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2-years impact-factor Math-Net.Ru of «Teplofizika vysokikh temperatur» journal, 2019
2-years impact-factor Math-Net.Ru of the journal in 2019 is calculated
as the number of citations in 2019 to the scientific papers published during
2017–2018.
The table below contains the list of citations in 2019 to the papers
published in 2017–2018. We take into account all citing publications
we found from different sources, mostly from references lists available
on Math-Net.Ru. Both original and translation versions are taken into account.
The impact factor Math-Net.Ru may change when new citations to a year
given are found.
| Year |
2-years impact-factor Math-Net.Ru |
Scientific papers |
Citations |
Citated papers |
Journal Self-citations |
| 2019 |
1.571 |
280 |
440 |
166 |
24.8% |
|
|
|
| N |
Citing pulication |
|
Cited paper |
|
| 1. |
A. L. Khomkin, A. S. Shumikhin, “Osobennosti ucheta atom-atomnogo i ion-atomnogo vzaimodeistviya v gazakh pri nalichii protsessov dissotsiatsii”, TVT, 57:1 (2019), 4–10  |
→ |
Calculation of thermophysical properties of titanium and zinc plasmas E. M. Apfel'baum TVT, 55:1 (2017), 3–14
|
| 2. |
H. Cacan, B. A. Mamedov, “The comparative analytical evaluation of quantum corrections to the second virial coefficient with morse potential and its applications to real systems”, J. Chem. Thermodyn., 138 (2019), 147–150  |
→ |
Calculation of thermophysical properties of titanium and zinc plasmas E. M. Apfel'baum TVT, 55:1 (2017), 3–14
|
| 3. |
B. A. Mamedov, H. Cacan, “A general analytical method for evaluation of the thermodynamic properties of matters using virial coefficients with morse potential at high temperature”, Contrib. Plasma Phys., 59:9 (2019), UNSP e201900021  |
→ |
Calculation of thermophysical properties of titanium and zinc plasmas E. M. Apfel'baum TVT, 55:1 (2017), 3–14
|
| 4. |
E. M. Apfelbaum, “The thermophysical properties of low-temperature pb plasma”, Contrib. Plasma Phys., 59:4-5, SI (2019), UNSP e201800148  |
→ |
Calculation of thermophysical properties of titanium and zinc plasmas E. M. Apfel'baum TVT, 55:1 (2017), 3–14
|
|
| 5. |
A Mustafaev, B Klimenkov, A Grabovskiy, V Kuznetsov, “Grid current control in the unstable mode of plasma discharge”, J. Phys.: Conf. Ser., 1400:7 (2019), 077024  |
→ |
Low-voltage beam discharge in light inert gases to solve problems of voltage stabilization A. S. Mustafaev, A. Yu. Grabovskii TVT, 55:1 (2017), 24–30
|
|
| 6. |
Ph. F. Weck, J. P. Townsend, K. R. Cochrane, S. D. Crockett, N. W. Moore, “Shock compression of niobium from first-principles”, J. Appl. Phys., 125:24 (2019), 245905  |
→ |
Investigation of $\alpha$-phase and liquid uranium by the method of quantum molecular dynamics A. V. Yanilkin TVT, 55:1 (2017), 44–50
|
|
| 7. |
S. A. Nekrasov, “Simulation of harmonic temperature and magnetic fields based on the method of separation of variables in regions of complex toroidal forms”, J. Eng. Phys. Thermophys., 92:4 (2019), 861–871  |
→ |
Approximate analytical solution of a 2D problem for a heat conducting emitting plate S. G. Cherkasov, I. V. Laptev TVT, 55:1 (2017), 81–84
|
|
| 8. |
O. V. Sharypov, “Hydrodynamic instability of vaporization front in superheated liquid”, J. Eng. Thermophys., 28:4 (2019), 484–488  |
→ |
Dynamics of interphase surface of self-sustaining evaporation front in liquid with additives of nanosized particles V. E. Zhukov, A. N. Pavlenko, M. I. Moiseev, D. V. Kuznetsov TVT, 55:1 (2017), 85–93
|
| 9. |
D. V. Antonov, M. V. Piskunov, P. A. Strizhak, “Characteristics of the child-droplets emerged by micro-explosion of the heterogeneous droplets exposed to conductive, convective and radiative heating”, Microgravity Sci. Technol., 31:5 (2019), 541–555  |
→ |
Dynamics of interphase surface of self-sustaining evaporation front in liquid with additives of nanosized particles V. E. Zhukov, A. N. Pavlenko, M. I. Moiseev, D. V. Kuznetsov TVT, 55:1 (2017), 85–93
|
| 10. |
D. V. Antonov, M. V. Piskunov, P. A. Strizhak, “Explosive disintegration of two-component drops under intense conductive, convective, and radiant heating”, Appl. Therm. Eng., 152 (2019), 409–419  |
→ |
Dynamics of interphase surface of self-sustaining evaporation front in liquid with additives of nanosized particles V. E. Zhukov, A. N. Pavlenko, M. I. Moiseev, D. V. Kuznetsov TVT, 55:1 (2017), 85–93
|
| 11. |
D. Antonov, P. Strizhak, “Explosive disintegration of two-component droplets in a gas-flow at its turbulization”, Therm. Sci., 23:5, B (2019), 2983–2993  |
→ |
Dynamics of interphase surface of self-sustaining evaporation front in liquid with additives of nanosized particles V. E. Zhukov, A. N. Pavlenko, M. I. Moiseev, D. V. Kuznetsov TVT, 55:1 (2017), 85–93
|
| 12. |
T. Alghamdi, S. T. Thoroddsen, J. F. Hernandez-Sanchez, “Ultra-high speed visualization of a flash-boiling jet in a low-pressure environment”, Int. J. Multiph. Flow, 110 (2019), 238–255  |
→ |
Dynamics of interphase surface of self-sustaining evaporation front in liquid with additives of nanosized particles V. E. Zhukov, A. N. Pavlenko, M. I. Moiseev, D. V. Kuznetsov TVT, 55:1 (2017), 85–93
|
|
| 13. |
V. G. Degtyar, V. I. Pegov, I. Yu. Moshkin, A. D. Cheshko, “Matematicheskoe modelirovanie protsessov teplomassoobmena goryachikh gazovykh strui s zhidkostyu pri podvodnom starte raket”, TVT, 57:5 (2019), 742–747  |
→ |
Gas-dispersed jet flow around a solid in a wide range of stagnation parameters G. V. Molleson, A. L. Stasenko TVT, 55:1 (2017), 94–101
|
| 14. |
A. Yu. Varaksin, “Stolknoveniya chastits i kapel v turbulentnykh dvukhfaznykh potokakh”, TVT, 57:4 (2019), 588–608  |
→ |
Gas-dispersed jet flow around a solid in a wide range of stagnation parameters G. V. Molleson, A. L. Stasenko TVT, 55:1 (2017), 94–101
|
|
| 15. |
D. A. Gubaidullin, A. A. Nikiforov, “Akusticheskie volny v vyazkouprugikh puzyrkovykh sredakh”, TVT, 57:1 (2019), 150–153  |
→ |
Interaction of the acoustic signal with motionless discretely layered medium containing a layer of bubbly liquid D. A. Gubaidullin, A. A. Nikiforov TVT, 55:1 (2017), 102–107
|
|
| 16. |
A. G. Vikulov, A. V. Nenarokomov, “Utochnennoe reshenie variatsionnoi zadachi identifikatsii matematicheskikh modelei teploobmena s sosredotochennymi parametrami”, TVT, 57:2 (2019), 234–245  |
→ |
Optimal way for choosing parameters of spacecraft’s screen-vacuum heat insulation V. F. Formalev, S. A. Kolesnik, I. A. Selin, E. L. Kuznetsova TVT, 55:1 (2017), 108–114
|
| 17. |
L. N. Rabinskiy, “Non-stationary problem of the plane oblique pressure wave diffraction on thin shell in the shape of parabolic cylinder”, Period. Tche Quim., 16:32 (2019), 328–337  |
→ |
Optimal way for choosing parameters of spacecraft’s screen-vacuum heat insulation V. F. Formalev, S. A. Kolesnik, I. A. Selin, E. L. Kuznetsova TVT, 55:1 (2017), 108–114
|
| 18. |
N. S. Severina, “Software complex for solving the different tasks of physical gas dynamics”, Period. Tche Quim., 16:32 (2019), 424–436  |
→ |
Optimal way for choosing parameters of spacecraft’s screen-vacuum heat insulation V. F. Formalev, S. A. Kolesnik, I. A. Selin, E. L. Kuznetsova TVT, 55:1 (2017), 108–114
|
| 19. |
V. F. Formalev, S. A. Kolesnik, E. L. Kuznetsova, “Approximate analytical solution of the problem of conjugate heat transfer between the boundary layer and the anisotropic strip”, Period. Tche Quim., 16:32 (2019), 572–582  |
→ |
Optimal way for choosing parameters of spacecraft’s screen-vacuum heat insulation V. F. Formalev, S. A. Kolesnik, I. A. Selin, E. L. Kuznetsova TVT, 55:1 (2017), 108–114
|
| 20. |
V. F. Formalev, S. A. Kolesnik, E. L. Kuznetsova, “Mathematical modeling of a new method of thermal protection based on the injection of special coolants”, Period. Tche Quim., 16:32 (2019), 598–607  |
→ |
Optimal way for choosing parameters of spacecraft’s screen-vacuum heat insulation V. F. Formalev, S. A. Kolesnik, I. A. Selin, E. L. Kuznetsova TVT, 55:1 (2017), 108–114
|
|
|
|
| Total publications: |
11591 |
| Scientific articles: |
10989 |
| Authors: |
8875 |
| Citations: |
23852 |
| Cited articles: |
3843 |
 |
Impact Factor Web of Science |
|
for 2025:
0.400 |
|
for 2024:
0.700 |
|
for 2023:
1.000 |
|
for 2021:
0.518 |
|
for 2020:
1.094 |
|
for 2019:
1.085 |
|
for 2018:
1.164 |
|
for 2017:
1.064 |
|
for 2016:
1.110 |
|
for 2015:
1.048 |
|
for 2014:
0.952 |
|
for 2013:
1.156 |
|
for 2012:
0.492 |
|
for 2011:
0.432 |
|
for 2010:
0.635 |
|
for 2009:
0.578 |
|
for 2008:
0.469 |
 |
Scopus Metrics |
|
2025 |
CiteScore |
1.700 |
|
2025 |
SNIP |
0.513 |
|
2025 |
SJR |
0.163 |
|
2024 |
CiteScore |
1.400 |
|
2024 |
SNIP |
0.419 |
|
2024 |
SJR |
0.160 |
|
2023 |
CiteScore |
1.500 |
|
2023 |
SNIP |
0.421 |
|
2023 |
SJR |
0.295 |
|
2022 |
SJR |
0.307 |
|
2021 |
SJR |
0.352 |
|
2020 |
SJR |
0.433 |
|
2019 |
SJR |
0.538 |
|
2018 |
CiteScore |
1.360 |
|
2018 |
SJR |
0.461 |
|
2017 |
CiteScore |
1.090 |
|
2017 |
SNIP |
1.434 |
|
2017 |
SJR |
0.455 |
|
2016 |
CiteScore |
1.140 |
|
2016 |
SNIP |
1.409 |
|
2016 |
SJR |
0.484 |
|
2015 |
CiteScore |
0.930 |
|
2015 |
SNIP |
1.317 |
|
2015 |
IPP |
0.904 |
|
2015 |
SJR |
0.401 |
|
2014 |
CiteScore |
0.920 |
|
2014 |
SNIP |
1.246 |
|
2014 |
IPP |
0.872 |
|
2014 |
SJR |
0.277 |
|
2013 |
SNIP |
0.945 |
|
2013 |
IPP |
0.961 |
|
2013 |
SJR |
0.253 |
|
2012 |
SNIP |
0.771 |
|
2012 |
IPP |
0.436 |
|
2012 |
SJR |
0.269 |
|