Mr. Sergey Gennadievich Proskurin Profile

Sergey Gennadievich Proskurin

SPIE Involvement:

Author

Publications (42)

Proceedings Article | 4 May 2021 Paper

Evaluation of dynamic viscosity of turbid fluids using optical coherence tomography

A. Yu. Potlov, S. Frolov, S. Proskurin

Proceedings Volume 11846, 118460R (2021) https://doi.org/10.1117/12.2590621

Read Abstract +

Proceedings Article | 4 May 2021 Paper

Evaluation of geometric characteristics and internal structure of atherosclerotic plaques on the walls of the blood vessels and their phantoms using intravascular optical coherence tomography

A. Yu. Potlov, S. Frolov, S. Proskurin

Proceedings Volume 11845, 118450O (2021) https://doi.org/10.1117/12.2590618

Read Abstract +

A method for studying atherosclerotic plaques on the walls of large blood vessels is described. The method is based on a study of raw data of intravascular optical coherence tomography (IOCT). Identification of fat constituents, calcium, cholesterol crystals, macrophage clusters, blood clots, etc. within the areas of atherosclerotic lesions of blood vessels is based on the study of two parameters only. The intensity of the A-scan interference signal is the first parameter, and the biomechanical properties (primarily Young's modulus) are the second analyzed parameter. The pulse wave is used as the least traumatic deforming effect. The magnitude of the deforming effect in blood vessels is calculated using averaging of the blood pressure differences. This data is acquired using an invasive pressure probe. Structural IOCT-images corresponding to the moments of systole and diastole are selected from the sequence of raw data. Both IOCT-images are segmented and classified by signal intensity. Primarily, identification of segments is based on reference data of the optical properties of the atherosclerotic plaques’ components. The segments with similar geometrical locations and signal intensity are grouped into pairs. The centroids are calculated for all segments. The absolute displacements of the segments are estimated by the displacements of the centroids. The area of deformation is considered to be equal to the scanning area of the applied intravascular probe. The dimensions of the deformable area for the set of segments of two analyzed images are calculated with respect to the coordinate axes and then averaged. The biomechanical properties of the segments are calculated according to classical formulas and are used to update values of the primary identification of the structural components of atherosclerotic plaques. Information about the geometric characteristics and internal structure of atherosclerotic plaques are used to identify their properties and current stability.

Proceedings Article | 4 May 2021 Paper

A method for evaluation of absolute and relative blood flow velocities in soft biological tissues using optical coherence tomography

A. Yu. Potlov, S. Frolov, S. Proskurin

Proceedings Volume 11845, 118450N (2021) https://doi.org/10.1117/12.2590617

Read Abstract +

Proceedings Article | 4 May 2021 Paper

Tissue-like phantoms mimicking blood vessel for intravascular optical coherence tomography

A. Yu. Potlov, S. Proskurin, S. Frolov

Proceedings Volume 11845, 118450P (2021) https://doi.org/10.1117/12.2590620

Read Abstract +

A method for cerebral vessel tissue-like phantom making and a device for the realizing pulsating flows in them are described. The blood vessels are molded together with models of the organs carrying them. A blood vessel phantom is a hollow structure with three-layered walls mimicking its geometry, structure, inhomogeneity of optical and mechanical properties. The model of an organ serves only for fixing the hollow structure of it in anatomically correct position and therefore is homogeneous in texture and properties. The source of information about the geometry of the imitated blood vessel is the results of angiography of a real clinical case. The three-layered structure of phantoms is justified by the anatomical features of real blood vessels (outer layer - adventitia, middle layer - media, inner layer - intima). The three-layered structure is made by layer-by-layer application of a transparent two-component liquid silicone on a wax base. Each layer is distinguished by its thickness and unique concentration of special admixtures (titanium dioxide nanoparticles and absorbing colorant). Mechanical properties of the layers are changed by varying the concentration of the components of the transparent liquid silicone. The phantom is solidified and then heated to remove the wax. Then the phantom of a blood vessel is placed in a mold of a corresponding organ. The mimicking organ is also made from a two-component transparent liquid silicone with special admixtures. Both proximal and distal ends of the hollow structure are connected with fork catheters. A 1% of intralipid solution in water is used to simulate blood flow in the phantom. Streaming velocity control of a blood-mimicking liquid is provided by a syringe pump. Pulsating flow is generated by the controlled twisting of the tube between the pump and the phantom of a blood vessel. A vibration motor is used to change the velocity profile. The described experimental model of a hydrodynamic phantom of a blood vessel is used in combination with intravascular optical coherence tomography for checking compression elastography properties.

Proceedings Article | 9 April 2020 Paper

High-precision evaluation of stress-related properties of blood vessel walls using intravascular optical coherence elastography with forward-view probe

A. Yu. Potlov, S. Frolov, T. Frolova, S. Proskurin

Proceedings Volume 11457, 114571P (2020) https://doi.org/10.1117/12.2563849

KEYWORDS: Blood vessels, Aneurysms, Cerebral aneurysms, Coherence (optics), Elastography, Signal processing, Hemodynamics, Sensors, Optical coherence tomography, Computer simulations

Read Abstract +

Proceedings Article | 9 April 2020 Paper

Phantoms of optical and stress-related properties of cerebral arteries with aneurysms for intravascular optical coherence tomography

A. Yu. Potlov, S. Frolov, T. Frolova, S. Proskurin

Proceedings Volume 11457, 114571Q (2020) https://doi.org/10.1117/12.2563854

KEYWORDS: Tissues, Blood vessels, Optical coherence tomography, Silicon, Tissue optics, Liquids, Arteries, Elastography, Optics manufacturing, Blood circulation

Read Abstract +

Proceedings Article | 9 April 2020 Paper

Numerical simulation of optical coherence tomography interference signal occurring in the intravascular space under a layer of soft biological tissue

A. Yu. Potlov, S. Frolov, S. Proskurin

Proceedings Volume 11457, 114571R (2020) https://doi.org/10.1117/12.2563858

KEYWORDS: Optical coherence tomography, Blood, Numerical simulations, Tissue optics, Monte Carlo methods, Geometrical optics, Tissues, Signal processing, Computer simulations, Data modeling

Read Abstract +

Proceedings Article | 9 April 2020 Paper

Tissue-mimicking phantoms of human retina with consideration to blood circulation for Doppler optical coherence tomography

A. Yu. Potlov, S. Frolov, S. Proskurin

Proceedings Volume 11457, 114571S (2020) https://doi.org/10.1117/12.2563859

KEYWORDS: Retina, Blood vessels, Hemodynamics, Optical coherence tomography, Blood circulation, Silicon, Doppler tomography, Tissue optics, Eye, Arteries

Read Abstract +

Proceedings Article | 3 June 2019 Paper

Young's modulus evaluation for blood vessel equivalent phantoms using optical coherence elastography

A. Yu. Potlov, S. Frolov, S. Proskurin

Proceedings Volume 11065, 110650X (2019) https://doi.org/10.1117/12.2523237

KEYWORDS: Blood vessels, Optical coherence tomography, Endoscopy, Elastography, Coherence (optics), Visualization, Cardiovascular system, Tissues, Image processing algorithms and systems

Read Abstract +

Proceedings Article | 3 June 2019 Paper

Neuroimaging technique using time-resolved diffuse optical tomography and inhomogeneity localization algorithm

A. Yu. Potlov, S. Frolov, S. Proskurin

Proceedings Volume 11065, 110650Z (2019) https://doi.org/10.1117/12.2523239

KEYWORDS: Tissues, Tissue optics, Absorption, Biomedical optics, Blood, Diffuse optical tomography, Neuroimaging, Visualization, Brain

Read Abstract +

Proceedings Article | 3 June 2019 Paper

An algorithm for speckle noise reduction in endoscopic optical coherence tomography structural imaging

A. Yu. Potlov, S. Frolov, S. Proskurin

Proceedings Volume 11065, 110650W (2019) https://doi.org/10.1117/12.2523236

KEYWORDS: Optical coherence tomography, Endoscopy, Speckle, Speckle pattern, Image processing, Convolution, Denoising, Image filtering, Digital filtering, Structural imaging

Read Abstract +

Proceedings Article | 3 June 2019 Paper

Borderline reconstruction of absorbing and scattering inhomogeneity in biological tissue using time-resolved diffuse optical tomography

A. Yu. Potlov, S. Frolov, S. Proskurin

Proceedings Volume 11065, 110650Y (2019) https://doi.org/10.1117/12.2523238

KEYWORDS: Scattering, Inverse optics, Biomedical optics, Tissue optics, Absorption, Reconstruction algorithms, Photons, Diffuse optical tomography

Read Abstract +

Proceedings Article | 26 April 2018 Paper

An algorithm for localization of optical disturbances in turbid media using time-resolved diffuse optical tomography

A. Yu. Potlov, S. Frolov, S. Proskurin

Proceedings Volume 10716, 107160B (2018) https://doi.org/10.1117/12.2315096

KEYWORDS: Biomedical optics, Scattering, Photons, Inverse problems, Sensors, Geometrical optics, Absorption, Tissue optics, Diffusion

Read Abstract +

Proceedings Article | 26 April 2018 Paper

Color mapping of one specific velocity of a biological fluid flows with complex geometry using optical coherence tomography

A. Yu. Potlov, S. Frolov, S. Proskurin

Proceedings Volume 10716, 107160A (2018) https://doi.org/10.1117/12.2314439

KEYWORDS: Optical coherence tomography, Doppler tomography, Tissues, Doppler effect, Blood circulation, Medical imaging, Imaging systems, Bandpass filters

Read Abstract +

Proceedings Article | 26 April 2018 Paper

An algorithm for improving the quality of structural images of turbid media in endoscopic optical coherence tomography

A. Yu. Potlov, S. Frolov, S. Proskurin

Proceedings Volume 10716, 1071609 (2018) https://doi.org/10.1117/12.2314967

KEYWORDS: Optical coherence tomography, Endoscopy, Raster graphics, Reconstruction algorithms, Speckle, Tissues, Signal to noise ratio, Signal processing, Diagnostics, Image filtering

Read Abstract +

Proceedings Article | 24 March 2017 Paper

Specific features of movement of the photon density normalized maximum in highly scattering media with tissue-like optical properties

A. Yu. Potlov, S. Frolov, S. Proskurin

Proceedings Volume 10336, 103360Y (2017) https://doi.org/10.1117/12.2269328

KEYWORDS: Scattering media, Tissue optics, Optical properties, Diffusion, Radiative transfer, Diffuse optical tomography, Scattering, Light scattering, Video, Atomic force microscopy, Tissues

Read Abstract +

Proceedings Article | 24 March 2017 Paper

Monte-Carlo simulation of OCT structural images of human skin using experimental B-scans and voxel based approach to optical properties distribution

S. Frolov, A. Yu. Potlov, D. Petrov, S. Proskurin

Proceedings Volume 10336, 103360Z (2017) https://doi.org/10.1117/12.2269659

KEYWORDS: Monte Carlo methods, Optical coherence tomography, Skin, Optical properties, Coherence (optics), Scattering, Computer simulations, Photon transport, Image restoration, Reconstruction algorithms, Sensors

Read Abstract +

Proceedings Article | 19 March 2015 Paper

Endoplasmic motility spectral characteristics in plasmodium of Physarum polycephalum

T. Avsievich, K. E. S. Ghaleb, S. Frolov, S. Proskurin

Proceedings Volume 9448, 94480H (2015) https://doi.org/10.1117/12.2178309

KEYWORDS: Doppler effect, Oscillators, Organisms, Data modeling, Blood vessels, Velocimetry, Biophysics, Potassium, Cyanide, Acquisition tracking and pointing

Read Abstract +

Proceedings Article | 19 March 2015 Paper

Model studies of blood flow in basilar artery with 3D laser Doppler anemometer

S. Frolov, S. Sindeev, D. Liepsch, A. Balasso, S. Proskurin, A. Potlov

Proceedings Volume 9448, 944808 (2015) https://doi.org/10.1117/12.2178524

KEYWORDS: 3D modeling, Arteries, Mathematical modeling, Blood circulation, Hemodynamics, Doppler effect, Silicon, 3D metrology, Blood, Velocity measurements

Read Abstract +

Proceedings Article | 19 March 2015 Paper

Inhomogeneity detection in diffuse optical imaging using conformal mapping

A. Potlov, S. Frolov, S. Proskurin

Proceedings Volume 9448, 944805 (2015) https://doi.org/10.1117/12.2178303

KEYWORDS: Photons, Visualization, Scattering, Diffuse optical imaging, Diffuse optical tomography, Sensors, Tissue optics, Optical properties, Natural surfaces, Point spread functions

Read Abstract +

SPIE Journal Paper | 13 February 2015 Open Access

One specific velocity color mapping using optical coherence tomography

Sergey Proskurin, Anton Potlov, Sergey Frolov

JBO, Vol. 20, Issue 05, 051034, (February 2015) https://doi.org/10.1117/12.10.1117/1.JBO.20.5.051034

KEYWORDS: Optical coherence tomography, Doppler tomography, Signal processing, Capillaries, Doppler effect, Bandpass filters, Biomedical optics, Analog electronics, Digital filtering, Phase shifts

Read Abstract +

DOWNLOAD PAPER

Proceedings Article | 29 March 2005 Paper

One specific velocity visualization in flows with complex geometry

Sergey Proskurin, Ruikang Wang

Proceedings Volume 5696, (2005) https://doi.org/10.1117/12.584617

KEYWORDS: Optical coherence tomography, Blood vessels, In vivo imaging, Blood circulation, Coherence (optics), Heart, Doppler effect, Visualization, Coherence imaging, Mirrors

Read Abstract +

Proceedings Article | 7 March 2005 Paper

Comparison of high and low coherence Doppler spectra for human subcutaneous blood flow diagnostics in vivo

Sergey Proskurin

Proceedings Volume 5702, (2005) https://doi.org/10.1117/12.584616

KEYWORDS: Doppler effect, Optical coherence tomography, Signal detection, In vivo imaging, Optical clearing, Coherence (optics), Blood vessels, Mirrors, Doppler tomography, Laser scattering

Read Abstract +

Proceedings Article | 18 January 2005 Paper

OCT image contrast improvement of skin tissue by using oleic acid as an enhancer

Jingying Jiang, Li Zhang, Sergey Proskurin, Ruikang Wang

Proceedings Volume 5630, (2005) https://doi.org/10.1117/12.576996

KEYWORDS: Skin, Optical coherence tomography, Tissue optics, Tissues, Optical clearing, Image enhancement, Light scattering, Refractive index, Imaging systems, Optical imaging

Read Abstract +

Proceedings Article | 29 July 2004 Paper

Optical coherence tomography imaging of converging flow

Sergey Proskurin, Yonghong He, Ruikang Wang

Proceedings Volume 5486, (2004) https://doi.org/10.1117/12.571994

KEYWORDS: Optical coherence tomography, Coherence imaging, Doppler tomography, Heart, Spatial resolution, Capillaries, Optical imaging, In vivo imaging, Blood circulation, Doppler effect

Read Abstract +

Proceedings Article | 29 July 2004 Paper

Optical clearing of in vivo human skin with hyperosmotic chemicals investigated by optical coherence tomography and near-infrared reflectance spectroscopy

Xiangqun Xu, Yonghong He, Sergey Proskurin, Ruikang Wang, James Elder

Proceedings Volume 5486, (2004) https://doi.org/10.1117/12.571991

KEYWORDS: Skin, Optical coherence tomography, Tissues, In vivo imaging, Optical clearing, Reflectivity, Light scattering, Diffuse reflectance spectroscopy, Tissue optics, Visualization

Read Abstract +

Proceedings Article | 1 July 2004 Paper

Determination of fluid flow-velocity independent of Doppler angle by optical coherence tomography

Sergey Proskurin, Yonghong He, Ruikang Wang

Proceedings Volume 5316, (2004) https://doi.org/10.1117/12.531335

KEYWORDS: Doppler tomography, Doppler effect, Particles, Optical coherence tomography, Laser beam diagnostics, Light sources, Capillaries, Scattering, Scattering media, Coherence (optics)

Read Abstract +

Proceedings Article | 28 May 2004 Paper

Investigation of flows with complex geometry using coherence domain tomography

Sergey Proskurin, Yonghong He, Ruikang Wang

Proceedings Volume 5330, (2004) https://doi.org/10.1117/12.529662

KEYWORDS: Heart, Doppler tomography, Doppler effect, Optical coherence tomography, In vivo imaging, Blood vessels, Optical clearing, Capillaries, Tomography, Spatial resolution

Read Abstract +

Proceedings Article | 2 October 2003 Paper

Application of optical coherence tomography for diagnosis and measurements of glycated hemoglobin

Ekaterina Galanzha, Anastasia Solovieva, Valery Tuchin, Ruikang Wang, Sergey Proskurin

Proceedings Volume 5140, (2003) https://doi.org/10.1117/12.500532

KEYWORDS: Glucose, Refractive index, Optical coherence tomography, Blood, Molecules, Tissues, Scattering, Proteins, Water, Light scattering

Read Abstract +

Proceedings Article | 18 August 1997 Paper

Measurements of time-resolved transmittances through cylindrical solid phantoms: comparison with 2D and 3D FEM simulations

Sergei Proskurin, Shuichi Takahashi, Ivo Kwee, Yukari Tanikawa, Yukio Yamada

Proceedings Volume 2979, (1997) https://doi.org/10.1117/12.280253

KEYWORDS: Finite element methods, Scattering, Diffusion, Solids, Optical properties, Picosecond phenomena, Absorption, Continuous wave operation, 3D metrology

Read Abstract +

Proceedings Article | 18 August 1997 Paper

Performance of a nullspace-map image reconstruction algorithm

Ivo Kwee, Yukari Tanikawa, Sergei Proskurin, Simon Arridge, David Delpy, Yukio Yamada

Proceedings Volume 2979, (1997) https://doi.org/10.1117/12.280245

KEYWORDS: Data modeling, Reconstruction algorithms, Absorption, Head, Protactinium, Inverse problems, Statistical modeling, Optical tomography, Image restoration, Signal to noise ratio

Read Abstract +

Proceedings Article | 6 December 1996 Paper

Diffuse transmittance measurements of homogeneous and inhomogeneous cylindrical phantoms: comparison with FEM calculations

Sergei Proskurin, Yukari Tanikawa, Ivo Kwee, Yukio Yamada

Proceedings Volume 2925, (1996) https://doi.org/10.1117/12.260850

KEYWORDS: Finite element methods, Transmittance, Sensors, Absorption, Data modeling, Image restoration, Data acquisition, Optical tomography, Tissue optics

Read Abstract +

Proceedings Article | 6 December 1996 Paper

Null space regularization and MAP reconstruction in the ill-posed inverse imaging problem

Ivo Kwee, Yukari Tanikawa, Sergei Proskurin, Simon Arridge, David Delpy, Yukio Yamada

Proceedings Volume 2925, (1996) https://doi.org/10.1117/12.260855

KEYWORDS: Optical tomography, Reconstruction algorithms, Inverse imaging problems, Absorption, Photons, Signal to noise ratio, Image restoration, Annealing, Scattering, Medical imaging

Read Abstract +

Proceedings Article | 18 December 1995 Paper

Measurement and FEM calculation of light pulse propagtion through cylindrical homogeneous and inhomogeneous phantoms

Yukari Tanikawa-Takahashi, Yukio Yamada, Sergei Proskurin, Sho Mizuno, Hiroshi Maki

Proceedings Volume 2626, (1995) https://doi.org/10.1117/12.228654

KEYWORDS: Absorption, Finite element methods, Scattering, Diffusion, Transmittance, Epoxies, Particles, Sensors, Picosecond phenomena, Optical fibers

Read Abstract +

Proceedings Article | 30 May 1995 Paper

Absorption coefficient measurements of highly scattering media in slabs and cylindrical phantoms by means of time-resolved optical spectroscopy

Sergei Proskurin, Yukio Yamada, Yukari Tanikawa-Takahashi

Proceedings Volume 2389, (1995) https://doi.org/10.1117/12.209963

KEYWORDS: Absorption, Scattering, Tissues, Transmittance, Mie scattering, Particles, Oscilloscopes, Scatter measurement, Scattering media, Spectrophotometry

Read Abstract +

Proceedings Article | 21 July 1994 Paper

Blood flow velocity measurements in rat mesentery arterioles in health and under hypertensive conditions

Marina Polyakova, Irina Sokolova, Alexander Priezzhev, Sergei Proskurin, Natalia Savchenko, Alexander Shakhnazarov

Proceedings Volume 2136, (1994) https://doi.org/10.1117/12.180809

KEYWORDS: Blood circulation, Polymers, Doppler effect, Blood, Mercury, Velocity measurements, Control systems, Resistance, Capillaries, Oxides

Read Abstract +

Proceedings Article | 28 June 1994 Paper

Laser Doppler microscopy of biological objects with different optical properties

Borislav Levenko, Alexander Priezzhev, Sergei Proskurin, Natalia Savchenko

Proceedings Volume 2100, (1994) https://doi.org/10.1117/12.179000

KEYWORDS: Doppler effect, Microscopy, Optical properties, Blood circulation, Scattering, Microscopes, Particles, Photovoltaics, Velocity measurements, Blood

Read Abstract +

Quite a number of experimental techniques are used in biomedical research involving the registration of flow velocities of biological fluids. These arc: particle image velocimetry, ultrasonic Doppler velocimetry, speckle microscopy, transmission grating microscopy, etc. Each of these methods has its advantages but none of them provides means to study all the variety of biological objects and dynamic phenomena, via performing noninvasive measurements. An essential alternative method is laser Doppler (LD) spectroscopy and microscopy, based on the registration of Doppler frequency shifts of laser radiation scattered from moving particles. The method yields high spatial and temporal resolution and hence can be used in different fields of biophysics and biomedicine [1,2,3]. The amount of the integral information, averaged over all the particles traversing the probe volume, the real-time mode of measurements, the possibility of registration of the flow velocity profiles -all this makes LD microscopy an efficient method enabling to study biological objects of different levels of complexity with broad range of optical properties. The possibility of fluid flow measurements in live objects with the LD technique was first shown in 1972 [4] and since then the potentialities of this technique have been studied extensively [5, 6, 7J. Nonetheless, though there arc no apparent technical reasons which would prevent from designing an LD microscope (LDM) as a commercial device, LD microscopy has not become yet a conventional technique. There still exist problems of Doppler spectra interpretation and evaluation of data experimentally obtained from biological objects with different opticai properties. These will be discussed below. We describe here an LDM designed in Moscow State University specifically for biophysical and biomedical applications on the basis of our earlier experience in application of LD spectroscopy to the study of intracellular hydrodynamics [8] and of haemodynamics [9). The potentialities of the LDM are illustrated by the results of real time measurements of oscillating flow velocities in relation to two different phenomena: 1 -protoplasmicstreaming in plasmodium of myxomycete Physarum, and 2 -bloodflow in aquarium Danio rerio fish embryo. To carry out measurements in biological objects with different optical properties and a broad range of values of measured parameters the following innovations have been introduced: - inl.roduction of controlled high stability frequency shift in the probing beams; - two-steps formation of optimal probe volume; - generation of the output signal with high signal-to-noise ratio both in analog and in photon ounting regimes; - arrangement of computer controlled fast scanning;- elaboration of the software for signal processing and calculation of parameters under study

Proceedings Article | 1 February 1994 Paper

Potentialities of laser Doppler microscopy in biomedical research

Sergei Proskurin, Alexander Priezzhev, N. Lapteva

Proceedings Volume 2082, (1994) https://doi.org/10.1117/12.167448

KEYWORDS: Doppler effect, Microscopy, Particles, Blood circulation, Microscopes, Medical research, Diffusion, Light scattering, Scattering, Velocity measurements

Read Abstract +

Proceedings Article | 21 July 1993 Paper

Pulsating blood-flow monitoring in developing fish embryos and rat mesentery by laser Doppler microscopy

K. Bikkulova, N. Lapteva, Borislav Levenko, Marina Polyakova, Alexander Priezzhev, Sergei Proskurin, Yuri Romanovsky, Irina Sokolova

Proceedings Volume 1884, (1993) https://doi.org/10.1117/12.148346

KEYWORDS: Doppler effect, Microscopy, Blood circulation, Polymers, Temperature metrology, Velocity measurements, Capillaries, Heart, Blood, Laser development

Read Abstract +

Proceedings Article | 2 June 1993 Paper

Nonstationary blood-flow measurement in growing fish embryos with laser Doppler microscopy

N. Lapteva, Borislav Levenko, Alexander Priezzhev, Sergei Proskurin

Proceedings Volume 1981, (1993) https://doi.org/10.1117/12.146493

Read Abstract +

Proceedings Article | 1 January 1992 Paper

Laser Doppler velocimetry: in-vitro and in-vivo measurements of biological fluid flows in restricted volumes

Alexander Priezzhev, Sergei Proskurin

Proceedings Volume 1553, (1992) https://doi.org/10.1117/12.135335

KEYWORDS: Doppler effect, Laser Doppler velocimetry, Field emission displays, In vivo imaging, Laser interferometry, Ions, Velocity measurements, Particles, In vitro testing, Signal processing

Read Abstract +

Proceedings Article | 1 April 1991 Paper

Laser Doppler measurements of ameboid cytoplasmic streaming and problems of mathematical modeling of intracellular hydrodynamics

Alexander Priezzhev, Sergei Proskurin, Yuri Romanovsky

Proceedings Volume 1402, (1991) https://doi.org/10.1117/12.47486

KEYWORDS: Mathematical modeling, Doppler effect, Data modeling, Process modeling, Particles, Nonlinear optics, Nonlinear control, Diagnostics, Velocity measurements, Microscopes

Read Abstract +

Showing 5 of 42 publications

View contact details

UPDATE YOUR PROFILE

Is this your profile? Update it now.

Sign into your SPIE.org account

Don’t have a profile and want one?

Create an account on SPIE.org

Keywords/Phrases

Search In:

Publication Years