Head of group | Joint Institute for Nuclear Research | Russia
Prof. Dr. Yury Filippov is a distinguished expert in cryometrology, having made significant advancements in cryogenic engineering and low-temperature technologies. He graduated from the Moscow Power Engineering Institute and began his career at the Institute of High Energy Physics, where he developed cryogenic systems for particle accelerators. His journey through various leading research institutions, including the Joint Institute for Nuclear Research in Dubna, reflects his lifelong dedication to cryometrology and its practical applications in superconducting accelerators and medical cryosystems. His research in cryometrology has driven innovations in diagnostic tools for cryogenic two-phase and three-phase flow systems, contributing to fundamental developments in fluid dynamics and measurement precision. Prof. Dr. Filippov’s expertise in cryometrology extends to areas like hydrodynamics of multiphase flows, thermal control, and advanced instrumentation. His leadership in supervising PhD candidates and active participation in academic councils demonstrates his influence on future generations of scientists. Through continuous contributions to journals such as Cryobiology, Cryogenics, and Review of Scientific Instruments, he has strengthened the global recognition of cryometrology as a vital scientific discipline. His awards and honors reflect his commitment to excellence and innovation in cryometrology research, where his technical acumen and analytical precision stand out. His professional skills encompass experimental design, cryometrology instrumentation, and multiphase flow analysis, all aligned with modern scientific standards. In conclusion, Prof. Dr. Yury Filippov remains a prominent figure in cryometrology, whose research legacy and academic guidance continue to advance the field globally. Scopus profile of 292 Citations, 52 Documents, 11 h-index.
Profile: Scopus
Featured Publications
1. Minimization of Problems while Creating Two-Phase Flowmeters for Cryogenics and Their Features: Part I. Diagnostics of Helium Flows. (2025). Instruments and Experimental Techniques.
2. Minimization of Problems while Creating Two-Phase Flowmeters for Cryogenics and Their Features: Part II. Diagnostics of Hydrogen and LNG Flows. (2025). Instruments and Experimental Techniques.
3. Modifications of the Separationless Oil–Water–Gas Flowmeter with a Dual Isotope Gamma-Densitometer for Particular Cases of Applications. (2024). Instruments and Experimental Techniques.
4. Optimization of a Separationless Three-Phase Oil–Water–Gas Flowmeter of Horizontal Orientation with Dual-Isotope Gamma Densitometers. (2023). Instruments and Experimental Techniques.
5. Diagnostic tools for multiphase flows in cryogenics, LNG-and oil production. (Conference Paper).