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Non-Cancer Effects following Ionizing Irradiation Involving the Eye and Orbit

SIMPLE SUMMARY: The irradiation of tumors involving the eye or orbit represents a complex therapeutic challenge due to the proximity between the tumor and organs that are susceptible to radiation. The challenges include tumor control, as it is often a surrogate for survival; organ (usually the eyeba...

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Autores principales: Thariat, Juliette, Martel, Arnaud, Matet, Alexandre, Loria, Olivier, Kodjikian, Laurent, Nguyen, Anh-Minh, Rosier, Laurence, Herault, Joël, Nahon-Estève, Sacha, Mathis, Thibaud
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8909862/
https://www.ncbi.nlm.nih.gov/pubmed/35267502
http://dx.doi.org/10.3390/cancers14051194
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author Thariat, Juliette
Martel, Arnaud
Matet, Alexandre
Loria, Olivier
Kodjikian, Laurent
Nguyen, Anh-Minh
Rosier, Laurence
Herault, Joël
Nahon-Estève, Sacha
Mathis, Thibaud
author_facet Thariat, Juliette
Martel, Arnaud
Matet, Alexandre
Loria, Olivier
Kodjikian, Laurent
Nguyen, Anh-Minh
Rosier, Laurence
Herault, Joël
Nahon-Estève, Sacha
Mathis, Thibaud
author_sort Thariat, Juliette
collection PubMed
description SIMPLE SUMMARY: The irradiation of tumors involving the eye or orbit represents a complex therapeutic challenge due to the proximity between the tumor and organs that are susceptible to radiation. The challenges include tumor control, as it is often a surrogate for survival; organ (usually the eyeball) preservation; and the minimization of damage of sensitive tissues surrounding the tumor in order to preserve vision. Anticipation of the spectrum and severity of radiation-induced complications is crucial to the decision of which technique to use for a given tumor. The aim of the present review is to report the non-cancer effects that may occur following ionizing irradiation involving the eye and orbit and their specific patterns of toxicity for a given radiotherapy modality. The pros and cons of conventional and advanced forms of radiation techniques and their clinical implementation are provided with a clinical perspective. ABSTRACT: The eye is an exemplarily challenging organ to treat when considering ocular tumors. It is at the crossroads of several major aims in oncology: tumor control, organ preservation, and functional outcomes including vision and quality of life. The proximity between the tumor and organs that are susceptible to radiation damage explain these challenges. Given a high enough dose of radiation, virtually any cancer will be destroyed with radiotherapy. Yet, the doses inevitably absorbed by normal tissues may lead to complications, the likelihood of which increases with the radiation dose and volume of normal tissues irradiated. Precision radiotherapy allows personalized decision-making algorithms based on patient and tumor characteristics by exploiting the full knowledge of the physics, radiobiology, and the modifications made to the radiotherapy equipment to adapt to the various ocular tumors. Anticipation of the spectrum and severity of radiation-induced complications is crucial to the decision of which technique to use for a given tumor. Radiation can damage the lacrimal gland, eyelashes/eyelids, cornea, lens, macula/retina, optic nerves and chiasma, each having specific dose–response characteristics. The present review is a report of non-cancer effects that may occur following ionizing irradiation involving the eye and orbit and their specific patterns of toxicity for a given radiotherapy modality.
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spelling pubmed-89098622022-03-11 Non-Cancer Effects following Ionizing Irradiation Involving the Eye and Orbit Thariat, Juliette Martel, Arnaud Matet, Alexandre Loria, Olivier Kodjikian, Laurent Nguyen, Anh-Minh Rosier, Laurence Herault, Joël Nahon-Estève, Sacha Mathis, Thibaud Cancers (Basel) Review SIMPLE SUMMARY: The irradiation of tumors involving the eye or orbit represents a complex therapeutic challenge due to the proximity between the tumor and organs that are susceptible to radiation. The challenges include tumor control, as it is often a surrogate for survival; organ (usually the eyeball) preservation; and the minimization of damage of sensitive tissues surrounding the tumor in order to preserve vision. Anticipation of the spectrum and severity of radiation-induced complications is crucial to the decision of which technique to use for a given tumor. The aim of the present review is to report the non-cancer effects that may occur following ionizing irradiation involving the eye and orbit and their specific patterns of toxicity for a given radiotherapy modality. The pros and cons of conventional and advanced forms of radiation techniques and their clinical implementation are provided with a clinical perspective. ABSTRACT: The eye is an exemplarily challenging organ to treat when considering ocular tumors. It is at the crossroads of several major aims in oncology: tumor control, organ preservation, and functional outcomes including vision and quality of life. The proximity between the tumor and organs that are susceptible to radiation damage explain these challenges. Given a high enough dose of radiation, virtually any cancer will be destroyed with radiotherapy. Yet, the doses inevitably absorbed by normal tissues may lead to complications, the likelihood of which increases with the radiation dose and volume of normal tissues irradiated. Precision radiotherapy allows personalized decision-making algorithms based on patient and tumor characteristics by exploiting the full knowledge of the physics, radiobiology, and the modifications made to the radiotherapy equipment to adapt to the various ocular tumors. Anticipation of the spectrum and severity of radiation-induced complications is crucial to the decision of which technique to use for a given tumor. Radiation can damage the lacrimal gland, eyelashes/eyelids, cornea, lens, macula/retina, optic nerves and chiasma, each having specific dose–response characteristics. The present review is a report of non-cancer effects that may occur following ionizing irradiation involving the eye and orbit and their specific patterns of toxicity for a given radiotherapy modality. MDPI 2022-02-25 /pmc/articles/PMC8909862/ /pubmed/35267502 http://dx.doi.org/10.3390/cancers14051194 Text en © 2022 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Review
Thariat, Juliette
Martel, Arnaud
Matet, Alexandre
Loria, Olivier
Kodjikian, Laurent
Nguyen, Anh-Minh
Rosier, Laurence
Herault, Joël
Nahon-Estève, Sacha
Mathis, Thibaud
Non-Cancer Effects following Ionizing Irradiation Involving the Eye and Orbit
title Non-Cancer Effects following Ionizing Irradiation Involving the Eye and Orbit
title_full Non-Cancer Effects following Ionizing Irradiation Involving the Eye and Orbit
title_fullStr Non-Cancer Effects following Ionizing Irradiation Involving the Eye and Orbit
title_full_unstemmed Non-Cancer Effects following Ionizing Irradiation Involving the Eye and Orbit
title_short Non-Cancer Effects following Ionizing Irradiation Involving the Eye and Orbit
title_sort non-cancer effects following ionizing irradiation involving the eye and orbit
topic Review
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8909862/
https://www.ncbi.nlm.nih.gov/pubmed/35267502
http://dx.doi.org/10.3390/cancers14051194
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