic system designed for measuring ultra-high pressure using ruby fluorescence manometry in diamond anvil cells (DAC). The setup enables in situ pressure determination from ruby emission spectra with an accuracy of approximately ±0.05 GPa. The system includes a 532 nm laser source, an optical assembly, an Ocean Optics HR4000 spectrometer, a ×20 microscope with integrated LED illumination, XYZ positioning stages, and High Pressure Manager software for real-time spectral acquisition and pressure calculation. It is also equipped with a USB camera for visual monitoring of the sample position and measurement area, as well as a dedicated laser safety system.
Diamond Anvil High-Pressure Cells (TozerDAC and Ahsbachs design), Almax easyLab, Belgium
Diamond anvil cells enable the generation of pressures up to 3 GPa for high-pressure experiments. They can be used for X-ray diffraction studies on existing diffractometers (e.g., SMART APEX II) as well as for spectroscopic investigations, including UV–visible and IR spectroscopy, due to the optical transparency of diamonds. The compact TozerDAC cell (~10 × 12 × 12 mm³) allows cooling by a cold gas stream using available cryogenic systems (such as Helix) and similar setups. Both cell designs are suitable for structural and spectroscopic studies of materials under high-pressure conditions.
Vector 22 FT-IR spectrometer, Bruker, Germany
The Vector 22 is a benchtop Fourier-transform infrared (FT-IR) spectrometer designed for qualitative and quantitative analysis of organic and inorganic substances in the mid-infrared region. It features a full-sized sample compartment and high operational reliability. The instrument operates in the mid-IR spectral range and is suitable for routine spectroscopic characterization of materials in research and analytical laboratories.
