Rakhimov Rustam Khakimovich

Publications in Math-Net.Ru

1. Fractals and the structure of the universe
   
   Comp. nanotechnol., 11:4 (2024),  190–208
2. The observer effect in the double-slit experiment: the role of experimental parameters in forming the interference pattern
   
   Comp. nanotechnol., 11:4 (2024),  173–189
3. Energy balance: from coal to quantum batteries
   
   Comp. nanotechnol., 11:4 (2024),  154–172
4. Optimization of quantum computations: the impact of the doppler effect on cubit coherence
   
   Comp. nanotechnol., 11:4 (2024),  58–76
5. Pulsed tunnel effect: new perspectives for controlling superconducting devices
   
   Comp. nanotechnol., 11:3 (2024),  161–176
6. Fractals in quantum mechanics: from theory to practical applications
   
   Comp. nanotechnol., 11:3 (2024),  125–160
7. Interrelation and interpretation of effects in quantum mechanics and classical physics
   
   Comp. nanotechnol., 11:3 (2024),  98–124
8. Potential of pulsed tunnel effect (PTE) to overcome technical barriers of quantum computers
   
   Comp. nanotechnol., 11:3 (2024),  11–33
9. Pulse tunnel effect: prospects for scaling photocatalysts
   
   Comp. nanotechnol., 11:2 (2024),  174–190
10. Features of the ITE-based polymerization process
    
    Comp. nanotechnol., 11:2 (2024),  157–173
11. Investigation of the influence of pulsed radiation generated by functional ceramics based on the principle of PTE on the characteristics of the Cr$_{2}$O$_{3}$-SiO$_{2}$-Fe$_{2}$O$_{3}$-CaO-Al$_{2}$O$_{3}$-MgO-CuO system
    
    Comp. nanotechnol., 11:2 (2024),  145–156
12. Pulse tunneling effect. Features interaction with substance
    
    Comp. nanotechnol., 11:2 (2024),  115–144
13. Productive methods for increasing the efficiency of intermediate reactions in the synthesis of functional ceramics
    
    Comp. nanotechnol., 11:1 (2024),  224–234
14. New approaches to the synthesis of functional materials with specified properties under the influence of concentrated radiation and pulse tunnel effect
    
    Comp. nanotechnol., 11:1 (2024),  214–223
15. Pulse tunnel effect: fundamentals and prospects for application
    
    Comp. nanotechnol., 11:1 (2024),  193–213
16. Solar drying of fruit and vegetables using polyethylene-ceramic composite
    
    Comp. nanotechnol., 10:4 (2023),  103–109
17. A possible mechanism of the optical quantum tunneling effect in photocatalysts based on nanostructured functional ceramics
    
    Comp. nanotechnol., 10:3 (2023),  26–34
18. Prospects of solar energy: the role of modern solar technologies in the production of hydrogen
    
    Comp. nanotechnol., 10:3 (2023),  11–25
19. Prospects for the use of film-ceramic photocatalysts for the cultivation of microalgae
    
    Comp. nanotechnol., 10:2 (2023),  60–69
20. Factors of efficient generation of electricity in a solar cell with nanohetero junctions
    
    Comp. nanotechnol., 10:1 (2023),  119–127
21. Increasing the reliability of earthquake prediction
    
    Comp. nanotechnol., 10:1 (2023),  112–118
22. Modeling of the electrical properties of a solar cell with many nano-hetero junctions
    
    Comp. nanotechnol., 9:4 (2022),  70–77
23. Development of a method for obtaining ceramic nanocomposites using sol-gel technology elements to create inclusions of amorphous phases with a composition similar to the target crystalline ceramic matrix
    
    Comp. nanotechnol., 9:3 (2022),  60–67
24. Results of the application of functional ceramics in composition of the Fe$_{3}$O$_{4}$-CaO$_{2}$-TiO$_{2}$ slag system for welding electrode coatings
    
    Comp. nanotechnol., 9:3 (2022),  53–59
25. Capabilities of polyethylene-ceramic composite in comparison with polyethylene film in real operation conditions
    
    Comp. nanotechnol., 9:2 (2022),  67–72
26. Investigation of a film-ceramic composite in a solar cell
    
    Comp. nanotechnol., 9:1 (2022),  132–138
27. Analysis of the efficiency of a solar cell with nano-dimensional hetero transitions
    
    Comp. nanotechnol., 8:4 (2021),  42–50
28. Vibrations of an infinite piece-homogeneous two-layer plate under the influence of normal load
    
    Comp. nanotechnol., 8:4 (2021),  28–33
29. Application of functional ceramics in sterilization processes
    
    Comp. nanotechnol., 8:1 (2021),  84–94
30. The compelled fluctuations of a rectangular two-layer piecewise-homogeneous plate of a constant thickness
    
    Comp. nanotechnol., 7:4 (2020),  25–30
31. Application of solar dryers for drying agricultural products and optimization of drying time
    
    Comp. nanotechnol., 7:4 (2020),  21–24
32. The mechanism of anomaly of charged particles before the earthquake
    
    Comp. nanotechnol., 7:3 (2020),  72–76
33. Mathematical modelling of mountain shocks and earthquakes related to volcanism
    
    Comp. nanotechnol., 7:3 (2020),  57–61
34. Analysis of the general equations of the transverse vibration of a piecewise uniform viscoelastic plate
    
    Comp. nanotechnol., 7:3 (2020),  52–56
35. Efficiency of drying and calcining of welding electrodes in furnaces using radiation from nanostructured functional ceramics (NFC)
    
    Comp. nanotechnol., 7:2 (2020),  64–70
36. Mathematical modeling of optimal parameters of atmospheric influence on the properties of the solar module
    
    Comp. nanotechnol., 7:2 (2020),  58–63
37. Calculation of stages of the technological process of manufacture of PPD detectors using computer mathematical modeling and production of alpha radiometer on their basis
    
    Comp. nanotechnol., 7:2 (2020),  21–28
38. A new method for drying and calcining welding electrodes using emitters made of functional ceramic
    
    Comp. nanotechnol., 7:1 (2020),  44–51
39. Endangered health - opportunity with efficient innovations
    
    Comp. nanotechnol., 7:1 (2020),  15–18
40. Endangered health - opportunity with efficient innovations
    
    Comp. nanotechnol., 7:1 (2020),  11–14
41. Determination of the density value specifically at the focal point of the mirror concentrating system
    
    Comp. nanotechnol., 6:4 (2019),  49–55
42. Prospects of application of polymer-ceramic composite in the production of microalgae
    
    Comp. nanotechnol., 6:4 (2019),  44–48
43. Development of silicon diffusion $n - p$-detectors of ionizing radiation
    
    Comp. nanotechnol., 6:3 (2019),  112–115
44. Calculation of the optimal size of the reflecting element large compound facet concentrators
    
    Comp. nanotechnol., 6:3 (2019),  100–103
45. Study of the influence of the spectral composition of ir radiation on the sedimentation rate of complex compounds
    
    Comp. nanotechnol., 6:3 (2019),  96–99
46. Silicon-lithium $\Delta E$-detectors of alpha-radiation to the radiometer
    
    Comp. nanotechnol., 6:2 (2019),  157–159
47. The main stages of development, creation of mirror-concentrating systems on the example of a large solar furnace
    
    Comp. nanotechnol., 6:2 (2019),  151–156
48. A big solar oven
    
    Comp. nanotechnol., 6:2 (2019),  141–150
49. Generation and properties of infrared radiation
    
    Comp. nanotechnol., 6:2 (2019),  95–100
50. Method of calculating geometric and energy parameters of the focal spot from individual zones of the concentrator with complex midel configuration
    
    Comp. nanotechnol., 6:1 (2019),  69–74
51. Development of radometer based on silicon detectors with a big sensitive area
    
    Comp. nanotechnol., 6:1 (2019),  65–68
52. Comparative frequency characteristics of vibrations generated by the functional ceramics and cavitation generator
    
    Comp. nanotechnol., 2018, no. 4,  57–70
53. Development of highly efficient equipment based on functional ceramics synthesized in a solar furnace with a capacity of 1 mw
    
    Comp. nanotechnol., 2018, no. 3,  91–100
54. Nuclear-radioactive reactions in earth crust the generator of earthquake harbingers
    
    Comp. nanotechnol., 2018, no. 3,  68–72
55. Semiconductor nuclear radiation detectors on the basis of heterojunction structures of Al-$\alpha$Ge-pSi-Au for measurement of low intensive ionizing radiations
    
    Comp. nanotechnol., 2018, no. 3,  65–67
56. Features of synthesis of functional ceramics with a complex of the set properties by a radiation method. Part 3
    
    Comp. nanotechnol., 2018, no. 2,  76–82
57. Vibrations of two-layer plates of constant thickness
    
    Comp. nanotechnol., 2018, no. 2,  52–67
58. Regressions models for forecasting of earthquakes
    
    Comp. nanotechnol., 2018, no. 2,  40–45
59. Expansion of the effective absorption spectrum in solar cells with nanoinclusions
    
    Comp. nanotechnol., 2018, no. 1,  155–157
60. Features of the development of manufacturing technology for surface-barrier detectors of large diameter with a large working area sensitive for measuring the activity of natural isotopes
    
    Comp. nanotechnol., 2018, no. 1,  151–154
61. Application of functional ceramics for drying the paint, polymerization of high-molecular compounds and vulcanization of rubbers
    
    Comp. nanotechnol., 2017, no. 4,  60–62
62. Determination of the maximum emissivity ceramic depending on the concentration of the binder
    
    Comp. nanotechnol., 2017, no. 4,  36–40
63. Phonon mechanism of transformation in ceramic materials
    
    Comp. nanotechnol., 2017, no. 4,  21–35
64. The frequency characteristic of the oscillator resonant oscillations
    
    Comp. nanotechnol., 2017, no. 4,  6–13
65. Functional ceramics and its application.a new look at an old disease. Part 1. Diabetes, obesity, hypertension
    
    Comp. nanotechnol., 2017, no. 3,  64–90
66. The results of experimental studies of the emitters based on functional ceramics K-series
    
    Comp. nanotechnol., 2017, no. 3,  59–63
67. Analysis of the role of nano-objects in the cheaper silicon solar cells
    
    Comp. nanotechnol., 2017, no. 3,  14–17
68. Analysis of some linear-electrical filters in opto-electric of the telecommunication networks
    
    Comp. nanotechnol., 2017, no. 2,  97–101
69. Innovative hydrometallurgical technologies of processing of mineral raw materials
    
    Comp. nanotechnol., 2017, no. 2,  89–93
70. The use of ergonometry based on silicon surface barrier detectors to monitor radon
    
    Comp. nanotechnol., 2017, no. 2,  85–88
71. Safety of storage of sulfuric acid. Part 2
    
    Comp. nanotechnol., 2017, no. 2,  62–79
72. The method of calculating the optimum shape of the distribution of solar radiation power density for the uniform excitation of the active elements of lasers predetermined shape
    
    Comp. nanotechnol., 2017, no. 1,  135–142
73. Resonance therapy. Ceramic materials and methods of their application in medicine
    
    Comp. nanotechnol., 2017, no. 1,  75–134
74. Unique opportunity to create cheap but effective silicon solar cells
    
    Comp. nanotechnol., 2017, no. 1,  61–64
75. Unique opportunity to create cheap but effective silicon solar cells
    
    Comp. nanotechnol., 2017, no. 1,  56–60
76. The automated computer system of measurement of productivity of solar water heaters from portion preparation of hot water
    
    Comp. nanotechnol., 2017, no. 1,  23–26
77. The ionizing radiation detectors based on neutron-doped silicon
    
    Comp. nanotechnol., 2016, no. 4,  136–137
78. Features of synthesis of functional ceramics with the complex of the set properties by the radiation method. Part 8. Bases of the theory of resonant therapy by R. Rakhimov's (INFRA R METHOD) method
    
    Comp. nanotechnol., 2016, no. 4,  32–135
79. Development of ceramic coatings and application of their infrared radiation
    
    Comp. nanotechnol., 2016, no. 4,  6–9
80. The difference between the contact structure with nanosize inclusions from the semiconductor photodiodes
    
    Comp. nanotechnol., 2016, no. 3,  203–207
81. The difference between the contact structure with nanosize inclusions from the semiconductor photodiodes
    
    Comp. nanotechnol., 2016, no. 3,  196–202
82. Safety of storage of sulfuric acid
    
    Comp. nanotechnol., 2016, no. 3,  183–195
83. Features of synthesis of functional ceramics with the complex of the set properties by the radiation method. Part 7. Nature of electromagnetic radiation
    
    Comp. nanotechnol., 2016, no. 3,  35–182
84. Features of synthesis of functional ceramics with a complex of the set properties by a radiation method. Part 6
    
    Comp. nanotechnol., 2016, no. 3,  6–34
85. Possibility of use of functional ceramics for synthesis of complex connections
    
    Comp. nanotechnol., 2016, no. 2,  129–131
86. Working methods and stand for determination of service materials and products to solar radiiant flux
    
    Comp. nanotechnol., 2016, no. 2,  94–100
87. Features of synthesis of functional ceramics with a complex of the set properties by a radiation method. Part 5. Mechanism of generation of impulses functional ceramics
    
    Comp. nanotechnol., 2016, no. 2,  81–93
88. Features of synthesis of functional ceramics with a complex of the set properties by a radiation method. Part 4
    
    Comp. nanotechnol., 2016, no. 2,  77–80
89. Features of synthesis of functional ceramics with a complex of the set properties by a radiation method. Part 3
    
    Comp. nanotechnol., 2016, no. 2,  66–76
90. Features of synthesis of functional ceramics with a complex of the set properties by a radiation method. Part 2
    
    Comp. nanotechnol., 2016, no. 2,  28–65
91. Features of synthesis of functional ceramics with a complex of the set properties by a radiation method. Part 1
    
    Comp. nanotechnol., 2016, no. 2,  9–27
92. Recource saving and energy efficient technology of the production alumina from secondary kaolin with Angren deposi
    
    Comp. nanotechnol., 2016, no. 1,  45–51
93. Possibilities of use of ceramic materials in power- and resource-saving
    
    Comp. nanotechnol., 2016, no. 1,  35–39
94. The teoretical model of new contact structure «nanoobject-semiconductor»
    
    Comp. nanotechnol., 2015, no. 4,  51–63
95. Development of the equipment with use of the functional ceramics synthesized on the Big Solar Furnace
    
    Comp. nanotechnol., 2015, no. 3,  11–25


96. Investigation of the properties of functional ceramics synthetized by the modified carbonate method
    
    Comp. nanotechnol., 10:3 (2023),  130–143