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Radiation Safety
There are 1 expert witnesses in this category

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Michael Gossman, MS, DABR
Chief Medical Physicist & RSO
Medical Physics Section
706 23rd St
Ashland KY 41101
USA
phone: 606-232-9283 (cell)
fax: WT: (606) 329-0060
Michael
Michael S. Gossman, M.S., DABR, RSO is a Board Certified Qualified Expert Medical Physicist and currently the Chief Medical Physicist & Radiation Safety Officer in Radiation Oncology at Tri-State Regional Cancer Center in Ashland, KY. He is extra-professionally an Accreditation Site Reviewer for the American College of Radiation Oncology (ACRO) and the American College of Radiology (ACR)-American Society for Therapeutic Radiology and Oncology (ASTRO), and is currently the Ohio River Valley Chapter President of the American Association of Physicists in Medicine (AAPM). He is the highest ranking scientist in medicine. His expertise involves the safe, effective and precise delivery of radiation to achieve the therapeutic result prescribed in patient care by radiation oncologists. Extra-professionally, he is retired as the Interim Editor-in-Chief and Editorial Board Member for the Medical Dosimetry Journal, Editorial Board Member for the Journal of Applied Clinical Medical Physics, and served four years as a Medical Consultant to the U.S. Nuclear Regulatory Commission. Chief Gossman is directly and ultimately responsible for all technical and scientific aspects of cancer treatment. He directly supervises and oversees efforts from staff medical physicists, dosimetrists, radiation therapists and x-ray technologists. As an expert in radiation detector measurements, particle accelerator and radioactive material calibrations, and radioactive material handling, Mr. Gossman is a highly respected medical physicist by medical physicists nationally.

Services Provided:
  • Expert witness testimony
  • Medical physics peer review
  • Facility practice vs standards review
  • Facility preparation towards accredtation
  • Shielding calculations
  • Accelerator acceptance testing & commissioning
  • Quality assurance
  • Radiation measurement
  • Radiation safety
  • Dose determination
  • Calibration of medical accelerators
  • Treatment planning
  • Calculation of time and monitor units for treatment
  • Handling, shipping, receiving, and storing radioactive material
  • Calibrating radiactive material
  • Regulatory compliance
  • Medical event (misadministration) investigation
  • Independent medical evaluation of the probable deterministic effects of radiation exposures
  • Interpretation of bioassay results and other data related to radiation exposure
  • Calculation of internal and external radiation doses, as necessary
  • 12/5/2011 · Radiology
    A Novel Phantom Model For Mouse Tumor Dose Assessment Under MV Beams
    Abstract -- In order to determine a mouse's dose accurately and prior to engaging in live mouse radiobiological research, a tissue-equivalent tumor-bearing phantom mouse was constructed and bored to accommodate detectors. Comparisons were made among four different types of radiation detectors, each inserted into the mouse phantom for radiation measurement under a 6 MV linear accelerator beam.

    9/9/2011 · Radiology
    Radiation Skyshine From A 6 MeV Medical Accelerator
    Skyshine radiation emanating from medical accelerator facilities is a phenomenon not well understood.

    7/22/2011 · Medical Physics
    Design of Site-Specific Prognostic Morbidity-Mortality Studies and Internal Outcome Focus Studies in Radiation Oncology
    In the process of radiation oncology department accreditation, surveyors pay close attention to continuous quality improvement in the clinical section.

    1/3/2010 · Medical Physics
    NRC Restrictions On The Packaging Of Radioactive Material Should Be Expressed More Explicitly Than Simply in terms of "Activity"
    As promulgated by the Nuclear Regulatory Commission, packaging regulations for radioactive material are confusing (e.g., “activity” vs “contained” activity vs “total” activity). As a consequence, medical physicists are forced to secondguess the intent of the regulations.

    1/2/2010 · Medical Physics
    Establishing Radiation Therapy Treatment Planning Effects Involving Implantable Pacemakers And Implantable Cardioverter-Defibrillators
    Recent improvements to the functionality and stability of implantable pacemakers and cardioverter-defibrillators involve changes that include efficient battery power consumption and radiation hardened electrical circuits. Manufacturers have also pursued MRI-compatibility for these devices

    12/31/2009 · Medical Physics
    Dosimetric Effects Near Implanted Vascular Access Ports: An Examination Of External Photon Beam Dose Calculations
    Vascular access ports are used widely in the administering of drugs for radiation oncology patients. Their dosimetric effect on radiation therapy delivery in photon beams has not been rigorously established. In this work, the effects on external beam fields when any of a variety of vascular access ports were included in the path of a high energy beam are studied. This study specifically identifies sidescatter and backscatter consequences as well as attenuation effects.

    Edited by Oliver Vonend & Siegfried Eckert
    Michael Gossman is the author of Chapter 9: Clinical Concerns For and Strategies With Pacemakers in Radiation Oncology
    Authors: Todd Pawlicki, et al; Editors; Michael Gossman (Ch. 19), et al
    This comprehensive work highlights benefits of quality techniques, approaches to implementation, and guidelines for specific quality assurance steps related to equipment and procedures used in radiotherapy. After an overview of manufacturing and engineering techniques, the text addresses quality and safety issues in radiotherapy from both the physician and physicist viewpoints.