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This thesis by Anna Maria Flejmer investigates the clinical implications of modern radiotherapy techniques, including proton therapy, for the treatment of breast cancer. It examines various methods to reduce radiation burden on normal tissues while maintaining effective treatment. Studies include comparisons of different algorithms and techniques, such as the analytical anisotropic algorithm (AAA) versus pencil beam convolution, irregular surface compensator (ISC) versus 3D conformal radiotherapy (3D-CRT), and the feasibility of proton therapy. The research highlights the potential benefits of these advanced techniques in improving treatment outcomes and reducing side effects, particularly to the heart and lungs. The findings aim to enhance the quality of life for breast cancer patients by minimizing radiation exposure to healthy tissues.
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Radium --- Radiation dosimetry. --- Nuclear medicine --- Isotopes. --- Standards
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Radiation dosimetry. --- Radiation dosimetry. --- Health Physics. --- Radiometry. --- Diagnostic Imaging. --- Radiation Dosage. --- Radiotherapy.
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This unique, full-color reference offers a total team approach to radiation oncology treatment planning, incorporating the newest imaging techniques and offering a comprehensive discussion of clinical, physical, biological and technical aspects. A clear focus on the application of physical and clinical concepts to solve treatment planning problems helps you provide effective, state-of-the-art care for cancer patients. With authoritative coverage of the latest in sophisticated radiation oncology treatment modalities, the 4th Edition of Khan’s Treatment Planning in Radiation Oncology is an essential resource for the radiation oncologist, medical physicist, dosimetrist, and radiation therapist.
Tumors --- Neoplasms --- Tumours --- Pathology --- Cysts (Pathology) --- Oncology --- Radiotherapy. --- radiotherapy --- Radiation Oncology --- Radiotherapy Planning, Computer-Assisted --- Planning, Computer-Assisted Radiotherapy --- Computer-Assisted Radiotherapy Planning --- Dosimetry Calculations, Computer-Assisted --- Calculation, Computer-Assisted Dosimetry --- Calculations, Computer-Assisted Dosimetry --- Computer Assisted Radiotherapy Planning --- Computer-Assisted Dosimetry Calculation --- Computer-Assisted Dosimetry Calculations --- Dosimetry Calculation, Computer-Assisted --- Dosimetry Calculations, Computer Assisted --- Planning, Computer Assisted Radiotherapy --- Radiotherapy Planning, Computer Assisted --- Radiotherapy, Conformal --- methods --- E-books --- Radiotherapy Planning, Computer-Assisted. --- Cancer --- radiotherapy. --- methods. --- Radiotherapy --- Radiothérapie
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Perfect for radiation oncologists, medical physicists, and residents in both fields, Practical Radiation Oncology Physics provides a concise and practical summary of the current practice standards in therapeutic medical physics. A companion to the fourth edition of Clinical Radiation Oncology, by Drs. Leonard Gunderson and Joel Tepper, this indispensable guide helps you ensure a current, state-of-the art clinical practice. Covers key topics such as relative and in-vivo dosimetry, imaging and clinical imaging, stereotactic body radiation therapy, and brachytherapy.Describes technical aspects a
Cancer --- Medical physics. --- Radiation dosimetry. --- Radiotherapy. --- Ileal Neoplasms --- Cancer of ILEUM --- Cancer of the ILEUM --- Cancer, Ileal --- Ileal Cancer --- Cancers, Ileal --- ILEUM Cancer --- ILEUM Cancers --- Ileal Cancers --- Ileal Neoplasm --- Neoplasm, Ileal --- Neoplasms, Ileal --- Dosimetry --- Radiation --- Radiation monitoring --- Nuclear counters --- Health physics --- Health radiation physics --- Medical radiation physics --- Radiotherapy physics --- Radiation therapy physics --- Biophysics --- Physics --- Dosage --- Measurement --- Treatment
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Eine belastbare Methode zu entwickeln, um den Ressourceneinsatz zu bewerten, ist das Ziel dieses Buches. Notwendig ist dies, da das starke Wirtschaftswachstum der letzten Jahrzehnte zu einer intensiven Beanspruchung natürlicher Ressourcen geführt hat. Mit ihrer steigenden Nutzung gehen auch zusätzliche Belastungen der Umwelt sowie Restriktionen der Verfügbarkeit von Ressourcen einher. Aus diesen Gründen ist ein effizienter Einsatz von Ressourcen als wichtiger Beitrag zu einer nachhaltigen Entwicklung erforderlich. Die ESSENZ-Methode (Integrierte Methode zur ganzheitlichen Berechnung/Messung von Ressourceneffizienz) wurde in einer Kooperation der Technischen Universität Berlin mit den Industriepartnern Daimler AG, Deutsches Kupferinstitut Berufsverband e. V., Evonik Industries AG, Siemens AG, ThyssenKrupp Steel Europe AG und Wissenschaftlicher Gerätebau Dr. Ing. Herbert Knauer GmbH entwickelt. Sie unterstützt die umfassende Messung und Bewertung von Ressourceneffizienz innerhalb der vier Dimensionen „Verfügbarkeit“, „Gesellschaftliche Akzeptanz“, „Umweltauswirkungen“ und „Nutzen“. Um diese vier Dimensionen wissenschaftlich abzubilden, werden 21 anwendbare Indikatoren entwickelt und vorgestellt. Die ESSENZ-Methode kann sowohl für die Analyse und Optimierung eines einzelnen Produktes als auch für den Vergleich mehrerer Produktalternativen verwendet werden. Ihre Anwendbarkeit ist für Metalle und fossile Rohstoffe bereits erprobt.
Risk Management --- Environmental Monitoring --- Radiologic Health --- Air Pollution --- Safety --- Water Pollution --- Radiometry --- Organization and Administration --- Radiation --- Environmental Pollution --- Health Services Administration --- Public Health --- Accident Prevention --- Electromagnetic Phenomena --- Public Health Practice --- Investigative Techniques --- Health Care --- Environment and Public Health --- Accidents --- Analytical, Diagnostic and Therapeutic Techniques and Equipment --- Physical Phenomena --- Phenomena and Processes --- Radiation Monitoring --- Safety Management --- Water Pollution, Radioactive --- Radiation Dosage --- Air Pollution, Radioactive --- Physics --- Earth & Environmental Sciences --- Physical Sciences & Mathematics --- Environmental Sciences --- Nuclear Physics --- Nuclear reactors --- Radioactive pollution --- Measurement. --- Safety measures. --- Physiological effect --- Environmental radioactivity --- Nuclear pollution --- Radioactivity, Environmental --- Radiation monitoring --- Environment. --- Nuclear energy. --- Nuclear chemistry. --- Radiation protection. --- Environmental health. --- Water pollution. --- Effects of Radiation/Radiation Protection. --- Environmental Health. --- Nuclear Energy. --- Waste Water Technology / Water Pollution Control / Water Management / Aquatic Pollution. --- Nuclear Chemistry. --- Aquatic pollution --- Fresh water --- Fresh water pollution --- Freshwater pollution --- Inland water pollution --- Lake pollution --- Lakes --- Reservoirs --- River pollution --- Rivers --- Stream pollution --- Water contamination --- Water pollutants --- Water pollution --- Pollution --- Waste disposal in rivers, lakes, etc. --- Environmental quality --- Health --- Health ecology --- Public health --- Environmental engineering --- Health risk assessment --- Radiation protection --- Chemistry, Nuclear --- Chemistry, Physical and theoretical --- Atomic energy --- Atomic power --- Energy, Atomic --- Energy, Nuclear --- Nuclear power --- Power, Atomic --- Power, Nuclear --- Force and energy --- Nuclear physics --- Power resources --- Nuclear engineering --- Nuclear facilities --- Nuclear power plants --- Health aspects --- Environmental aspects --- Radioactive substances --- Radioecology --- Radioactive waste disposal --- Electromagnetic measurements --- Environmental protection. --- Environmental Medicine. --- Environmental pollution. --- Chemical pollution --- Chemicals --- Contamination of environment --- Environmental pollution --- Contamination (Technology) --- Asbestos abatement --- Bioremediation --- Factory and trade waste --- Hazardous waste site remediation --- Hazardous wastes --- In situ remediation --- Lead abatement --- Pollutants --- Refuse and refuse disposal --- Environmental quality management --- Protection of environment --- Environmental sciences --- Applied ecology --- Environmental policy --- Fukushima Nuclear Disaster, Japan, 2011. --- Radiation dosimetry. --- Dosimetry --- Nuclear counters --- Fukushima I Nuclear Disaster, Japan, 2011 --- Fukushima II Nuclear Disaster, Japan, 2011 --- Fukushima Accident, Japan, 2011 --- Fukushima Daiichi Nuclear Disaster, Japan, 2011 --- Fukushima Daini Nuclear Disaster, Japan, 2011 --- Fukushima Disaster, Japan, 2011 --- Fukushima Nuclear Accident, Japan, 2011 --- Tohoku Earthquake and Tsunami, Japan, 2011 --- Dosage --- Measurement --- Radiation—Safety measures. --- Natural resources. --- Urban ecology (Biology). --- Industrial management—Environmental aspects. --- Sustainable development. --- Natural Resources. --- Urban Ecology. --- Sustainability Management. --- Sustainable Development.
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