Шевелёв Александр Павлович

Heading:

Physico-mathematical modeling

Author:

Alexander P. Shevelev

About author:

Dr. Sci. (Phys.-Math.), Associate Professor, Professor of the Department of Modeling of Physical Processes and Systems, University of Tyumen, Tyumen, Russia; a.p.shevelev@utmn.ru, https://orcid.org/0000-0003-0017-4871

Articles:

2016, Vol. 2. №2

Method for Determining the Technical Parameters of Water Restrictions

Alexander P. Shevelev
2017, Vol. 3. №3

Physical and Mathematical Modeling of Steam-Assisted-Gravity-Drainage of Heavy Oil Fields Based on Material Balance Method

Alexander P. Shevelev
2018, Vol. 4. №1

Modeling of Perspective Directions of Application of Steam-Assisted-Gravity-Drainage Technologies

Alexander P. Shevelev
2019, Vol. 5. №1

Calculating the characteristic parameters of steam-assisted gravity drainage and increasing sweep efficiency

Alexander P. Shevelev
2019, Vol. 5. №2

Adaptation of algorithm for calculating multicomponent system phase equilibrium for fields with uncertain initial data

Alexander P. Shevelev
2019, Vol. 5. №4 (20)

Analysis of dimensionless similarity complexes’ influence on steam-assisted gravity drainage using the integral model

Alexander P. Shevelev
2020. Vol. 6. № 1 (21)

Physical and mathematical modeling of cyclic steam stimulation for oil reservoirs

Alexander P. Shevelev
2020. Vol. 6. № 2 (22)

Optimization of technological parameters for cyclic steam stimulation of oil reservoirs

Alexander P. Shevelev
2020. Vol. 6. № 3 (23)

Improving the steam-assisted gravity drainage integral simulator to predict the time of steam breakthrough into the producer

Alexander P. Shevelev
2021. Vol. 7. № 2 (26)

The analysis of thermal fields at the primary stage of the steam-assisted gravity drainage process

Alexander P. Shevelev
2021. Vol. 7. № 3 (27)

Determination of unit parameters with selective membranes

Alexander P. Shevelev
2022. Vol. 8. № 1 (29)

Method of determination of thermodynamic and filtration parameters for hydrodynamic compositional models

Alexander P. Shevelev
2022. Vol. 8. № 4 (32)

Calculation of the flow characteristics of the heat carrier in the well considering the flow modes

Alexander P. Shevelev
2023. Vol. 9. № 1 (33)

Simulation of blocking of hydraulic fracture near injector in a reservoir simulator

Alexander P. Shevelev
2023. Vol. 9. № 2 (34)

Prediction of the temperature distribution in the reservoir when oil is displaced by a fluid with a temperature different from the reservoir

Alexander P. Shevelev
2023. Vol. 9. № 3 (35)

Analysis of the influence of the thermophysical parameters of the reservoir and fluid on the process of cyclic steam stimulation

Alexander P. Shevelev
2024. Vol. 10. No. 2 (38)

Calculation of the heat stabilizer effective parameters depending on its location relative to the pile

Alexander P. Shevelev
2024. Vol. 10. No. 1 (37)

Simulation of heat stabilizer with a distributed refrigerant supply to the outer surface

Alexander P. Shevelev
2024. Vol. 10. No. 4 (40)

Criteria analysis of the displacement front instability occurring at waterflooding of oil reservoirs

Alexander P. Shevelev
2025. Vol. 11. No. 1 (41)

Study of the efficiency of displacement of high-viscosity fluid by a two-phase heat carrier depending on the rate of heat supply to a porous medium and the magnitude of heat losses

Alexander P. Shevelev
2025. Vol. 11. No. 1 (41)

Modeling of upward flow of steam-water mixture in a geothermal well with consideration of phase transformations

Alexander P. Shevelev
2025. Vol. 11. No. 1 (41)

Method for planning petrophysical research to predict the thermopolymer flooding effectiveness with limited core material

Alexander P. Shevelev
2025. Vol. 11. No. 3 (43)

Contribution of an external magnetic field to the dynamics of phase separation in a binary magnetic mixture

Alexander P. Shevelev
2025. Vol. 11. No. 4 (44)

Modeling the movement of preformed particle gel in a porous medium

Alexander P. Shevelev