1S. , Tripathi N., Sharma P. etc. Development of transition metal dichalcogenides for modern photodetector devices // Proceedings of ITNT 2021 - 7th IEEE International Conference on Information Technology and Nanotechnology. — 2021. —
5Kotlyar V.V., Stafeev S.S.A transverse energy flow at the tight focus of light with higher-order circular-azimuthal polarization // Computer Optics 2021. — Vol. 45. Issue 3. — P. 311-318
6Kotlyar V.V., Stafeev S.S., Kozlova E.S. etc. Spin-orbital conversion of a strongly focused light wave with high-order cylindrical–circular polarization // Sensors (Switzerland) 2021. — Vol. 21. Issue 19.
7Kotlyar V.V., Nalimov A.G., Stafeev S.S. etc. Sharp focusing of beams with v-point polarization singularities // Computer Optics 2021. — Vol. 45. Issue 5. — P. 643-653
8Stafeev S.S.An orbital energy flow and a spin flow at the tight focus // Computer Optics 2021. — Vol. 45. Issue 4. — P. 520-524
9Kotlyar V.V., Stafeev S.S., Zaitsev V.D.Spin-orbital Conversion in Focused Vector Beams of Fractional Orders // Progress in Electromagnetics Research Symposium. — 2021. — Vol. 2021-November. — P. 1086-1090
10Kotlyar V.V., Stafeev S.S.Orbital and spin energy flows in tight focus // OPTIK 2021. — Vol. 245.
11Kotlyar V.V., Stafeev S.S., Nalimov A.G.Focusing of a vector beam with c-lines of polarization singularity // Computer Optics 2021. — Vol. 45. Issue 6. — P. 800-808
12Stafeev S.S., Kozlova E.S., Nalimov A.G. etc. Tight focusing of second-order cylindrical vector beam by Mikaelian lens // Journal of Physics: Conference Series. — 2021. — Vol. 1745. Issue 1.
13Kotlyar V.V., Stafeev S.S., Nalimov A.G.Sharp focusing of a hybrid vector beam with a polarization singularity // PHOTONICS 2021. — Vol. 8. Issue 6.
14Kozlova E., Stafeev S., Podlipnov V. etc. Theoretical and experimental study of spiral zone plates in aluminum thin film // Proceedings of ITNT 2021 - 7th IEEE International Conference on Information Technology and Nanotechnology. — 2021. —
19Stafeev S.S., Kotlyar V.V.Invariance of the transverse spin angular momentum at the focus // Optics Communications 2021. — Vol. 479.
20Zaitsev V.D., Stafeev S.S.The formation of an array of photonic nanojets by steps with square profile // Journal of Physics: Conference Series. — 2021. — Vol. 1745. Issue 1.
21Kotlyar V.V., Stafeev S.S., Nalimov A.G. etc. A dual-functionality metalens to shape a circularly polarized optical vortex or a second-order cylindrical vector beam // Photonics and Nanostructures - Fundamentals and Applications 2021. — Vol. 43.
22Zaitsev V.D., Stafeev S.S., Kotlyar V.V.Focusing of vector beams with fractional-order azimuthal polarization // Proceedings of SPIE - The International Society for Optical Engineering. — 2021. — Vol. 11793.
23Stafeev S.S., Nalimov A.G., Zaitsev V.D. etc. Tight focusing cylindrical vector beams with fractional order // Journal of the Optical Society of America B: Optical Physics 2021. — Vol. 38. Issue 4. — P. 1090-1096
24Stafeev S.S., Nalimov A.G., Kotlyar V.V. etc. Metalens for energy backflow // Proceedings of SPIE - The International Society for Optical Engineering. — 2021. — Vol. 11793.
25Nalimov A.G., Stafeev S.S.Linear to circular polarization conversion in the sharp focus of an optical vortex // Computer Optics 2021. — Vol. 45. Issue 1. — P. 13-18
26Stafeev S.S., Kozlova E.S., Kotlyar V.V.Toroidal vortices of energy in tightly focused second-order cylindrical vector beams // PHOTONICS 2021. — Vol. 8. Issue 8.
27Kotlyar V.V., Stafeev S.S., Zaitsev V.D.Minimal focal spot size measured based on intensity and power flow // Sensors (Switzerland) 2021. — Vol. 21. Issue 16.
28Zaitsev V.D., Stafeev S.S., Kotlyar V.V.Focusing of cylindrical vector beams with an order from zero to one and with an order greater than one // Proceedings of ITNT 2021 - 7th IEEE International Conference on Information Technology and Nanotechnology. — 2021. —
29Stafeev S.S., Kotlyar V.V.Energy flows in tight focus of optical vortices // OMFI-2021. — 2021. — Vol. 2103. Issue 1.
30Stafeev S.S., Kotlyar V.V.Tight focusing of beams with hybrid circular-azimuthal polarization // Proceedings of ITNT 2021 - 7th IEEE International Conference on Information Technology and Nanotechnology. — 2021. —
31Zaitsev V.D., Stafeev S.S., Kotlyar V.V.Energy backflow in tightly focused cylindrical vector beam with fractional order // Proceedings of SPIE - The International Society for Optical Engineering. — 2021. — Vol. 11775.
2020
1Kotlyar V.V., Nalimov A.G., Stafeev S.S.Inversion of the axial projection of the spin angular momentum in the region of the backward energy flow in sharp focus // Optics Express 2020. — Vol. 28. Issue 23. — P. 33830-33840
2Nalimov A.G., Stafeev S.S.Energy flux of a vortex field focused using a secant gradient lens // Computer Optics 2020. — Vol. 44. Issue 5. — P. 707-711
3Zaitsev V.D., Stafeev S.S.Comparison of photonic nanojets produced by dielectric prism and cylinder // International Conference on Transparent Optical Networks. — 2020. — Vol. 2020-July.
5Kotlyar V.V., Nalimov A.G., Kovalev A.A. etc. Spin-orbit and orbit-spin conversion in the sharp focus of laser light: Theory and experiment // Physical Review A 2020. — Vol. 102. Issue 3.
6Kotlyar V.V., Stafeev S.S., Nalimov A.G. etc. Experimental investigation of the energy backflow in the tight focal spot // Computer Optics 2020. — Vol. 44. Issue 6. — P. 863-870
7Nalimov A.G., Stafeev S.S.Rotation of an elliptical dielectric particle in the focus of a circularly polarized gaussian beam // Computer Optics 2020. — Vol. 44. Issue 4. — P. 561-567
8Kotlyar V.V., Stafeev S.S., Nalimov A.G.Vortex energy flow in the tight focus of a non-vortex field with circular polarization // Computer Optics 2020. — Vol. 44. Issue 1. — P. 5-11
9Bratchenko L., Abrosimova E. A. , Stafeev S. etc. Conventional Raman and surface-enhanced Raman spectroscopy for human skin components analysis // Proceedings of ITNT 2020 - 6th IEEE International Conference on Information Technology and Nanotechnology. — 2020. —
10Kotlyar V.V., Nalimov A.G., Stafeev S.S. etc. Orbital energy and spin flows in a strong focus of laser light // IEEE PHOTONICS JOURNAL 2020. — Vol. 12. Issue 5.
11Nalimov A., Kotlyar V., Stafeev S.Torque on an ellipsoidal dielectric particle in a gaussian beam with circular polarization // International Conference on Transparent Optical Networks. — 2020. — Vol. 2020-July.
12Zaycev Vladislav Dmitrievich, Stafeev S.S.Формирование массива фотонных наноструй ступеньками с квадратным профилем // Самарский национальный исследовательский университет имени академика С.П. Королева. — 2020. — Vol. 1. — P. 299-303
13Kotlyar V.V., Nalimov A.G., Kovalev A.A. etc. Transfer of spin angular momentum to a dielectric particle // Computer Optics 2020. — Vol. 44. Issue 3. — P. 333-342
14Stafeev S.S., Kotlyar V.V.Toroidal polarization vortices in tightly focused beams with singularity // Computer Optics 2020. — Vol. 44. Issue 5. — P. 685-690
15Nalimov A., Kotlyar V., Stafeev S.Optimizing of Poynting vector and light intensity after secant gradient lens // Proceedings of ITNT 2020 - 6th IEEE International Conference on Information Technology and Nanotechnology. — 2020. —
16Stafeev S.S., Nalimov A.G., Kotlyar V.V.Strong negative longitudinal component of the Poynting vector in a tightly focused cylindrical vector beam // Journal of Physics: Conference Series. — 2020. — Vol. 1461. Issue 1.
17Stafeev S.S., Kozlova E.S., Nalimov A.G. etc. Tight focusing of a cylindrical vector beam by a hyperbolic secant gradient index lens // Optics Letters 2020. — Vol. 45. Issue 7. — P. 1687-1690
18Kozlova E.S., Stafeev S.S., Fomchenkov S.A. etc. Laser light focusing by aluminium zone plate // International Conference on Transparent Optical Networks. — 2020. — Vol. 2020-July.
19Kotlyar V.V., Stafeev S.S., Nalimov A.G. etc. Mechanism of formation of an inverse energy flow in a sharp focus // Physical Review A 2020. — Vol. 101. Issue 3.
20Stafeev S.S., Kozlova E.S., Nalimov A.G.Focusing a second-order cylindrical vector beam with a gradient index mikaelian lens // Computer Optics 2020. — Vol. 44. Issue 1. — P. 29-33
21Kotlyar V.V., Stafeev S.S., O’faolain L. etc. High numerical aperture metalens to generate an energy backflow // Computer Optics 2020. — Vol. 44. Issue 5. — P. 691-698
22Stafeev S.S., Kozlova E.S., Nalimov A.G. etc. Poynting vector behavior of cylindrical vector beam focused by gradient index lens // International Conference on Transparent Optical Networks. — 2020. — Vol. 2020-July.
23Nalimov A.G., Stafeev S.S., Kotlyar V.V.Optical force acting on a particle in a reverse energy flow near the focus of a gradient lens // Journal of Optics 2020. — Vol. 22. Issue 11.
2019
1Stafeev S.S., Kotlyar V.V.Elongation of the area of energy backflow through the use of ring apertures // Optics Communications 2019. — Vol. 450. — P. 67-71
2Kotlyar V.V., Nalimov A.G., Stafeev S.S.Comparison of backward flow values in the sharp focus of light fields with polarization and phase singularity // Computer Optics 2019. — Vol. 43. Issue 2. — P. 174-183
3Stafeev S.S., Kotlyar V.V., Nalimov A.G. etc. The Non-Vortex Inverse Propagation of Energy in a Tightly Focused High-Order Cylindrical Vector Beam // IEEE PHOTONICS JOURNAL 2019. — Vol. 11. Issue 4.
4Kotlyar V.V., Stafeev S.S., Nalimov A.G.Energy backflow in the focus of a light beam with phase or polarization singularity // Physical Review A 2019. — Vol. 99. Issue 3.
5Stafeev S.S., Nalimov A.G., Kotlyar V.V.Tight Focusing of a Second-order Cylindrical Vector Beam // Progress in Electromagnetics Research Symposium. — 2019. — Vol. 2019-June. — P. 3254-3257
6Kotlyar V.V., Nalimov Anton Gennadevich, Stafeev S.S.Comparison of the negative energy flow in linearly and circularly polarized beams focused with metalens // The 10th International Conference on Metamaterials, Photonic Crystals and Plasmonics META-2019. — 2019. — P. 1687-1688
7Zaitsev V.D., Stafeev S.S.Photonic jets for mid-IR focal plane arrays produced by the triangular dielectric prism // Proceedings of SPIE - The International Society for Optical Engineering. — 2019. — Vol. 11032.
9Kotlyar V.V., Stafeev S.S., Nalimov A.G. etc. Subwavelength grating-based spiral metalens for tight focusing of laser light // Applied Physics Letters 2019. — Vol. 114. Issue 14.
10Stafeev S.S., Nalimov A.G., O'Faolain L. etc. Sector Metalens for Sharp Focusing of Laser Light // Progress in Electromagnetics Research Symposium. — 2019. — Vol. 2019-June. — P. 4248-4251
11Kotlyar V.V., Stafeev S.S., Kovalev A.A.Sharp focusing of a light field with polarization and phase singularities of an arbitrary order // Computer Optics 2019. — Vol. 43. Issue 3. — P. 337-346
12Kotlyar V.V., Nalimov A.G., Stafeev S.S.Exploiting the circular polarization of light to obtain a spiral energy flow at the subwavelength focus // Journal of the Optical Society of America B: Optical Physics 2019. — Vol. 36. Issue 10. — P. 2850-2855
13Kotlyar V.V., Stafeev S.S., Kovalev A.A.Reverse and toroidal flux of light fields with both phase and polarization higher-order singularities in the sharp focus area // Optics Express 2019. — Vol. 27. Issue 12. — P. 16689-16702
14Stafeev S.S., Kotlyar V.V., Nalimov A.G. etc. Focusing of laser light by sectoral spiral metalens // Proceedings of SPIE - The International Society for Optical Engineering. — 2019. — Vol. 11025.
15Kotlyar V.V., Stafeev S.S., Kovalev A.A.Toroidal and reverse flux of light in the sharp focus // Proceedings of the International Conference on Advanced Optoelectronics and Lasers, CAOL. — 2019. — Vol. 2019-September. — P. 379-381
16Kotlyar V.V., Nalimov A.G., Stafeev S.S.Backward Energy Flux in Sharp Focus of Beams with Linear and Circular Polarization // Progress in Electromagnetics Research Symposium. — 2019. — Vol. 2019-June. — P. 335-338
17Stafeev S.S., Kotlyar V.V.Formation of an elongated region of energy backflow using ring apertures // Computer Optics 2019. — Vol. 43. Issue 2. — P. 193-199
18Zaitsev V.D., Stafeev S.S.Photonic Jets Arrays Produced by Triangular Dielectric Prisms for Mid-IR Imaging // Progress in Electromagnetics Research Symposium. — 2019. — Vol. 2019-June. — P. 2610-2614
19Kotlyar V.V., Stafeev S.S., Nalimov A.G. etc. Two-petal laser beam near a binary spiral axicon with topological charge 2 // Optics and laser technology 2019. — Vol. 119.
20Kozlova E.S., Kotlyar V.V., Stafeev S.S. etc. Fresnel Zone Plate in Thin Aluminum Film // Progress in Electromagnetics Research Symposium. — 2019. — Vol. 2019-June. — P. 4333-4338
21Kotlyar V.V., Stafeev S.S., Nalimov A.G. etc. Formation of the reverse flow of energy in a sharp focus // Computer Optics 2019. — Vol. 43. Issue 5. — P. 714-722
22Stafeev S.S., Nalimov A.G., Kotlyar V.V.Metalens for polarization conversion and focusing of laser light // Journal of Physics: Conference Series. — 2019. — Vol. 1368. Issue 2.
23Stafeev S.S., Kotlyar V.V., Nalimov A.G.Energy backflow in in a tightly focused high-order cylindrical vector beam // Proceedings of SPIE - The International Society for Optical Engineering. — 2019. — Vol. 11025.
24Kotlyar V.V., Nalimov A.G., Stafeev S.S. etc. Single metalens for generating polarization and phase singularities leading to a reverse flow of energy // Journal of Optics 2019. — Vol. 21. Issue 5.
2018
1Stafeev S.S., Nalimov A.G.Longitudinal component of the poynting vector of a tightly focused optical vortex with circular polarization // Computer Optics 2018. — Vol. 42. Issue 2. — P. 190-196
2Stafeev S.S., Nalimov A.G., O'Faolain L. etc. Tight focusing of a nonhomogeneously polarized optical vortex // Progress in Biomedical Optics and Imaging - Proceedings of SPIE. — 2018. — Vol. 10717.
3Stafeev S.S., Nalimov A.G., Kotlyar V.V.Energy Backflow in Tightly Focused Optical Vortex // International Conference on Transparent Optical Networks. — 2018. — Vol. 2018-July.
4Stafeev S.S., O'Faolain L., Kotlyar M. V. Rotation of two-petal laser beams in the near field of a spiral microaxicon // Computer Optics 2018. — Vol. 42. Issue 3. — P. 385-391
5Stafeev S.S., Nalimov A.G., Kotlyar V.V.Energy backflow in the focal spot of a cylindrical vector beam // Computer Optics 2018. — Vol. 42. Issue 5. — P. 744-750
6Kotlyar V.V., Nalimov A.G., Stafeev S.S.The near-axis backflow of energy in a tightly focused optical vortex with circular polarization // Computer Optics 2018. — Vol. 42. Issue 3. — P. 392-400
7Stafeev S.S., Nalimov A.G., O'Faolain L. etc. Subwavelength focusing of azimuthally polarized optical vortex // Proceedings of SPIE - The International Society for Optical Engineering. — 2018. — Vol. 10774.
9Stafeev S.S., Nalimov A.G., Kotlyar V.V.Longitudinal component of the Poynting vector of tightly focused cylindrical vector beam // Journal of Physics: Conference Series. — 2018. — Vol. 1135. Issue 1.
10Stafeev S.S., Nalimov A.G., Kotlyar V.V.Negative longitudinal component of the Poynting vector of tightly focused optical vortex // Proceedings - International Conference Laser Optics 2018, ICLO 2018. — 2018. — P. 204
11Stafeev S.S., Nalimov A.G., O'faolain L. etc. Effects of fabrication errors on the focusing performance of a sector metalens // Computer Optics 2018. — Vol. 42. Issue 6. — P. 970-976
12Stafeev S.S., Nalimov A.G., Kotlyar M. V. etc. Subwavelength Gratings for Polarization Control // Journal of Physics: Conference Series. — 2018. — Vol. 1096. Issue 1.
2017
1Kozlova E.S., Kotlyar V.V., Nalimov A.G. etc. Subwavelength focusing of laser light using zone plates with silver and chromium rings // Progress in Electromagnetics Research Symposium. — 2017. — P. 107-111
3Stafeev S.S., Nalimov A.G., Kotlyar M. V. etc. Transmitting subwavelength azimuthal micropolarizer // Proceedings of SPIE - The International Society for Optical Engineering. — 2017. — Vol. 10337.
5Stafeev S.S., Nalimov A.G., Kotlyar M. V. etc. Tight focusing of azimuthally polarized optical vortex produced by subwavelength grating // Procedia Engineering. — 2017. — Vol. 201. — P. 83-89
6Kotlyar V.V., Nalimov A.G., Stafeev S.S. etc. Thin metalens with high numerical aperture // Computer Optics 2017. — Vol. 41. Issue 1. — P. 5-12
7Kozlova E.S., Kotlyar V.V., Nalimov A.G. etc. Dependence of the focal spot parameters on the relief height of the amplitude zone plate // International Conference on Transparent Optical Networks. — 2017. —
8Nalimov A.G., Stafeev S.S., Kozlova E.S. etc. Subwavelength focusing of laser light using a chromium zone plate // Computer Optics 2017. — Vol. 41. Issue 3. — P. 356-362
9Stafeev S.S., Nalimov A.G., O'Faolain L. etc. Azimuthal polarizer with phase shift for subwavelength focusing of laser light // Proceedings of SPIE - The International Society for Optical Engineering. — 2017. — Vol. 10176.
10Stafeev S.S., Kotlyar V.V.Tight focusing of a quasi-cylindrical optical vortex // Optics Communications 2017. — Vol. 403. — P. 277-282
11Kotlyar V.V., Stafeev S.S., Nalimov A.G. etc. Tight focusing of laser light using a chromium Fresnel zone plate // Optics Express 2017. — Vol. 25. Issue 17. — P. 19662-19671
12Kotlyar V.V., Nalimov A.G., Stafeev S.S. etc. A metalens for subwavelength focus of light // Progress in Electromagnetics Research Symposium. — 2017. — P. 112-117
13Stafeev S.S., Nalimov A.G., O'Faolain L. etc. Tight focusing of laser light propagated through subwavelength micropolarizer using Fresnel zone plate // Proceedings of SPIE - The International Society for Optical Engineering. — 2017. — Vol. 10342.
14Stafeev S.S., Nalimov A.G., Kotlyar M. V. etc. Focusing zone plate based on subwavelength grating // International Conference on Transparent Optical Networks. — 2017. —
15Kotlyar V.V., Stafeev S.S., Nalimov A.G. etc. Tight focusing of circularly polarized laser light by amplitude zone plate with chromium rings // Progress in Electromagnetics Research Symposium. — 2017. — Vol. 2017-November. — P. 2501-2505
16Stafeev S.S., Kotlyar V.V.Tight focusing of a sector-wise azimuthally polarized optical vortex // Computer Optics 2017. — Vol. 41. Issue 2. — P. 147-154
17Stafeev S.S., Nalimov A.G., O’Faolain L. etc. Binary diffraction gratings for controlling polarization and phase of laser light [review] // Computer Optics 2017. — Vol. 41. Issue 3. — P. 299-314
2016
1Vasiliev V., Kozlov F., Mouromtsev D. etc. ECOLE: An ontology-based open online course platform // Lecture Notes in Computer Science. — 2016. — Vol. 9500. — P. 41-66
2Kotlyar V.V., Stafeev S.S., Kotlyar M. V. etc. Subwavelength micropolarizer in a gold film for visible light // Applied Optics 2016. — Vol. 55. Issue 19. — P. 5025-5032
3Stafeev S.S., Nalimov A.G., Kotlyar M. V. etc. Subwavelength focusing of laser light of a mixture of linearly and azimuthally polarized beams // Computer Optics 2016. — Vol. 40. Issue 4. — P. 458-466
4Stafeev S.S., Kotlyar V.V., Porfirev A. P. Behavior of asymmetric Bessel beam in focal plane of high numerical aperture objective // Progress in Biomedical Optics and Imaging - Proceedings of SPIE. — 2016. — Vol. 9917.
5Stafeev S.S., Nalimov A.G., Kotlyar M. V. etc. Microlens-aided focusing of linearly and azimuthally polarized laser light // Optics Express 2016. — Vol. 24. Issue 26. — P. 29800-29813
6Stafeev S.S., Kotlyar M. V. , O’Faolain L. etc. A four-zone transmission azimuthal micropolarizer with phase shift // Computer Optics 2016. — Vol. 40. Issue 1. — P. 12-18
7Stafeev S.S., Nalimov A.G., O'Faolain L. etc. The tight focusing of laser radiation using 4-sector polarization converter // Journal of Physics: Conference Series. — 2016. — Vol. 735. Issue 1.
8Stafeev S.S., Kotlyar M. V. , O'Faolain L. etc. Subwavelength gratings for generating azimuthally polarized beams // CEUR Workshop Proceedings. — 2016. — Vol. 1638. — P. 125-131
2015
1Stafeev S.S., Kotlyar V.V.Photonic nanojets produced by microcubes // International Conference on Transparent Optical Networks. — 2015. — Vol. 2015-August.
2Stafeev S.S., O'Faolain L., Kotlyar V.V. etc. Tight focus of light using micropolarizer and microlens // Applied Optics 2015. — Vol. 54. Issue 14. — P. 4388-4394
3Stafeev S.S., Nalimov A.G., Kotlyar M. V. etc. A four-zone reflective azimuthal micropolarizer // Computer Optics 2015. — Vol. 39. Issue 5. — P. 709-715
4Kotlyar V.V., Stafeev S.S., Porfirev A. P. Tight focusing of an asymmetric Bessel beam // Optics Communications 2015. — Vol. 357. — P. 45-51
5Kotlyar V.V., Stafeev S.S., Porfirev A. P. Sharp focusing of linearly polarized asymmetric bessel beam // Computer Optics 2015. — Vol. 39. Issue 1. — P. 36-44
2014
1Stafeev S., Kotlyar V., Kovalev A.Near-field diffraction of laser light by dielectric corner step // Progress in Biomedical Optics and Imaging - Proceedings of SPIE. — 2014. — Vol. 9031.
2Kotlyar V.V., Stafeev S.S., Feldman A. Photonic nanojets generated using square-profile microsteps // Applied Optics 2014. — Vol. 53. Issue 24. — P. 5322-5329
3Stafeev S.S., Kotlyar V.V.Polarizing and focusing properties of reflective Fresnel zone plate // Computer Optics 2014. — Vol. 38. Issue 3. — P. 456-462
4Nalimov A.G., O'Faolain L., Stafeev S.S. etc. Reflected four-zones subwavelength microoptics element for polarization conversion from linear to radial // Computer Optics 2014. — Vol. 38. Issue 2. — P. 229-236
5Kotlyar V.V., Stafeev S.S., Feldman A.Y. Photonic nanojets formed by square microsteps // Computer Optics 2014. — Vol. 38. Issue 1. — P. 72-80
6Nalimov A.G., Stafeev S.S., O'Faolain L. etc. Four-zone reflective polarization conversion plate // Progress in Biomedical Optics and Imaging - Proceedings of SPIE. — 2014. — Vol. 9448.
7Stafeev S.S., O’Faolain L., Shanina M.I. etc. Sharp focusing of a mixture of radially and linearly polarized beams using a binary microlens // Computer Optics 2014. — Vol. 38. Issue 4. — P. 606-613
8Berenfeld B., Krupa T., Lebedev A. etc. When everyone is a probe, everyone is a learner // Proceedings of the 10th International Conference on Mobile Learning 2014, ML 2014. — 2014. — P. 308-312
9Stafeev S.S., Kotlyar V.V.Measurement of photonic nanojet generated by square-profile microstep // Progress in Biomedical Optics and Imaging - Proceedings of SPIE. — 2014. — Vol. 9448.
2013
1Stafeev S.S., Kotlyar V.V.Special aspects of subwavelength focal spot measurement using near-field optical microscope // Computer Optics 2013. — Vol. 37. Issue 3. — P. 332-340
2Kotlyar V.V., Kovalev A.A., Stafeev S.S. etc. An asymmetric optical vortex generated by a spiral refractive plate // Journal of Optics 2013. — Vol. 15. Issue 2.
3Kotlyar M.I., Stafeev S.S.Subwavelength elliptical focal spot generated by a binary zone plate // Proceedings of the International Conference on Advanced Optoelectronics and Lasers, CAOL. — 2013. — P. 234-236
4Stafeev S.S., Kotlyar V.V., O'Faolain L. Subwavelength focusing of laser light by microoptics // Journal of Modern Optics 2013. — Vol. 60. Issue 13. — P. 1050-1059
6Kotlyar V.V., Stafeev S.S., Liu Y. etc. Analysis of the shape of a subwavelength focal spot for the linearly polarized light // Applied Optics 2013. — Vol. 52. Issue 3. — P. 330-339
3STAFEEV S.S., KOZLOVA E.S., MOROZOV A.A. etc. Фокусировка непрерывного и импульсного лазерного излучения с помощью микросферы // Computer Optics 2012. — № 36(4). — P. 489-496
4STAFEEV S.S., KOTLYaR V.V.Elongated Photonic Nanojet from Truncated Cylindrical Zone Plate // Journal of Atomic, Molecular, and Optical Physics 2012. — № Article ID 123872.
5Kotlyar V.V., Kovalev A.A., Stafeev S.S.Intensity and power flow symmetry of subwavelength focal spot // Computer Optics 2012. — Vol. 36. Issue 2. — P. 190-198
6Kotlyar V.V., Stafeev S.S., Kovalev A.A. etc. Focusing of linearly polarized light using binary axicon with subwavelength period // Computer Optics 2012. — Vol. 36. Issue 2. — P. 183-189
8Stafeev S.S., Kozlova E.S., Kozlov D. A. etc. Focusing of continuous and pulsed laser beams by microsphere // Computer Optics 2012. — Vol. 36. Issue 4. — P. 489-496
9Kovalev A.A., Kotlyar V.V., Stafeev S.S. etc. Diffraction of light by a spiral phase plate with piecewisecontinuous microrelief // Computer Optics 2012. — Vol. 36. Issue 2. — P. 205-210
11KOVALEV A.A., KOTLYaR V.V., STAFEEV S.S. etc. Дифракция света на спиральной фазовой пластинке с кусочно-непрерывным микрорельефом // Computer Optics 2012. — № 36(2).
12STAFEEV S.S., KOTLYaR V.V., KOVALEV A.A.Симметрия интенсивности и потока мощности субволнового фокусного пятна // Computer Optics 2012. — № 36(2). — P. 190-198
13KOTLYaR V.V., STAFEEV S.S., NALIMOV A.G. etc. Моделирование фокусировки линейно-поляризованного света с помощью субволнового бинарного аксикона // Computer Optics 2012. — № 36(2). — P. 183-189
2011
1STAFEEV S.S., O’Faoleyn L., Shanina M.I. etc. Субволновая фокусировка с помощью зонной пластинки Френеля с фокусным расстоянием 532 нм // Computer Optics 2011. — № т. 35, № 4,. — P. 460-461
2KOTLYaR V.V., NALIMOV A.G., STAFEEV S.S.Диаметр фокусного пятна для негауссовых пучков с конечной энергией // Computer Optics 2011. — № т. 35, № 4.. — P. 452-459
3KOTLYaR V.V., STAFEEV S.S., MOROZOV A.A. etc. Субволновая фокусировка c помощью бинарного микроаксикона с периодом 800 нм // Computer Optics 2011. — № том 35, №1. — P. 4-10
4KOTLYaR V.V., STAFEEV S.S., MOROZOV A.A. etc. Субволновая фокусировка с помощью бинарного микроаксикона с периодом 800 нм // Computer Optics 2011. — № Том 35, № 1. — P. 4-10
5Kotlyar V.V., Stafeev S.S., Shanina M.I. etc. Subwavelength focusing using a binary microaxicon with period 800 NM // Computer Optics 2011. — Vol. 35. Issue 1. — P. 4-10
6Kotlyar V.V., Stafeev S.S., O'Faolain L. etc. Tight focusing with a binary microaxicon // Optics Letters 2011. — Vol. 36. Issue 16. — P. 3100-3102
7Stafeev S.S., Kotlyar V.V.Comparative modeling two methods of sharp focusing with zone plate using // Computer Optics 2011. — Vol. 35. Issue 3. — P. 305-310
8Stafeev S.S., O’Faolain L., Shanina M.I. etc. Subwavelength focusing using fresnel zone plate with focal length of 532nm // Computer Optics 2011. — Vol. 35. Issue 4. — P. 460-461
9STAFEEV S.S., KOTLYaR V.V.Сравнительное моделирование двумя методами острой фокусировки зонной пластинкой // Computer Optics 2011. — № том 35, №3. — P. 305-310
10Kotlyar V.V., Nalimov A.G., Stafeev S.S.Diameter of a focal spot for non-Gaussian beams with a finite energy // Computer Optics 2011. — Vol. 35. Issue 4. — P. 452-459
11Kotlyar V.V., Kovalev A.A., Stafeev S.S. etc. Diffraction of a Gaussian beam by a logarithmic axicon // Journal of the Optical Society of America A: Optics and Image Science, and Vision 2011. — Vol. 28. Issue 5. — P. 844-849
2010
1KOTLYaR V.V., KOVALEV A.A., STAFEEV S.S.Дифракция гауссового пучка на логарифмическом аксиконе: преодоление дифракционного предела // Computer Optics 2010. — № т. 34, № 4.. — P. 436-443
2KOTLYaR V.V., NALIMOV A.G., STAFEEV S.S. etc. Диаметр светового пятна в ближней зоне бинарного дифракционного микроаксикона // Computer Optics 2010. — № Т 34 №1. — P. 24-34
3Kotlyar V.V., Stafeev S.S.Modelling the sharp focus of a radially polarized light using a microaxicon // International Conference «Optical Techniques and Nano-Tools for Material and Life Sciences» (OTN4MLS-2010).. — 2010. — P. 15-19
4Kotlyar V.V., Kovalev A.A., Stafeev S.S.Diffraction of the gaussian beam by the logarithmical axicon: Overcoming the diffraction limit // Computer Optics 2010. — Vol. 34. Issue 4. — P. 436-442
5Kotlyar V.V., Stafeev S.S., Skidanov R.V. etc. Light spot diameter in the near zone of binary diffractive microaxicon // Computer Optics 2010. — Vol. 34. Issue 1. — P. 24-34
6Kotlyar V.V., Stafeev S.S.Modeling the sharp focus of a radially polarized laser mode using a conical and a binary microaxicon // Journal of the Optical Society of America B: Optical Physics 2010. — Vol. 27. Issue 10. — P. 1991-1997
2009
1Kotlyar V.V., Stafeev S.S.Modeling sharp focus radially-polarized laser mode with conical and binary microaxicons // Computer Optics 2009. — Vol. 33. Issue 1. — P. 52-60
2Kotlyar V.V., Stafeev S.S.Sharply focusing a radially polarized laser beam using a gradient Mikaelian's microlens // Optics Communications 2009. — Vol. 282. Issue 4. — P. 459-464
2008
1Kotlyar V.V., Kovalev A.A., Stafeev S.S.Sharp focus area of radially-polarized Gaussian beam propagation through an axicon // Progress In Electromagnetics Research C 2008. — Vol. 5. — P. 35-43
2Kotlyar V.V., Kovalev A.A., Stafeev S.S.Sharp focusing of radially polarized light with microlenses // Computer Optics 2008. — Vol. 32. Issue 2. — P. 155-167