by Pergamon .
Written in English
|Other titles||International journal of radiation, oncology, biology physics.|
|Statement||edited by Alfred R. Smith and James A. Purdy.|
|Contributions||Purdy, James A., Smith, Alfred R.|
|The Physical Object|
|Number of Pages||271|
Treatment plans designed with 3-D dose planning systems, using any type of beam arrangement (3-D unconstrained plans), were compared to plans with typical beam configurations that are used in day-to-day practice in the clinic (3-D standard plans); these latter beam arrangements (although not the beam aperture) were derived from treatment planning experience without the benefit Cited by: Three-dimensional treatment planning for the intact breast was performed on two patients who had undergone CT scanning. A total of 38 treatment plans were evaluated. Multiple plans were evaluated for each patient including plans with and without inhomogeneity corrections, plans using varying photon energies of 60 Co, 4 MV, 6 MV, 10 MV, and 15 MV, and three-dimensionally unconstrained by: Three-dimensional treatment plan optimization (improvement) methods. In Purdy JA, Fraass BA, eds. Syllabus: A Categorical Course in Physics, Three-Dimensional Radiation Therapy Treatment Planning. Oak Brook, IL: Radiological Society of North America, pp. 47–Cited by: 4. The role of three-dimensional (3-D) treatment planning in the definitive treatment of carcinoma of the larynx with radiation was evaluated at four institutions as part of an NCI contract. A total of 30 different treatment approaches were devised for two patients with larynx cancer.
Purdy JA () Photon dose calculations for three-dimensional radiation treatment planning. Semin Radiat Oncol 2(4)– PubMed CrossRef Google Scholar Purdy JA (a) 3-D radiation treatment planning: a new era. The purpose of this work is to compare the photon dose calculation of a commercially available three‐dimensional (3D) treatment planning system based on the collapsed cone convolution technique against BEAM, a Monte Carlo code that allows detailed simulation of a radiotherapy accelerator. The first part of the work is devoted to the commissioning of BEAM for a 6 MV photon . The role of three-dimensional (3-D) treatment planning in the definitivetreatment of carcinoma of the larynx with radiation was evaluated at fourinstitutions as part of an NCI contract. A total of 30 different treatmentapproaches were devised for two patients with larynx cancer. Treatment planning is a never-ending stream of therapeutic plans and interventions. It is always moving and changing. I have cowritten a thorough treatment planning book and computer program that should make treatment planning easy: The Addiction Treatment Planner(Perkinson & Jongsma, a, b). The planner comes in two forms, as a book and.
The clinical three-dimensional treatment planning studies: A prologue ☆. Author links open overlay panel Photon Treatment Planning Collaborative Working Group ∗ 1 2 Photon Treatment Planning Collaborative Working Group ∗ 1 2. Three-Dimensional Photon Radiotherapy Planning for Laryngeal and Hypopharyngeal Tumours Article (PDF Available) in Acta Oncologica 29(4) February . Purdy JA () Photon dose calculations for three-dimensional radiation treatment planning. Semin Radiat Oncol 2: – PubMed CrossRef Google Scholar Sontag MR, Cunningham JR() Corrections to absorbed dose calculations for tissue inhomogeneities. Treatment Planning Algorithms: Model-Based Photon Dose Calculations Thomas R. Mackie Hui Helen Liu Edwin C. McCullough Introduction This chapter takes a different approach to photon dose calculations in radiotherapy. There are several good books and review articles on radiotherapy dose computation algorithms (1,2,3,4,5,6,7,8). In this chapter, we present the current status of .