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DOI: 10.17586/1023-5086-2025-92-11-99-110
УДК: 535.8
Design of a multispectral device for non-invasive vein visualization with projection onto skin surface
Subject of study. Two-channel optical system for vein morphology imaging and projection of binary vein map onto skin surface. Method. Base optical system synthesis was based on algebraic synthesis method. Parametric synthesis was conducted via method of mathematical optimization of constructive parameters. Main results. A layout of a two-channel optical system with a joint element, free from geometric distortions of the image, is proposed. Illumination wavelength choice for registration channel was justified. A multispectral design of the registration channel with obtaining spectral images without scanning (snapshot) is proposed. Dimensional synthesis methodology, including multispectral registration channel design, was produced, based on which optical system was designed. Practical significance. Designed two-channel system may be used in various medical applications that utilize vein morphology visualization, as example — obstructions detection and surgery preparation. With effective algorithms of multi wavelength index images calculation, multispectral design allows to solve the problem of vein morphology imaging for patients with darker skin tones.
multispectral optical system, near infrared spectral range, optical projection system, vein visualization
Acknowledgements:this work was supported by STC UI RAS State assignment (project FFNS-2025-0008).
OCIS codes: 060.5530, 050.1590, 060.5625
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