A. Chvetsov

发表

Tumor localization using cone-beam CT reduces setup margins in conventionally fractionated radiotherapy for lung tumors.

Jonathan G. Li, J. Palta, Chihray R Liu, 2009, International journal of radiation oncology, biology, physics.

Evaluation of kV Cone-Beam CT Performance for Prostate IGRT: A Comparison of Automatic Grey-Value Alignment to Implanted Fiducial-Marker Alignment

Jatinder Palta, Wenyin Shi, Jonathan G. Li, 2011, American journal of clinical oncology.

The energy-dependent electron loss model for pencil beam dose kernels

G. Sandison, A. Chvetsov, C. Yeboah, 2000, Physics in medicine and biology.

Utilizing simulated errors in radiotherapy plans to quantify the effectiveness of the physics plan review

Wade P. Smith, E. Ford, M. Phillips, 2018, Medical physics.

POINT/COUNTERPOINT: Systemic α-particles are likely to yield more important advances in radiotherapy than are protons.

C. Orton, B. Allen, A. Chvetsov, 2015, Medical physics.

Reconstruction of electron spectra from depth doses with adaptive regularization.

Jikun Wei, G. Sandison, A. Chvetsov, 2006, Medical physics.

Physical Uncertainties in the Planning and Delivery of Light Ion Beam Treatments

Radhe Mohan, Wayne Newhauser, Michael F. Moyers, 2020 .

The influence of CT image noise on proton range calculation in radiotherapy planning

A. Chvetsov, Alexei V Chvetsov, Sandra L Paige, 2010, Physics in medicine and biology.

Intensity and energy modulated radiotherapy with proton beams: variables affecting optimal prostate plan.

G. Sandison, A. Chvetsov, C. Yeboah, 2002, Medical physics.

Optimal Image-Guidance Scenario With Cone-Beam Computed Tomography in Conventionally Fractionated Radiotherapy for Lung Tumors

Jonathan G. Li, J. Palta, Chihray R Liu, 2009, American journal of clinical oncology.

Assessment of interpatient heterogeneity in tumor radiosensitivity for nonsmall cell lung cancer using tumor-volume variation data.

N. Mayr, J. Schwartz, S. Yartsev, 2014, Medical physics.

Tumor response parameters for head and neck cancer derived from tumor-volume variation during radiation therapy.

A. Chvetsov, Alexei V Chvetsov, 2013, Medical physics.

A dose comparison study between XVI and OBI CBCT systems.

Shuichi Ozawa, William Y Song, William Y. Song, 2008, Medical physics.

Deep inspiration breath hold radiotherapy for locally advanced lung cancer: Comparison of different treatment techniques on target coverage, lung dose and treatment delivery time

William Y. Song, S. Kamath, E. Samei, 2013 .

Tumor-volume simulation during radiotherapy for head-and-neck cancer using a four-level cell population model.

Lei Dong, R. Amdur, A. Chvetsov, 2009, International journal of radiation oncology, biology, physics.

Optimization of equivalent uniform dose using the L-curve criterion

J. Dempsey, J. Palta, A. Chvetsov, 2007, Physics in medicine and biology.

Volume dependence in hypoxia‐targeted dose escalation

J. Rajendran, A. Chvetsov, J. Zeng, 2018, Medical physics.

Theoretical effectiveness of cell survival in fractionated radiotherapy with hypoxia‐targeted dose escalation

S. Bowen, J. Rajendran, Shilpen A. Patel, 2017, Medical physics.

Time-dependent cell disintegration kinetics in lung tumors after irradiation

Y. Nagata, A. Chvetsov, Jatinder Palta, 2008, Physics in medicine and biology.

Regularization of inverse planning for intensity-modulated radiotherapy.

Daniela Calvetti, Jason W Sohn, D. Calvetti, 2005, Medical physics.

Equivalent uniform RBE-weighted dose in eye plaque brachytherapy.

A. Chvetsov, 2024, Medical physics.