SACS Medical Dosimetry
SHS Student Catalog
Medical Dosimetry

Students acquire the professional skills of dose calculation, treatment design, and quality assurance through intensive classroom and clinical education.

Degree and Certificate Offered
Roster of Faculty
Objectives
Requirements for Admission
Nonacademic Requirements
Certificate Requirements
Bachelor of Science Requirements
Special Requirements
International Students
Professional Study
Curriculum
Course Descriptions

Degree and Certificate Offered

The School of Health Sciences offers the following programs in Medical Dosimetry:

Bachelor of Science Degree:Medical Dosimetry
Certificate:Medical Dosimetry

The programs are administered by:

Dean:Michael J. Ahearn, Ph.D.
Program Director:Melissa Jane Chapman, M.Ed., CMD
Education Coordinator:Mahsa Dehghanopour, M.S.
Medical Director:Ritsuko Komaki, M.D.

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Roster of Faculty

Faculty Member Degree and School Teaching Assignments
Shaun T. Caldwell
RT (R) (T)
M.S., Utah State University
  • Orientation to Radiation Oncology
  • Simulation Techniques in Radiation Therapy
Melissa Jane Chapman
CMD
M.Ed., University of Houston
  • Introduction to Medical Dosimetry I & II
  • Research Design & Project I & II
  • Medical Dosimetry Physics I & II
  • Brachytherapy
  • Clinical Education I, II & III
Mahsa Dehghanopour M.S., Islamic Azad University
  • Clinical Education I, II & III
  • Research Design & Project I & II
DeAnn R. Klein
RT (R) (T), CMD
B.S., Weber State University
  • Clinical Education I, II & III

Adjunct faculty members include:
Matthew T. Ballo
Assistant Professor
M.D., Case Western Reserve University School of Medicine
  • Radiation Oncology
Peter A. Balter Ph.D., The University of Texas Health Science Center at Houston
  • Medical Physics
Eric L. Chang
Assistant Professor
M.D., Harvard Medical School
  • Radiation Oncology
James D. Cox
Professor
M.D., University of Rochester School of Medicine
  • Radiation Oncology
Marc E. Delclos
Assistant Professor
M.D., Baylor College of Medicine
  • Radiation Oncology
Adam S. Garden
Associate Professor
M.D., SUNY Health Sciences Center
  • Radiation Oncology
Harry R. Gibbs
Associate Professor
M.D., Harvard Medical School
  • Diversity and Cultural Competence
Michael T. Gillin
Professor
Ph.D., University of San Francisco
  • Radiation Safety
  • Orientation
William F. Hanson
Research Professor
Ph.D., University of Tennessee
  • Introduction to Radiotherapy Physics: Principles and Calibrations
Anuja Jhingran
Associate Professor
M.D., Texas Tech University Health Science Center School of Medicine
  • Radiation Oncology
Ritsuko Komaki
Professor
M.D., Hiroshima University School of Medicine
  • Respiratory: Lung Pleura and Trachea
Richard Lane
Professor
Ph.D., University of California at Los Angeles
  • External Beam Physics
Karl L. Prado
Associate Professor
Ph.D., University of Oklahoma
  • Medical Physics
Craig W. Stevens
Associate Professor
M.D., Ph.D., Northwestern University Medical School
  • Radiation Oncology
Eric A. Strom
Associate Professor
M.D., Northwestern University Medical School
  • Radiation Oncology
Naresh Tolani M.S., East Carolina University
  • Medical Physics
John M. Williford M.S., Texas A&M University
  • Radiation Safety

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Objectives

The M. D. Anderson Program in Medical Dosimetry is designed to prepare students for the technical, theoretical, and psychological aspects of a career in this field. Students acquire the professional skills of dose calculation, treatment design, and quality assurance through intensive classroom and clinical education under the supervision of educated, experienced medical dosimetrists, physicists, and radiation oncologists.

The staff of the M. D. Anderson Division of Radiation Oncology is active in the Medical Dosimetry program. Certified medical dosimetrists, board-certified radiation oncologists, medical physicists, radiobiologists, resident physicians, and registered nurses teach in various capacities. In addition, professionals from throughout the institution participate in the didactic program. Students also attend many of the numerous medical conferences offered.

The clinical education component of the program includes experience at M. D. Anderson or other clinical affiliates. Clinical rotations are administered during each year of academic instruction. A well-balanced clinical experience is planned for each student, including daily and weekly quality assurance checks, two-dimensional external-beam treatment and brachytherapy planning, three-dimensional external-beam treatment planning, and treatment-machine quality assurance.

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Requirements for Admission

Consideration for admission to the Medical Dosimetry program is not based on race, religion, national origin, veteran status, sex, age, or disability. Students who have disabilities that require accommodation should discuss these with the program director early in the year. Documentation may be required to verify certain disabilities.

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Nonacademic Requirements

In addition to the nonacademic requirements for all students (see Admission policy), students accepted into the Medical Dosimetry program must be able to do all of the following:

Read overhead up to 6 feet off the floor.

Comprehend three-dimensional and spatial relationships.

Use a computer keyboard and monitor to input clinical data.

View computer screens for extended periods.

Demonstrate visual acuity corrected to 20/20 and visual perception with respect to depth and color.

Visually monitor patients during treatment or treatment-planning procedures.

Monitor patients via audio monitors during treatment or treatment-planning procedures.

Hear various equipment and background sounds during equipment operation.

Lift 30 pounds of weight (i.e., treatment cones, ancillary aids, blocks for treatment) up and over head level.

Move immobile patients from a stretcher to a treatment or diagnostic table.

Push a standard wheelchair from the waiting area to the treatment room.

Demonstrate the manual dexterity required to carry out all aspects of medical dosimetry procedures.

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Certificate Requirements

For the certificate in Medical Dosimetry, the student must be a graduate of a program in radiation therapy or hold a baccalaureate degree in the biological or physical sciences.

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Bachelor of Science Requirements

To enroll as a senior, 90 semester hours of college coursework from an accredited college or university must be transferred prior to entering the program to include the specific prerequisite courses listed below, 18 hours of upper-division credit and 45 credit hours of general education.

Course Hours
English and Humanities* 12
     -Composition 3 - 6
     -Literature 0 - 3
     -Communication 0 - 3
United States History*
(may include 3 hours of Texas History)
6
Political Science(must include a study of the Texas Constitution) 6
General Biology I & II 6
General Chemistry I & II 6
Mathematics (College Algebra or higher) 3
Fine Arts 3
Social Science 3
Introduction to Computer Science 3
Physics I & II (calculus-based) 8
Physics (additional higher level) 4
Human Anatomy and Physiology I & II 8
Trigonometry 3
Calculus I & II 6
Minimum Required Hours 77
 
*Up to 6 hours may be obtained from advanced standing examinations such as CLEP or its equivalent
 
 

Ninety (90) semester credit hours of college coursework from an accredited college or university must be achieved prior to entering the program.

Six semester hours of elective courses are recommended: Philosophy I and Psychology I.

Students may elect additional courses to complete the required total number of hours for the degree program. Foundation, prerequisite, elective, and specialty courses should total 130 semester credit hours.

The following are the minimum admission requirements for the program:

Completion of all general education and foreign language requirements and program prerequisites prior to the start of the program.

Separate application to the program, including: submission of official transcripts, three letters of recommendation using the appropriate forms, and a personal interview.

Required courses must be acceptable toward a major in the respective field of study. Survey courses will not fulfill these requirements. Admission is on a competitive basis; meeting the minimum criteria does not guarantee acceptance into the program.

Candidates who completed the prerequisite courses 7 or more years before admission may be required to update their academic skills. For specific information, contact the program director.

A minimum overall grade point average of 2.5 and a grade point average of 2.7 in science courses, both on a 4.0 scale, are required to be considered for the program.

Texas Success Initiative (TSI) - All applicants must provide proof of successful assessment of the Texas Success Initiative (TSI). Applicants who have graduated with an associate or baccalaureate degree are exempt from TSI. Proof of an applicant's readiness to enroll in college level coursework will be determined by the Registrar's Office based upon review of official transcripts from previously attended institutions.

Test of English as a Foreign Language (TOEFL) - Applicants from countries where English is not the native language may be required to take the TOEFL. A minimum score of 550 on the paper-based test or 213 on the computer-based version is required.

All information must be received by March 15 in order to be considered for admission to the upcoming class.

An early acceptance plan is available to qualified applicants who are seeking a baccalaureate degree. For more information, please see Early Acceptance Track.

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Special Requirements

Students are expected to maintain high academic performance and display appropriate professional and ethical behavior during all phases of their education and training. Total undergraduate semester credit hours must be equal to 130 before a Bachelor of Science degree is awarded. The number of hours awarded upon the completion of the program is 56.5.

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International Students

Students who complete all or part of their college coursework outside the United States must submit their transcripts to an accredited U.S. evaluation agency approved by the respective accrediting organizations for course and grade evaluations. International students must meet all requirements listed above. Applicants will be requested to demonstrate written and oral fluency in the English language.

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Professional Study

The one-year professional study curriculum in Medical Dosimetry is equivalent to the last three semesters of college and comprises 12 months of intensive study. Admission is dependent on factors that include cumulative grade point average, science and mathematics grade point average, communication skills, personal qualities such as maturity and career goals, and a personal interview.

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Curriculum

The Education Committee of the AAMD recognizes this educational program as a formal education program in medical dosimetry. The curriculum meets or exceeds the curriculum for a medical dosimetry program as published by the AAMD. The graduate may be eligible to take the certification examination administered by the Medical Dosimetrist Certification Board (MDCB).

Course Hours
HS 4100 Issues in Health Care Ethics 1
HS 4101 Diversity and Cultural Competence 1
MD 4300 Introduction to Medical Dosimetry 3
MD 4301 Medical Dosimetry Physics I 3
MD 4302 Brachytherapy Dosimetry 3
MD 4303 Research and Design Statistics I 3
MD 4305 Medical Dosimetry Physics II 3
MD 4306 Research Design and Statistics II 3
MD 4309 Interstitial and Intracavitary Dosimetry 2.5
MD 4404 Clinical Education I 4
MD 4507 Clinical Education II 5
MD 4508 External Beam Dosimetry: Principles and Calibrations 5
MD 4710 Clinical Education III 7
RT 4101 Radiation Safety and Protection 1
RT 4102 Anatomy for Radiation Oncology 1
RT 4104 Aspects of Radiation Oncology 1
RT 4200 Orientation to Radiation Oncology 2
RT 4203 Oncologic Pathology 2
RT 4210 Radiation Biology 2
RT 4211 Clinical Radiation Oncology I 2
RT 4222 Clinical Radiation Oncology II 2
Total 56.5

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Course Descriptions

Admission to the program is the sole prerequisite for the following courses: MD 4300, MD 4301, MD 4302, MD 4303, MD 4404, RT 4101, RT 4102, RT 4104, RT 4200, and RT 4203.

HS 4100 Issues in Health Care Ethics (1 semester credit hour)
This course content is designed to establish a foundation and set parameters of professional practice for health care professionals. The emphasis will be on developing the background for the resolution of ethical dilemmas through ethical reasoning, ethical obligations in health professional-patient relationships and just allocation of scarce health care resources.

HS 4101 Diversity and Cultural Competence (1 semester credit hour)
This course content is designed to create an awareness of ethnocentrism and a beginning understanding of cultural similarities and diversity. It provides the student with knowledge of the concepts of cultural relativity, cultural integration, and variation in cultural values, organization and institutions.

MD 4300 Introduction to Medical Dosimetry (3 semester credit hours)
This course is an introduction to medical dosimetry techniques at M. D. Anderson. Includes treatment charts, patient information flow, and basic and irregular field calculations.

MD 4301 Medical Dosimetry Physics I (3 semester credit hours)
This course teaches basic theories and calculations for radiation oncology.

MD 4302 Brachytherapy Dosimetry (3 semester credit hours)
This course teaches the physics of brachytherapy. Includes source characteristics, dosimetry systems, and dose calculations.

MD 4303 Research and Design Statistics I (3 semester credit hours)
This course is an introduction to basic research concepts and statistics. Development of a project begins.

MD 4305 Medical Dosimetry Physics II (3 semester credit hours)
This course is a continuation of MD 4301 that teaches basic theories and calculations for radiation oncology. Prerequisite: MD 4301

MD 4306 Research Design and Statistics II (3 semester credit hours)
This course is a continuation of MD 4303, with projects finalized. Prerequisite: MD 4303

MD 4309 Interstitial and Intracavitary Dosimetry (2.5 semester credit hours)
This is a laboratory course teaching brachytherapy treatment planning. Prerequisite: MD 4302

MD 4404 Clinical Education I (4 semester credit hours)
This course is supervised in a clinical practice in basic medical dosimetry and orientation to radiation oncology.

MD 4507 Clinical Education II (5 semester credit hours)
This course is supervised in a clinical practice in advanced medical dosimetry techniques. Prerequisite: MD 4306

MD 4508 External Beam Dosimetry: Principles and Calibrations (5 semester credit hours)
This is a continuation of MD 4301 and MD 4305 that teaches basic theories and calculations for radiation oncology. Prerequisite: MD 4301, 4305

MD 4710 Clinical Education III (7 semester credit hours)
This course is a minimally supervised clinical practice in advanced medical dosimetry techniques. Prerequisite: MD 4507

RT 4101 Radiation Safety and Protection (1 semester credit hour)
This course requires the student to demonstrate a detailed understanding of atomic structure, types of ionizing radiation, radiation detection devices, units of measurement, personal and public radiation safety practices and dose limitations from brachytherapy sources and external beam radiation devices. The course identifies radiation regulatory and advisory agencies and the specific requirements of each.

RT 4102 Anatomy for Radiation Oncology (1 semester credit hour)
This course presents each student with an anatomical study of the human body in topographical, sagittal, transverse and coronal planes. Anatomic changes in response to disease are discussed.

RT 4104 Aspects of Radiation Oncology (1 semester credit hour)
This course presents the student with psych-social aspects of oncologic patient care. Topics include: thanatology and bereavement, body image and emotions in illness and treatment, concepts of aging and pain control. Additionally, students are required to identify the role of the health care professional in caring for the palliative patient, demonstrate appropriate professional communication skills and resume writing and interviewing skills.

RT 4200 Orientation to Radiation Oncology (2 semester credit hours)
This course provides the student with an overview of radiation therapy and its role in disease management. The practice standards and code of ethics governing the radiation therapist are presented. Trends in cancer epidemiology and etiology are discussed. Clinical and didactic expectations are identified. Students are required to select a specific radiotherapeutic topic and create a professional paper, poster or presentation.

RT 4203 Oncologic Pathology (2 semester credit hours)
This course presents concepts underlying various pathologic processes within the human body, focusing on the development of benign and malignant neoplasms. Topics include the pathogenesis of disease, mechanisms of development, inflammation, immunopathology and genetic development of neoplasms. Students are required to describe the relationship of cellular differentiation as it relates to tumor stage and grade.

RT 4210 Radiation Biology (2 semester credit hours)
This course presents the students with cellular, subcellular and tissue biology. The course requires the students to discriminate between types of cellular damage caused by ionizing radiation. Additionally, students are exposed to proliferation kinetics, fractionated radiotherapy, acute and chronic effects of radiation on human cells and body systems, principles of linear energy transfer and relative biologic effectiveness and the impact of radiosensitizers and radioprotectors on patient treatment. Prerequisite: RT 4203

RT 4211 Clinical Radiation Oncology I (2 semester credit hours)
An in-depth study of multidisciplinary treatment of the cancer patient from the clinician's viewpoint. Students are required to master concepts specific to site-specific disease including: histopathology, etiologic and epidemiology factors, detection and diagnosis, tumor stage and grade, routes of metastases, dose fractionation and prognostic factors. This course is designed to approach each cancer type by anatomic system addressing treatment factors with increasing degrees of complexity. Prerequisite: RT 4203

RT 4222 Clinical Radiation Oncology II (2 semester credit hours)
Continuation of RT 4211. Prerequisite: RT 4211

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