Chapter 3
Holographic Interferometry for Studying
Time-Varying States of the Human
Surface Circulatory System
The Development of Scientific Approaches to Implementation of the Holographic
Interferometry in Medicine.
The holographic interferometry methods, which are a powerful means of
nonvolatile control, make it possible to investigate with high resolution defined by
the light wave fraction as opposed to the classical interferometry not only phase and
mirror objects, but also diffuse ones [1–3], as well as the processes occured with
them in statics and dynamics. They are implemented to:
• analyze elasticity and fatigue, residual voltages, material aging [4, 5],
• analyze homogeneity distortions of mixtures and compound materials [6–8],
• optimize constructions through vibration mode analyses (compressor blades and
buckets, motor details, reservoirs, etc.) [9–12],
• control pressure homogeneity of welded, bolted and rivet joints of manifold
details, especially under conditions requiring high reliability [6, 13],
• study flows and thermal gradients [14–17],
• study processes of microcrack occurrence [4, 18],
• study growth of vegetables, crystals, microparticle tracks, characteristics of gases
and liquid [19–22],
• analyze the sizes and spatial distribution of particles [23, 24],
• measure velocity and size of micro- and macroparticles [25–27],
• study relief of static and dynamic surfaces of objects [22, 28–58].
Using the holographic interferometry interference, the comparison of rough
surfaces is conducted that makes it possible to use it for detection of material defects
or technologies [59, 60].
The holographic interferometry is efficiently used for plasma diagnostics [61–65]
and study of non-stationary processes, for example, of gas-dynamic flows [66, 67]
that is necessary for aerodynamic research during development of the optimal form
of flying vehicles, etc.
© The Author(s), under exclusive license to Springer Nature Switzerland AG 2021
L. Tanin et al., Biomedical and Resonance Optics, Bioanalysis 11,
https://doi.org/10.1007/978-3-030-60773-9_3
183
Holographic Interferometry for Studying
Time-Varying States of the Human
Surface Circulatory System
The Development of Scientific Approaches to Implementation of the Holographic
Interferometry in Medicine.
The holographic interferometry methods, which are a powerful means of
nonvolatile control, make it possible to investigate with high resolution defined by
the light wave fraction as opposed to the classical interferometry not only phase and
mirror objects, but also diffuse ones [1–3], as well as the processes occured with
them in statics and dynamics. They are implemented to:
• analyze elasticity and fatigue, residual voltages, material aging [4, 5],
• analyze homogeneity distortions of mixtures and compound materials [6–8],
• optimize constructions through vibration mode analyses (compressor blades and
buckets, motor details, reservoirs, etc.) [9–12],
• control pressure homogeneity of welded, bolted and rivet joints of manifold
details, especially under conditions requiring high reliability [6, 13],
• study flows and thermal gradients [14–17],
• study processes of microcrack occurrence [4, 18],
• study growth of vegetables, crystals, microparticle tracks, characteristics of gases
and liquid [19–22],
• analyze the sizes and spatial distribution of particles [23, 24],
• measure velocity and size of micro- and macroparticles [25–27],
• study relief of static and dynamic surfaces of objects [22, 28–58].
Using the holographic interferometry interference, the comparison of rough
surfaces is conducted that makes it possible to use it for detection of material defects
or technologies [59, 60].
The holographic interferometry is efficiently used for plasma diagnostics [61–65]
and study of non-stationary processes, for example, of gas-dynamic flows [66, 67]
that is necessary for aerodynamic research during development of the optimal form
of flying vehicles, etc.
© The Author(s), under exclusive license to Springer Nature Switzerland AG 2021
L. Tanin et al., Biomedical and Resonance Optics, Bioanalysis 11,
https://doi.org/10.1007/978-3-030-60773-9_3
183