Concepedia

Beam Intensity Optimization

Beam Intensity Optimization is a computational method in radiation therapy planning that determines the optimal fluence intensity of individual beamlets in intensity-modulated radiotherapy to maximize tumor dose conformality while minimizing exposure to surrounding healthy tissues.

125

Publications

6.7K

Citations

586

Authors

185

Institutions

Publications per year

2017–2026

21

Parents

Publications

125

Intensity-modulated arc therapy with dynamic multileaf collimation: an alternative to tomotherapy

C Yu · Physics in Medicine and Biology · 1995 · 702 citations

, , +15

The 30 m Small-Angle Neutron Scattering Instruments at the National Institute of Standards and Technology

C. J. Glinka, J. G. Barker, Boualem Hammouda et al. · Journal of Applied Crystallography · 1998 · 656 citations

, , +13

Reduction of small and large bowel irradiation using an optimized intensity-modulated pelvic radiotherapy technique in patients with prostate cancer

Christopher M. Nutting, D. Convery, Vivian P. Cosgrove et al. · International Journal of Radiation Oncology*Biology*Physics · 2000 · 230 citations

, , +16

Dynamic X-ray compensation for conformal radiotherapy by means of multi-leaf collimation

Jörg Stein, Thomas Bortfeld, B. Dörschel et al. · Radiotherapy and Oncology · 1994 · 213 citations

, , +16

High-resolution three-dimensional imaging of flat objects by synchrotron-radiation computed laminography

Lukas Helfen, Tilo Baumbach, Douglas P. Kiel et al. · Applied Physics Letters · 2005 · 192 citations

, , +13

1–5 of 125

Authors

586

  1. TB
    Thomas Bortfeld

    Massachusetts General Hospital, United States

    4 publications · 505 citations

    4

    h-index

  2. BH
    Ben Heijmen

    Erasmus MC Cancer Institute, Netherlands

    3 publications · 79 citations

    3

    h-index

  3. YY
    Y. Yano

    RIKEN, Japan

    3 publications · 87 citations

    3

    h-index

  4. TN
    T. Nakagawa

    RIKEN, Japan

    3 publications · 87 citations

    3

    h-index

  5. AL
    Arthur L. Boyer

    Stanford University, United States

    3 publications · 167 citations

    3

    h-index

1–5 of 586

Institutions

185

  1. Japan Atomic Energy Agency

    Tōkai Mura, Japan

    6 h-index

    43 publications

    1.3K citations

  2. ETH Zurich

    Zurich, Switzerland

    5 h-index

    9 publications

    279 citations

  3. Institute of Cancer Research

    London, United Kingdom

    5 h-index

    18 publications

    2K citations

  4. Stanford University

    Stanford, United States

    5 h-index

    10 publications

    600 citations

  5. Massachusetts General Hospital

    Boston, United States

    4 h-index

    10 publications

    1.1K citations

  6. Paul Scherrer Institute

    Villigen, Switzerland

    4 h-index

    22 publications

    774 citations

  7. German Cancer Research Center

    Heidelberg, Germany

    3 h-index

    8 publications

    910 citations

  8. Image Processing Systems Institute

    Samara, Russia

    3 h-index

    5 publications

    149 citations

1–8 of 185

Venues

  1. Review of Scientific Instruments

    17 publications · 361 citations

    13

    h-index

  2. Medical Physics

    14 publications · 711 citations

    12

    h-index

  3. Physics in Medicine and Biology

    11 publications · 1.4K citations

    11

    h-index

  4. 8

    h-index

  5. Radiotherapy and Oncology

    5 publications · 314 citations

    5

    h-index

1–5