Publication | Closed Access
Ex Vivo Breast Tumor Identification: Advances Toward a Silicon-Based Terahertz Near-Field Imaging Sensor
24
Citations
49
References
2019
Year
EngineeringMicroscopyBiomedical EngineeringLight Scattering SpectroscopyTerahertz PhotonicsSensor TechnologyOptical PropertiesInstrumentationMolecular ImagingTerahertz WavesLong WavelengthBiophysicsRadiologyTerahertz SpectroscopyTerahertz NetworkTerahertz ScienceBiophotonicsSpectroscopyOrganic MatterBiomedical ImagingTerahertz TechniqueMedicineTerahertz Applications
Terahertz waves cover photon energies that are orders of magnitude smaller (0.4-40 meV) than the visual spectrum. Therefore, they provide additional information on intrinsic condensed-matter properties, making them attractive for imaging applications in the life sciences [1], [2]. Furthermore, they do not have an ionizing effect and are considered biologically innocuous. The ever-present water in organic matter strongly absorbs terahertz waves, and subtle changes in the water concentration can be indicative of disease [3]. However, the waves? long wavelength (3mm-30 nm) severely limits their lateral resolution and creates challenges for high-resolution imaging of biological tissue on the cellular level, e.g., for tumor margin identification during cancer surgery.
| Year | Citations | |
|---|---|---|
Page 1
Page 1