The European Ceramic Society
Laboratory sheet

Russia
Center of Functional Nano-Ceramics - Moscow
Director : Dr. Dmitry Moskovskikh
Email : mos@misis.ru
Phone : +7 495 955 0113
Address : 119049, Moscow, Leninskiy prospekt 4
Website : https://misis.ru/university/struktura-universiteta/centre/34/
Research topics :
The main focus of the center is the synthesis of various nanostructured materials by the methods of self-propagating high-temperature synthesis and solution combustion synthesis. The aim of the center is to study the fundamental foundations of self-sustaining heterogeneous reactions in nanostructured substances and the consolidation processes by the SPS method in order to create effective technologies for producing new materials in the combustion mode. An important part of the project is the training of specialists in the field of obtaining and researching new nanomaterials.
Self-propagating high-temperature synthesis (SHS) - Synthesis of ceramic nano- and submicron powder
Solution combustion synthesis - Synthesis of oxide and metal nanopowder
Spark plasma sintering (SPS and Flash SPS) - Consolidation and synthesis of ceramic materials
High-energy treatment in a planetary ball mill (HEBM) - Synthesis of high-entropy alloys, intermetallic compounds and powders for 3D printing
Contact information:
Dr. Dmitry Moskovskikh
Tel : +7 915 253 1000
Email: mos@misis.ru
Exceptional facilities :
- Direct Hot Pressing (Dr. Fritsch - DSP-515 SA)
- Spark Plasma Sintering (Sinter Land Labox 650)
- SHS reactor
- High-speed planetary ball mill (Activator-2S)
- High Speed Camera (PHANTOM Miro M310)
- High-Resolution Science-Grade Infrared Camera (FLIR A655sc)
- TEM during in-situ heating experiments
- TEM during in-situ stretch / compress experiments
- XRD during in-situ heating experiments
Materials and their application:
Development of nanostructured hard plates (SiC and B4C), ceramic materials for cutting tools (Al2O3–SiC, Al2O3–SiC–Si3N4), prototype detectors SiC–Si3N4 (joint efforts with the Kurchatov Institute and CERN) with the pre-established surface and volume electrical resistance for aerospace uses; a ceramic material based on HfCxN1-x hafnium carbonitride with the theoretical melting temperature of over 4400 K was synthesized and obtained.
Development of intermetallic and low-module alloys for 3D printing (Ni–Al, Nb–Al, Ti–Al, Ti–Si, Ti–Nb, Ti–Al–Ni, etc.)
A spectrum of material for creating new catalyst agents, condensers, sensors, gas sensors, metal-dielectric-metal and metal-dielectric-semi-conductor structures, piezo- and thermoelectrics is being developed.
The superalloys based on high entropy materials (Ti–Cu–Al–Ni–Nb, Fe–Ni–Cr–Co–Mn, Ni–Al–Cr–
Fe–W(Mo), Hf–Zr–Ta–Nb–Ti and Hf–Zr–Ta–Mo–Ti) are under way.
SHS approaches for the new class of ceramic and high entropy carbides, borides and nitrides are being developed: (HfZrTaNbTi)B2, (HfZrTaMoTi)B2, (HfZrMoNbTi)C, (MoZrTaNbTi)С and (HfZrMoNbTi)N
Pseudoalloys for vacuum electrocontacts (Cu–Cr, Cu–Mo, Cu–W, Cu–Cr–Mo, Cu–SiC, Cu–Cr– SiC, etc.)
Financial support programmes :
- National fundings : RSF, RFBR, FCPIR
- Ministry of Science and Higher Education of the Russian Federation in the framework of Increase Competitiveness Program of NUST «MISiS»
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