Metamaterials meeting medicine: surface waves at an interface of bio-inspired metamaterial

Gric, Tatjana; Rafailov, Edik

doi:10.1117/12.3084839

Use this URL to cite this publication: https://hdl.handle.net/20.500.14911/211858

Metamaterials meeting medicine: surface waves at an interface of bio-inspired metamaterial

Details

Publication Type (CRIS)

Straipsnis konferencijos medžiagoje kitoje duomenų bazėje / Article in conference proceedings in other databases (P1c)

Publication Type (eLABa)

Straipsnis konferencijos darbų leidinyje kitoje DB / Article in conference proceedings in other DB (P1c)

VILNIUS TECH Research Priorities and Topics

Fizinių, technologinių ir ekonominių procesų matematiniai modeliai / Mathematical models of physical, technological and economic processes (FM0101)

Lithuanian Intelligent Specialization

Nauji gamybos procesai, medžiagos ir technologijos / New production processes, materials and technologies (L104)

Author(s)

Title

Metamaterials meeting medicine: surface waves at an interface of bio-inspired metamaterial

[en]

Tatjana Gric, Edik Rafailov

Is part of

Nanoscale and Quantum Materials: From Synthesis and Laser Processing to Applications 2026, LASE, 2026, San Francisco, California, United States

Published In

Year	Volume	Issue	Start Page	End Page
2026	1388206	1388206	1	5

Publisher

Bellingham : SPIE - The International Society for Optical Engineering

Referenced in Database(s)(DBs)

SPIE Digital Library

Scilit

Extent

p. 1-5

URI

URI	Access Rights
https://hdl.handle.net/20.500.14911/211858
Prezentacija	Dokumento santrauka/dalis

DOI

10.1117/12.3084839

Cited references

Science / Art Area

Technologijos mokslai / Technological sciences (T)

Field of Science / Art

Elektros ir elektronikos inžinerija / Electrical and electronic engineering (T001)

Keywords (en)

Abstract (en)

Theoretically, new characteristics of surface plasmon propagation at the interface between bio-inspired nanowire metamaterial and Kerr nonlinear medium are described. We provide exact solutions to the wave equation with anisotropic semiconductor permittivity that meet the medium interface boundary criteria. Analysis is done on how the geometric and optical parameters affect the optical response of the system. The suggested structure has potential applications in THz sensing, imaging, spectroscopy, and bio applications that imitate the useful characteristics of living biological tissues in order to identify disorders like cancer. The presented approach can have a significant impact on the development of methodological approaches toward precise identification of pathological tissues and would allow for efficient detection of cancer-related changes.