Literature DB >> 1886940

Laser thermal ablation.

A J Welch1, M Motamedi, S Rastegar, G L LeCarpentier, D Jansen.   

Abstract

Continuous wave and pulsed laser ablation of tissue is described as an explosive event. A subsurface temperature maximum and superheated tissue produce high pressures that eject fragments from the tissue. Decreased water content due to dehydration and vaporization decreases thermal conductivity which reduces heat conduction. Also, a decrease in water content dramatically alters the local rate of heat generation of laser radiation above 1.3 microns since water is the primary absorber. In contrast, at UV wavelengths protein and DNA are the primary absorbers so destruction of tissue bonds is due to direct absorption of the laser light rather than heat transfer from water.

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Year:  1991        PMID: 1886940     DOI: 10.1111/j.1751-1097.1991.tb09896.x

Source DB:  PubMed          Journal:  Photochem Photobiol        ISSN: 0031-8655            Impact factor:   3.421


  9 in total

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Authors:  J Conia; B S Edwards; S Voelkel
Journal:  J Clin Lab Anal       Date:  1997       Impact factor: 2.352

2.  Sealing and Bisection of Blood Vessels using a 1470 nm Laser: Optical, Thermal, and Tissue Damage Simulations.

Authors:  Nicholas C Giglio; Nathaniel M Fried
Journal:  Proc SPIE Int Soc Opt Eng       Date:  2021-03-05

Review 3.  Opportunities for Photoacoustic-Guided Drug Delivery.

Authors:  Jun Xia; Chulhong Kim; Jonathan F Lovell
Journal:  Curr Drug Targets       Date:  2015       Impact factor: 3.465

4.  Focal hyperthermia produces progressive tumor necrosis independent of the initial thermal effects.

Authors:  Mehrdad Nikfarjam; Caterina Malcontenti-Wilson; Christopher Christophi
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5.  Neural stimulation with optical radiation.

Authors:  Claus-Peter Richter; Agnella Izzo Matic; Jonathon D Wells; E Duco Jansen; Joseph T Walsh
Journal:  Laser Photon Rev       Date:  2010-06-07       Impact factor: 13.138

6.  Computational Simulations for Infrared Laser Sealing and Cutting of Blood Vessels.

Authors:  Nicholas C Giglio; Nathaniel M Fried
Journal:  IEEE J Sel Top Quantum Electron       Date:  2020-12-18       Impact factor: 4.653

7.  Multimodal tumor-homing chitosan oligosaccharide-coated biocompatible palladium nanoparticles for photo-based imaging and therapy.

Authors:  Subramaniyan Bharathiraja; Nhat Quang Bui; Panchanathan Manivasagan; Madhappan Santha Moorthy; Sudip Mondal; Hansu Seo; Nguyen Thanh Phuoc; Thi Tuong Vy Phan; Hyehyun Kim; Kang Dae Lee; Junghwan Oh
Journal:  Sci Rep       Date:  2018-01-11       Impact factor: 4.379

8.  Poly(ethylene-imine)-Functionalized Magnetite Nanoparticles Derivatized with Folic Acid: Heating and Targeting Properties.

Authors:  Mariano Ortega-Muñoz; Simona Plesselova; Angel V Delgado; Francisco Santoyo-Gonzalez; Rafael Salto-Gonzalez; Maria Dolores Giron-Gonzalez; Guillermo R Iglesias; Francisco Javier López-Jaramillo
Journal:  Polymers (Basel)       Date:  2021-05-15       Impact factor: 4.329

9.  Yttrium-Doped Iron Oxide Nanoparticles for Magnetic Hyperthermia Applications.

Authors:  Przemyslaw Kowalik; Jakub Mikulski; Anna Borodziuk; Magdalena Duda; Izabela Kamińska; Karolina Zajdel; Jaroslaw Rybusinski; Jacek Szczytko; Tomasz Wojciechowski; Kamil Sobczak; Roman Minikayev; Magdalena Kulpa-Greszta; Robert Pazik; Paulina Grzaczkowska; Krzysztof Fronc; Mariusz Lapinski; Małgorzata Frontczak-Baniewicz; Bozena Sikora
Journal:  J Phys Chem C Nanomater Interfaces       Date:  2020-03-02       Impact factor: 4.126

  9 in total

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