Joint Institute for High Temperatures
In research, Joint Institute for High Temperatures stands highest in Physical Sciences (#2,466 of 12,888 worldwide), Engineering (#2,751 of 6,636 worldwide) and Physics and Astronomy (#794 of 1,646 worldwide), 2022–2025. Relative to its size it is most specialised in Fluid Flow and Transfer Processes, Atomic and Molecular Physics, and Optics and Computational Mechanics — Fluid Flow and Transfer Processes is 28.3× its share of world research.
- World rank, 2022–2025
- #4,423 of 28,054 · #2,675 all time
- Rank in Russia
- #49 of 1,062
- Research works
- 5.9k ▲ 54% vs 2013–17
- Citations
- 56k 9.5 per fractional work
- Top-10% rate
- 8.6% record average 16.5%
- Open access
- 23% world 28%
What is Joint Institute for High Temperatures known for in research?
The fields where it stands highest, 2022–2025, ranked among every institution above the floor in each field.
| Field | World rank | Where that sits | Top-10% rate | Works | All time |
|---|---|---|---|---|---|
| Physical SciencesDomain | #2,466 of 12,888 | 8.6% | 924 | #1751 | |
| EngineeringField | #2,751 of 6,636 | 10.6% | 428 | #1494 | |
| Physics and AstronomyField | #794 of 1,646 | 7.5% | 190 | #1348 | |
| Computational MechanicsSubfield | #309 of 376 | 13.7% | 74 | #371 | |
| Materials ScienceField | #2,029 of 2,468 | 5.1% | 100 | #1848 | |
| Atomic and Molecular Physics, and OpticsSubfield | #504 of 565 | 6.6% | 120 | #1013 | |
| Earth and Planetary SciencesField | #1,086 of 1,209 | 6.7% | 68 | #1849 | |
| Materials ChemistrySubfield | #1,472 of 1,556 | 5.4% | 80 | #2029 | |
| Biomedical EngineeringSubfield | #1,493 of 1,568 | 9.1% | 61 | #2343 | |
| Electrical and Electronic EngineeringSubfield | #2,222 of 2,318 | 3.4% | 87 | #1983 |
Each strip is that field’s whole ranked pool, with the notch where Joint Institute for High Temperatures sits in it, in the colour of the band that rank falls in. The track under the rate is the rate itself: it carries no world mark, because the world rate differs by field (from about 6% to 21% in this record).
Which of those standings moved
The same fields on both windows: where it stood over the whole record, and where it stands in 2022–2025. The distance is the story, and it is the one thing the two rank columns above cannot show.
- Physical Sciences#1,751 #2,466
- Engineering#1,494 #2,751
- Physics and Astronomy#1,348 #794
- Computational Mechanics#371 #309
- Materials Science#1,848 #2,029
- Atomic and Molecular Physics, and Optics#1,013 #504
- Earth and Planetary Sciences#1,849 #1,086
- Materials Chemistry#2,029 #1,472
- Biomedical Engineering#2,343 #1,493
- Electrical and Electronic Engineering#1,983 #2,222
A dot further right is a better standing. Fields it was not ranked in over the whole record are left out.
What does Joint Institute for High Temperatures specialise in?
Where its research is concentrated relative to its size: Fluid Flow and Transfer Processes takes 28.3× the share of its output that it takes of world research.
- Fluid Flow and Transfer ProcessesSubfield · 21.6 works28×
- Atomic and Molecular Physics, and OpticsSubfield · 119.8 works17×
- Computational MechanicsSubfield · 74.0 works13×
- GeophysicsSubfield · 35.7 works10×
- Chemical EngineeringField · 31.0 works9.0×
- Physics and AstronomyField · 190.5 works8.7×
Location quotient, a volume reading rather than an impact one. It surfaces small, lopsided specialities.
Field profile
Location quotient across every field it publishes in: outside the ring is more than an institution of this size would be expected to publish, inside it is less.
Rings at 0.5×, 1× and 2×. Widest outward: Chemical Engineering, 9.0×. Every wedge is a field page.
- Chemical Engineering 9.0×
- Physics and Astronomy 8.7×
- Earth and Planetary Sciences 4.4×
- Energy 2.9×
- Materials Science 2.9×
- Engineering 2.9×
- Chemistry 2.1×
- Mathematics 1.2×
- Environmental Science 0.4×
- Decision Sciences 0.3×
- Biochemistry, Genetics and Molecular Biology 0.2×
- Computer Science 0.2×
- Medicine 0.2×
- Dentistry 0.1×
- Agricultural and Biological Sciences 0.1×
- Economics, Econometrics and Finance 0.1×
- Immunology and Microbiology 0.1×
- Pharmacology, Toxicology and Pharmaceutics 0.1×
- Business, Management and Accounting 0.0×
- Social Sciences 0.0×
- Neuroscience 0.0×
- Nursing 0.0×
- Health Professions 0.0×
Who are the top researchers at Joint Institute for High Temperatures?
Ranked on the composite score, G V Naĭdis, B. S. Petukhov and M. B. Agranat lead among researchers whose main affiliation is Joint Institute for High Temperatures.
- 1 G V Naĭdis Russia · #66,211 worldwide 292 citations · 36 works
- 2 B. S. Petukhov Russia · #154,882 worldwide 391 citations · 20 works
- 3 M. B. Agranat Russia · #191,276 worldwide 166 citations · 35 works
- 4 S. I. Ashitkov Russia · #212,732 worldwide 148 citations · 26 works
- 5 А. В. Овчинников Russia · #244,062 worldwide 140 citations · 50 works
- 6 О. Ф. Петров Russia · #282,986 worldwide 250 citations · 63 works
- 7 В. Е. Фортов Russia · #297,399 worldwide 633 citations · 164 works
- 8 N. E. Andreev Russia · #410,862 worldwide 87 citations · 31 works
- 9 Leonid A. Dombrovsky Russia · #427,246 worldwide 158 citations · 52 works
- 10 V. I. Molotkov Russia · #436,223 worldwide 132 citations · 31 works
Which keywords describe research at Joint Institute for High Temperatures?
By fractional works in 2022–2025, weighted toward what it does more of than the world: Heat Transfer, Biomedical Applications, Chemical Kinetics, Nanoparticles, Large-Eddy Simulation, Combustion Instabilities, Premixed Combustion and Turbulent Flames.
- Molecular Dynamics Simulation
- Monte Carlo Simulation
- Density Functional Theory
- Oxidation Mechanism
- Metal Nanoparticles
- Spectroscopy
- Mantle Dynamics
- Emissions
- Plate Tectonics
- Phase Diagrams
- Plasma Medicine
- Biofuels
- Combustion
- Quantum Plasma Physics
- Pulse Detonation Engines
- Turbulent Flames
- Energy Efficiency
- Renewable Energy
- Chemical Kinetics
- Heat Transfer
- Biomedical Applications
- Nanoparticles
- Large-Eddy Simulation
- Combustion Instabilities
- Premixed Combustion
- Detonation Propulsion
- Dusty Plasmas
- Tomography
- Superconductivity
- Atmospheric Pressure Plasmas
- Superfluidity
- Plasma Etching
- Semiconductor Industry
- Crystal Structure Prediction
- Vortex Dynamics
- Crystal Growth
- Thermodynamic Properties
- Multiphase Flow
- Thermal Decomposition
- Thermal Conductivity
Size is fractional works in 2022–2025 in the topics tagged with each word; colour is the word's share of this institution's work against its share of the world's. The 40 words are chosen for being large and distinctive. Each links to the topic it comes from most.
All 40 words, with their numbers
- Biomedical Applications58▲ 5.0×24 topics
- Heat Transfer55▲ 11×20 topics
- Nanoparticles54▲ 4.4×23 topics
- Chemical Kinetics46▲ 52×3 topics
- Large-Eddy Simulation38▲ 20×5 topics
- Renewable Energy36▲ 2.5×27 topics
- Combustion Instabilities30▲ 51×2 topics
- Energy Efficiency28▲ 3.0×19 topics
- Premixed Combustion27▲ 71×1 topic
- Turbulent Flames27▲ 71×1 topic
- Detonation Propulsion27▲ 93×1 topic
- Pulse Detonation Engines27▲ 93×1 topic
- Dusty Plasmas27▲ 462×1 topic
- Quantum Plasma Physics27▲ 462×1 topic
- Tomography25▲ 14×5 topics
- Combustion25▲ 40×2 topics
- Superconductivity24▲ 15×6 topics
- Biofuels24▲ 25×2 topics
- Atmospheric Pressure Plasmas22▲ 117×1 topic
- Plasma Medicine22▲ 117×1 topic
- Superfluidity22▲ 52×2 topics
- Phase Diagrams22▲ 89×3 topics
- Plasma Etching21▲ 99×1 topic
- Plate Tectonics21▲ 14×2 topics
- Semiconductor Industry21▲ 99×1 topic
- Emissions21▲ 11×3 topics
- Crystal Structure Prediction21▲ 45×1 topic
- Mantle Dynamics21▲ 45×1 topic
- Vortex Dynamics20▲ 18×2 topics
- Spectroscopy20▲ 12×8 topics
- Crystal Growth20▲ 7.2×10 topics
- Metal Nanoparticles19▲ 12×6 topics
- Thermodynamic Properties19▲ 41×4 topics
- Oxidation Mechanism18▲ 24×2 topics
- Multiphase Flow18▲ 21×4 topics
- Density Functional Theory18▲ 18×3 topics
- Thermal Decomposition18▲ 40×2 topics
- Monte Carlo Simulation18▲ 8.8×3 topics
- Thermal Conductivity18▲ 12×8 topics
- Molecular Dynamics Simulation17▲ 16×3 topics
Which research topics does Joint Institute for High Temperatures publish most on?
By volume in 2022–2025: Combustion and flame dynamics, Combustion and Detonation Processes, Dust and Plasma Wave Phenomena and Plasma Applications and Diagnostics.
Area is fractional works; colour is the subfield each topic belongs to.
- 1 Combustion and flame dynamics Computational Mechanics 27 works
- 2 Combustion and Detonation Processes Aerospace Engineering 27 works
- 3 Dust and Plasma Wave Phenomena Atomic and Molecular Physics, and Optics 27 works
- 4 Plasma Applications and Diagnostics Radiology, Nuclear Medicine and Imaging 22 works
- 5 Plasma Diagnostics and Applications Electrical and Electronic Engineering 21 works
- 6 High-pressure geophysics and materials Geophysics 21 works
- 7 Advanced Combustion Engine Technologies Fluid Flow and Transfer Processes 17 works
- 8 nanoparticles nucleation surface interactions Atmospheric Science 16 works
- 9 Quantum, superfluid, helium dynamics Atomic and Molecular Physics, and Optics 14 works
- 10 Laser-induced spectroscopy and plasma Mechanics of Materials 14 works
How open and international is its research?
Against the world’s own shares — the tick on each track. Both are shares of its output, so they sit on one scale and can be read against each other as well as against the world.
World: 28% of research is openly available.
World: 19% is written across borders.
How has Joint Institute for High Temperatures's research output changed?
Output in 2018–2022 was 54% higher than in 2013–2017.
The same series as a ribbon — one cell per year, darker for more. The line above answers how much; this answers when.
Other research institutions in Moscow
- Russian Academy of Sciences
- Lomonosov Moscow State University
- National Research University Higher School of Economics
- Peoples' Friendship University of Russia
- Sechenov University
- Bauman Moscow State Technical University
- Kurchatov Institute
- N.D. Zelinsky Institute of Organic Chemistry
Research measures only: rankings here say nothing about teaching, admissions or student experience. Comparable institutions and collaboration partners are in the interactive view on the map.