Chemistry of coordination compounds

The main scientific activity of the laboratory is aimed at the creation of molecular magnets, heterospin complexes and magnetically active compounds. We are engaged in the synthesis of organic paramagnets, coordination and multinucleated compounds with dia- and paramagnetic ligands, study their structure and magnetic properties, and develop approaches to control their magnetic properties by functionalizing paramagnetic ligands. Our goal is to create new materials with desired magnetic properties, as well as to study the relationship between structure and magnetic properties.

Development of composites based on chitosan and transition metal ions, creation of layered double hydroxides, research of films based on chitosan and platinum group metals, etc

The study of various photophysical and chemical properties of coordination compounds of lanthanides with organic ligands. The main areas of work are: obtaining materials for OLED emission layers, luminescent thermometry, luminescent sensors and oximetry, as well as biovisualization.

The laboratory is part of the Department of Organic Chemistry of the Faculty of Physical, Mathematical and Natural Sciences. The laboratory is equipped with all the necessary equipment for classical organic, microwave and hyperbaric synthesis, as well as for work in an airless atmosphere (Schlenk technique). The head of the research group is Dr. Zubkov Fedor Ivanovich

The main area of work in our group is the development of a methodology for the synthesis of heterocyclic compounds and organometallic compounds based on them. Laboratory staff receive new biologically active molecules, molecular machines and photoactive materials, develop new methods for obtaining complex molecular and supramolecular architectures.

Creation of new peroxide systems and modern technologies for their concentration, stabilization, storage and delivery. Equilibrium in aqueous peroxide solutions. Synthesis, structure and properties of coordination peroxo compounds. Peroxide-containing crystals and gels. Supramolecular structures with hydrogen peroxide. Nanoscale peroxides and peroxide-containing nanomaterials. Development of methods for obtaining functional materials from peroxide-containing precursors.

Synthesis of catalytically active mono- and polynuclear compounds of metals of V-VIII groups (low molecular weight clusters, giant clusters and nanoparticles of these metals). The study of their physico-chemical and catalytic properties.

Investigation of the crystal structure of new peroxosolvates and hydrazine solvates of organic compounds. Synthesis and investigation of cyclometallic complexes Ir(III) and Rh(III). The study of phase transitions in liquid crystal compounds.

A group of luminescent metal complexes for optoelectronics. The group's research interests include the design and synthesis of luminescent transition metal complexes, both mono— and polynuclear, and the subsequent assembly of highly organized supramolecular systems from them.

The laboratory is engaged in the synthesis, investigation of the structure and properties of coordination compounds of transition metals and heterometallic compounds of transition metals with s-elements.

Novel types of hydrogen bonding involving organometallic compounds and transition metal hydridesIntermolecular interactions and reactivity of main group hydrides including polyhedral boron compounds. Supramolecular design based on macrocyclic pyrazolates of copper(I) or silver(I) and organometallic compoundsMetal-oxo clusters with organoelement and organic ligands.

The Laboratory of Organometallic and Coordination Compounds was organized in July 2008 on the basis of the laboratory of Organometallic synthesis.

Energy-saving systems based on transition metal compounds: molecular and supramolecular approaches

Laboratory No.135 is engaged in the synthesis of macrocyclic and acyclic chelators, as well as a comprehensive study of their complexing properties with respect to medical metal cations in order to create diagnostic and therapeutic radiopharmaceuticals based on them. For targeted delivery of the radionuclide complex to the affected area, bifunctional chelating agents and their conjugates with vector molecules such as peptides, antibodies and nanoparticles are being developed. Our research suggests an integrated approach to solving the task, starting from the design of the structure of chelators, the development of methods for their synthesis and ending with a complete analysis of their complexing characteristics. To do this, we use methods of HPLC, mass spectrometry, NMR spectroscopy, X-ray diffraction analysis, quantum chemical calculations, potentiometric and spectrophotometric titration, as well as radionuclide labeling and stability analyses in vitro and in vivo. In the course of our research, we identify the advantages and disadvantages of new ligands and identify patterns that affect their ability to bind a particular metal cation. The results obtained make it possible to expand the range of possible new radiopharmaceuticals for the diagnosis and treatment of oncological diseases, which is currently extremely relevant.

The laboratory specializes in the synthesis of coordination compounds, including those that are not stable in air. The laboratory was organized in 2010, as part of the Department of Chemistry of coordination compounds. The laboratory was based on the staff of the groups of Doctors of Chemical Sciences, Professors S.N. Konchenko and Ph.D., Associate Professor V.A. Maksakov, who were part of the laboratory of chemistry of cluster and supramolecular compounds. The head of the laboratory is Dr. Sergey Nikolaevich Konchenko.

The main goal of the laboratory is the development, synthesis and modification of materials based on phthalocyanines, their analogues - porphyrazines and homologues with contracted macrocycle (corrolazines and subphthalocyanines) for application in organic electronics, catalysis and medicine. The main task of the laboratory is to solve scientific problems in the field of (macro)heterocyclic compounds.

Created at the IGIС RAS to conduct fundamental and applied research in the field of photonics and solar energy, as well as to collect, systematize and disseminate digital data on the properties of dyes and pigments.

Directed design of new coordination compounds with antibacterial properties based on essential metals with biogenic and abiogenic ligands