Primary and secondary damage to biological tissue induced by laser radiation
- 1 March 1983
- journal article
- Published by Optica Publishing Group in Applied Optics
- Vol. 22 (5) , 676-681
- https://doi.org/10.1364/ao.22.000676
Abstract
A simple analytic model describing the evolution of the thermal injury during and after exposure of biological tissue to pulses of intense laser radiation is presented. Estimates for the upper and lower bounds of the extent of the thermal injury associated with protein and enzyme denaturization (secondary damage) relative to the extent of burned tissue (primary damage) are presented. The energy necessary for burn threshold and the energy required to induce both types of thermal injury increase with laser pulse duration. An optimal duration of laser pulse exists at which the extent of the secondary damage relative to the primary damage is the smallest.Keywords
This publication has 10 references indexed in Scilit:
- On the Relationship Between Blood Perfusion, Metabolism and Temperature in Biological Tissue Heat BalanceJournal of Biomechanical Engineering, 1980
- A Dimensionless Model for the Calculation of Temperature Increase in Biologic Tissues Exposed to Nonionizing RadiationIEEE Transactions on Biomedical Engineering, 1979
- Thermodynamic analysis of laser irradiation of biological tissueApplied Optics, 1978
- Asymptotic Rate Process Calculations of Thermal Injury to the Retina Following Laser IrradiationJournal of Biomechanical Engineering, 1978
- An Analysis of Chorioretinal Thermal Response to Intense Light ExposureIEEE Transactions on Biomedical Engineering, 1976
- Current Laser SurgeryAnnals of the New York Academy of Sciences, 1976
- Laser surgery in the aerodigestive tractThe American Journal of Surgery, 1973
- HEAT TRANSFER THROUGH FABRICS AS RELATED TO THERMAL INJURY*†Transactions of the New York Academy of Sciences, 1971
- Transient thermal behavior in biological systemsBulletin of Mathematical Biology, 1970
- The absorption spectra of liquid phase H2O, HDO and D2O from 0·7 μm to 10 μmInfrared Physics, 1963