Degrees and Certificates
The School of Health Professions offers degree and certificate programs that are listed below. Students must be accepted into one of these programs before entering the School of Health Professions. If students desire to change programs, they must withdraw from the School of Health Professions and re-apply.
See admission criteria for more information on each program.
Graduate Degrees
- Diagnostic Cytology, Tracks in Entry-Level and Advanced
- Diagnostic Genetics and Genomics, Emphases in Cytogenetics and Cytogenomics and Molecular Genetics and Genomics
- Medical Dosimetry
- Radiologic Sciences, Emphases in Administrative Leadership, Educational Leadership and Medical Imaging Informatics
Undergraduate Degrees
Radiologic Sciences Programs
The Radiologic Sciences Programs do not have a common core curriculum. Refer to each program section for specific course listings.
- Diagnostic Imaging
- Emphases in Advanced Modalities: Computed Tomography, Computed Tomography with Vascular Interventional and Magnetic Resonance Imaging
- Emphases in Education and Management
- Diagnostic Medical Sonography
- Medical Dosimetry
- Radiation Therapy
Laboratory Sciences Programs
The Laboratory Sciences programs admit students at the Junior- or Senior-level. Students entering at the Junior-level complete a two-year curriculum consisting of laboratory and health science courses to build their foundation, and program-specific courses to develop expertise in their program. Students entering at the Senior-level have a one-year curriculum consisting of senior-year program-specific courses.
Complete curricula are listed in each program section.
Hybrid and Online Programs
Flexible options include part-time, full-time and hybrid online enrollment. Contact the respective program faculty for more information on course listings for each program.
- Cytogenetic Technology: part- or full-time online
- Diagnostic Imaging, Emphases in Education and Management: part- or full-time hybrid
- Healthcare Analytics and Advocacy: full-time online
Certificates
- Advanced Technical Certificate in Mammography
- Post-Baccalaureate Certificate in Molecular Genetic Technology
Program Accreditations
CAAHEP
- Diagnostic Cytology through July 15, 2028
JRCERT
- Diagnostic Imaging Radiography through September 2027
- Diagnostic Imaging MRI through July 2030
- Medical Dosimetry through June 2030
- Radiation Therapy through March 2032
NAACLS
- Cytogenetic Technology (pdf) through April 30, 2031
- Histotechnology (pdf) through April 30, 2032
- Medical Laboratory Science (pdf) through October 31, 2030
- Molecular Genetic Technology (pdf) through April 30, 2028
Graduate Degrees
Master of Science in DIAGNOSTIC CYTOLOGY
The Master of Science in Diagnostic Cytology program is poised to transform cytology education nationally. While aligned with CAAHEP’s new accreditation standards, the program introduces a forward-thinking, organ-system, competency-based curriculum recognized as best practice in medical education. To address workforce gaps and evolving clinical needs, the curriculum incorporates overlapping Pathology Competencies for Medical Education (PCME) and essential elements of Health Systems Science, preparing graduates for patient-facing roles in modern healthcare.
Degree Offered
Master of Science in Diagnostic Cytology
Program Administration
Program Director Catherine Bammert, Ph.D.
Associate Program Director Katie Jervis, Dr.P.H.
Executive Advisor Wendong Yu, M.D., Ph.D.
Program Information
The Diagnostic Cytology Program will offer two tracks to serve the greatest depth and breadth of learners.
The Entry-Level Track is designed for individuals who hold a bachelor’s degree in biology, related science, or a health science field but lack knowledge or experience in cytology. Students in this track will be enrolled full-time, completing 44 semester credit hours over 15 months. The curriculum for the Entry-Level Track will be delivered in a face-to-face format on the School of Health Professions campus in Houston, TX. Supervised clinical educational experiences, including clinical rotations, will occur at approved clinical affiliate sites.
The Advanced Track is designed for ASCP-certified cytologists who hold a bachelor’s degree, graduated from a CAAHEP-accredited cytology program in the United States, and are ASCP-certified practicing cytologists. Many practicing cytologists, especially those working in reference labs, have limited exposure to non-gynecological cytology and molecular diagnostics since initial training. To address this gap, the Advanced-Level Track emphasizes non-gyn cytology, ancillary testing, and advanced topics such as molecular cytopathology, digital pathology, and clinical lab management to support career advancement. This part-time, hyflex/hybrid program totals 30 credit hours.. Students may request an increased credit load with Program Director approval.
Mission
The Program in Diagnostic Cytology, in concert with the mission and vision of UT MD Anderson, is committed to the education of technically and academically competent graduates prepared to meet the immediate and future needs of the cytology profession.
Goals
Upon completion of UT MD Anderson Cancer Center’s Master of Science in Diagnostic Cytology, graduates will be able to perform the following:
- Evaluate gynecologic, non-gynecologic, and fine needle aspiration samples to determine specimen adequacy and identify cellular changes associated with the spectrum of disease (i.e. normal, inflammatory, infectious, reactive, treatment changes, pre-malignant and malignant changes). (C3, P3)
- Proficiently screen a minimum average of 7 cervicovaginal slides per hour (or full-slide equivalents per hour when performing computer-assisted reviews). (C3, P3)
- Demonstrate the ability to appropriately triage specimens for downstream ancillary testing, including immunohistochemical staining, immunocytochemical staining, special staining, molecular genetic testing, flow cytometric analysis, microbiology studies, cytogenetic studies, renal biopsies. (C3, P3)
- Proficiently perform the rapid on-site adequacy evaluations (ROSE) on fine needle aspiration biopsy specimens and touch preparations. (P3)
- Utilize the microscope, computer-assisted screening systems and digital imaging technologies (telecytology / telepathology / WSI) to systematically evaluate cytology samples and render an accurate diagnosis. (C3, P3)
- Under the supervision of a pathologist, demonstrate the ability to perform the gross examination of small biopsy specimens (Level I & II) and appropriately triage the sample for tissue processing. (C3, P3)
- Apply quality control and quality assurance practices to reduce errors, improve processes, ensure the quality and timeliness of care, and contain healthcare costs. (C3)
- Utilize Health Information Systems (i.e. Electronic Health Record, Laboratory Information System) to view patient review patient histories, enter results, appropriately triage and sign out cases. (C3)
- Critically review and evaluate medical literature to determine its reliability, clinical utility and relevance to clinical cytopathology practices and patient care. (C3)
- Defend the importance of professionalism and complying with ethical codes of conduct in educational endeavors, clinical practice and scholarly activities. (A2)
- Defend the value of using essential soft skills (communication, teamwork, creativity, adaptability, problem-solving, work ethic, critical thinking and conflict management) to optimize and improve the performance of the healthcare team. (A3)
- Correlate cytomorphology with knowledge in Molecular Pathology, Genomics and Cytogenetics to accurately diagnose diseases and identify targeted immunotherapy &/or chemotherapy options to optimize patient care. (C3)
- Apply knowledge regarding how the pathology of an organ system affects the organ itself, multiple organ systems and the overall function of the patient in the following systems (C3): hematopatholgy, respiratory system, head & neck, oral cavity, salivary glands, GI tract, pancreas, kidney, urinary tract, male reproductive system, female reproductive tract, breast, endocrine system, CNS, body cavities.
- Apply knowledge of disease mechanisms with clinical and anatomic pathology laboratory test results and cytomorphology to facilitate the diagnosis and clinical management of the patient (C3).
- Defend the value of systems thinking and the role that teams play in facilitating patient safety and patient care. (A2)
- Compare and contrast the determinants of health and describe pathology-related diseases often associated with each. (C3)
- Describe how the determinants of health and health inequity adversely impact health outcomes for patients and populations. (C3)
- Discuss the relationship between plain language and health literacy. (C2)
- Discuss how health care professionals can advocate for patients to improve outcomes. (C2)
Goals 1-11 fulfill CAAHEP’s Standards and Guidelines required for the accreditation of educational cytology programs. Goals 12-14 reflect pathology competencies in medical education that overlap with the scope of practice of diagnostic cytology practitioners. Goals 15-19 correlate with the 3rd pillar of medical education, Health Systems Science, which will ensure that diagnostic cytology practitioners “gain an understanding of the role that pathology plays in ensuring safe, equitable, timely and efficient care”.
Student Learning Outcomes
Fulfillment of the program’s mission will be assessed by the degree to which the program achieves the following goals:
Goal 1: Students will be clinically competent.
Student Learning Outcomes
- Students will meet and /or exceed entry-level competencies in cognitive (knowledge), psychomotor (skills), and affective (behavior) learning domains, as defined by the Commission on Accreditation of Allied Health Education Programs CAAHEP and the Cytology Program’s Review Committee (CPRC).
- Students will evaluate conventional and liquid-based Gyn and Non-gyn specimens and identify normal, benign, pre-malignant and malignant cellular changes as well as infectious agents.
- Students will perform specialized automated, semi-automated and manual laboratory techniques.
- Students will demonstrate cytopreparatory skills, including specimen identification, specimen handling / triage, quality control and preventative maintenance, troubleshooting, and staining.
Goal 2: Students will display critical thinking skills.
Student Learning Outcomes
- Students will correlate clinical laboratory testing data with potential disease states.
- Students will consider the differential diagnoses for each case and will render an accurate diagnosis.
- Students will assess the results of quality assurance measures and implement appropriate measures to ensure accuracy.
Goal 3: Students will demonstrate professionalism.
Student Learning Outcomes
- Students will display integrity and professional conduct at all times.
- Students will participate in continuing education initiatives and will cultivate an appreciation for lifelong learning.
- Students will understand and embrace cultural diversity and will develop a strong sense of duty to the healthcare team and the patients they serve.
Goal 4: The program will provide clinical and research laboratories with entry- level cytologists.
Student Learning Outcomes
- Graduates will be valued by the laboratories that employ them.
- Graduates will be satisfied with the didactic, practical and clinical learning experiences provided by the program.
- The program will produce cytologists who possess the knowledge to pass the ASCP Board of Certification exam.
- Program graduates will be employed as cytologists.
Goal 5: Describe how the student learning outcomes for the program will be assessed.
Per SACSCOC and CAAHEP requirements, both tracks of the MS in Diagnostic Cytology will undergo systematic internal and external evaluations, including:
- Student Learning Outcomes Analyses via the Weave Platform: Faculty will define student learning outcomes, assess achievement, and implement improvements. Reports updated annually in Fall and reviewed by academic leadership.
- Explorance® Blue Course Evaluations: Students provide feedback on course content and instruction each semester. Metrics below 3.0/5 require documented improvement strategies.
- CAAHEP Outcomes Benchmarks, including: Credentialing exam pass rate ≥80%, Graduation rate ≥80%, Retention/attrition ≥80%, Graduate & employer satisfaction survey return ≥50%, Job placement ≥75%.
- CPRC Annual Report: Faculty submit yearly report demonstrating compliance with CAAHEP standards and outcomes.
Internal and external tools form a comprehensive assessment plan. Program outcomes will be compiled annually for review and curriculum improvement during the Advisory Board meeting.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Program Admission Requirements
Students will enter the program in the Fall semester of each year. Admission will be on a competitive basis. Meeting the minimum criteria does not guarantee acceptance.
The Office of the Registrar at UTHealth Houston serves as the Registrar for the School of Health Professions.
Applicants to the Entry-Level Track must satisfy the following requirements for admission:
- Hold a Bachelor of Science in Biology or a related science or health science field.
- Test of English as a Foreign Language (TOEFL): Applicants from countries where English is not the native language will be required to submit TOEFL or IELTS scores. Additionally, a grade-by-grade and course-by-course evaluation of foreign degree equivalency must be performed by a UT MD Anderson-approved agency and must meet minimum GPA and course requirements.
- Minimum overall undergraduate GPA of 3.0 on a 4.0 scale and a minimum cumulative science GPA 3.0 on a 4.0 scale.
- Applicants must complete 28 credits of recommended biology, chemistry, or other science courses from the list below within seven years of planned enrollment.
- Biology I & II
- Anatomy and Physiology I & II
- Molecular biology
- Microbiology, clinical microbiology, bacteriology or virology
- Molecular genetics or molecular genetic technology
- Genetics and/or genomics
- Cell biology, cytogenetics or cytogenetic technology
- Histology
- Hematology and Coagulation
- Immunology
- General Chemistry I & II
- Organic Chemistry
- Biochemistry
- · Statistics or precalculus/calculus
- Provide official college transcript(s) from each school attended.
- Submit recommendation forms from three professional references such as a manager, professor or colleague.
- Prior laboratory experience is desired but not required.
Apply online by logging into ApplyUTH and selecting "Graduate MDA" as your school of choice. Pay a non-refundable $65 application fee upon submission of your application.
Applicants to the Advanced Track must satisfy the following requirements for admission:
- Hold a Bachelor of Science and have graduated from a CAAHEP-approved Cytotechnology Program in the United States.
- Hold American Society for Clinical Pathology (ASCP) certification in Cytology [CT(ASCP)] or Specialist in Cytology [SCT(ASCP)].
- Have a minimum of 3 years of full-time experience as a practicing cytologist within the preceding 10 years.
- Minimum overall undergraduate GPA of 3.0 on a 4.0 scale and a minimum cumulative science GPA 3.0 on a 4.0 scale.
- Provide official college transcript(s) from each school attended.
- Submit recommendation forms from three professional references such as a manager, professor or colleague.
Apply online by logging into ApplyUTH and selecting "Graduate MDA" as your school of choice. Pay a non-refundable $65 application fee upon submission of your application.
This is a part-time track with curriculum delivered in a hyflex and hybrid format. Applicants are required to enroll in the courses as outlined in the curriculum map. Applicants may be allowed to increase credit load, contingent upon program director approval.
Graduation
Each Entry-Level Track candidate for a master’s degree must complete the following.
- 44 semester credit hours (SCH) of graduate coursework in the prescribed sequence.
- Successfully complete and present a faculty-approved Capstone Project focused on an area of interest related to diagnostic cytology.
- All of the total SCH required must have been earned at the School of Health Professions.
Each Advanced Track candidate for a master's degree must complete the following:
- 30 semester credit hours (SCH) of graduate coursework in the prescribed sequence
- Successfully complete and present a faculty-approved Capstone Project focused on an area of interest related to diagnostic cytology
- All of the total SCH required must have been earned at the School of Health Professions
Students graduate in December, with Commencement the following August. Upon graduating, students are eligible to take the national certification exam in either molecular biology or cytogenetics administered by the ASCP depending upon the curriculum track for which the student is seeking certification.
Curriculum
An integral part of the curriculum is pursuing laboratory research. Students are required to select and identify their faculty mentors and related research laboratories before the onset of clinical laboratory rotations in the first spring semester. The curriculum includes didactic coursework followed by directed clinical laboratory training at affiliated hospitals and core laboratories. For further details about the curriculum, refer to the Coursework section below or contact the associate program director.
Accreditation
The Diagnostic Cytology programs at the School of Health Professions is accredited and conform their curriculum to the standards published and monitored by CAAHEP..
Affiliations for Clinical Rotation
In consultation with faculty advisors, students identify their mentors and related research laboratories during the first semester of the program. The curriculum includes didactic coursework followed by directed clinical laboratory training in cytology labs at affiliated institutions listed on the Diagnostic Cytology Program page.
Course Listings
Students must maintain an overall 3.0 average to graduate.
The semester-by-semester schedules below include all courses needed to graduate, but the sequence and/or course offerings are subject to change.
Entry-Level Track (44 SCH)
Year 1 (33 SCH)
Fall Semester (12)
DC 6400 Gynecologic Cytopathology (4)
DC 6210 Cytopreparation & Ancillary Techniques (2)
DC 6215 Non-gynecologic Cytopathology I (2)
DC 6410 Frontiers in Molecular Cytopathology I (4)
Spring Semester (13)
DC 6400 Gynecologic Cytopathology (4)
DC 6210 Cytopreparation & Ancillary Techniques (2)
DC 6215 Non-gynecologic Cytopathology I (2)
DC 6410 Frontiers in Molecular Cytopathology I (4)
Summer Semester (8)
DC 6435 Clinical Rotation I (4)
DC 6440 Clinical Rotation II (4)
Year 2 (11 SCH)
Fall Semester (11)
DC 6445 Clinical Rotation II (4)
DC 6300 Capstone (3)
DC 6450 Laboratory Operations & Introduction to Health Systems Science (4)
Advanced Track (30 SCH)
Year 1 (23 SCH)
Fall Semester (8)
DC 6225 Advanced Cytopreparations & Ancillary Techniques (2)
DC 6230 Advanced Non-gynecologic Cytopathology I (2)
DC 6410 Frontiers in Molecular Cytopathology (4)
Spring Semester (7)
DC 6235 Advanced Non-gynecologic Cytopathology II (2)
DC 6510 Advanced Fine-Needle Aspiration Cytolog (5)
Summer Semester (8)
DC 6450 Laboratory Operations & Introduction to Health Systems Sciences (4)
DC 6420 Digital Pathology I (4)
Year 2 (7 SCH)
Fall Semester (7)
DC 6300 Capstone (3)
* Elective (4)
* Choose on of the following:
DC 5415 Frontiers in Molecular Cytopathology II (4)
DC 6455 Clinical Laboratory Leadership & Practice Management I (4)
DC 6425 Digital Pathology (4)
DC 6445 Clinical Rotation II (4) requires instructor approval
Master of Science in DIAGNOSTIC GENETICS AND GENOMICS
The Graduate Program in Diagnostic Genetics and Genomics (GPDGG) concentrates on the development of technical, analytical and interpretive skills in the following key fields.
- Genetics and genomics of hematological malignancies
- Solid tumor genetics and genomics
- Genomics of infectious diseases, and metagenomics
- The human microbiome
- Pre- and Post-natal genetics and genomics
- Human Identity testing
- Bacterial, model organism and human genomics
- Bioinformatics in diagnostic genetics and genomics
Degree Offered
Master of Science in Diagnostic Genetics and Genomics, with tracks in
- Cytogenetics and Cytogenomics
- Molecular Genetics and Genomics
Program Administration
Program Director Peter Hu, Ph.D.
Associate Graduate Program Director Awdhesh Kalia, Ph.D.
Executive Advisor Rajyalakshmi Luthra, Ph.D.
Program Information
Mission
The University of Texas MD Anderson Cancer Center Graduate Program in Diagnostic Genetics and Genomics, in concert with the mission and vision of The University of Texas MD Anderson Cancer Center, is committed to the education of academically outstanding graduates prepared to meet the immediate and future needs of diagnostic genetic laboratories, allied health teaching and genomics and biotechnology enterprise.
Objectives
Newer technologies, affordable and faster human, bacterial, viral and metagenome sequencing and superfast computing capabilities have thrust precision medicine into the national spotlight. A major bottleneck in moving precision medicine from bench to patient management is a relative lack of personnel who can deploy cytogenetic or molecular genomic toolkits, including bioinformatics, to develop new diagnostic methods and generate new insights into disease mechanisms.
Genomic technologies generate an extraordinary volume of data. Bioinformatics is central to the acquisition, storage, analysis and interpretation of data. GPDGG training programs, which include project-based curriculum, diagnostic laboratory rotations, and thesis research, collectively enable development of core competencies in human and infectious disease genomics. GPDGG curriculum is geared towards integrating classroom knowledge on the structure and function of chromosomes and genomes with hands-on experience on using sophisticated tools for the analysis and interpretation of genomic data. The program aims to empower our graduates with demonstrable evidence of applying cutting-edge research leading to the development of new diagnostic tests, new patient management protocols or new insights into disease mechanisms. Consequently, GPDGG graduates enjoy a wide range of career options in:
- Biotechnology and genomic companies in R&D and sales.
- Diagnostic labs within a hospital setting.
- Pharmaceutical industry, including R&D (assay development) and sales.
- Research laboratories, including Lab manager and research associate positions.
- Teaching institutions, including Instructor/Faculty positions.
Selection Process
Admission considers a variety of factors that include:
- Cumulative GPA.
- Science and Math GPA.
- Applicant's prior research experience, personal qualities such as maturity, ethical integrity, ability to handle stressful situations and the applicant's long-term professional goals.
- Reference letters.
- Written test conducted before the interview.
- Assessment scores (taken on the date of the interview).
- Ability to meet the School of Health Professions Nonacademic Technical Standards.
Race, religion, national origin, veteran status, gender, sexual orientation or disability are not factors considered in the selection process
Applicants should begin the application process three to six months before the application deadline to ensure all documents are received and processed by the Office of the Registrar by the due date. Refer to the School of Health Professions How to Apply page for application dates.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Admission to the graduate program is highly competitive. The program accepts an average of approximately 18% of the applicant pool as new students in any given academic year.
Program Admission Requirements
The GPDGG is a full-time two-year program with entry at the post-baccalaureate level and culminating with a Master of Science degree. Application and supporting documents must be submitted in applyUTH.
Applicants to the GPDGG must satisfy the following requirements for admission:
- Educational requirement at a minimum is a bachelor’s degree in biological and biomedical sciences with emphasis on molecular biology, genetics, microbiology, cell biology and bioinformatics courses. Applicants with M.S., Ph.D. or M.D. degrees are encouraged to apply.
- All prerequisite coursework must be from a regionally accredited college or university. Physical education and military science courses are not acceptable for prerequisite credit.
- A minimum GPA of 3.0 on a 4.0 scale is required to be considered for admission. GPA may be evaluated by the following: overall, science and mathematics coursework and the last 60 SCH or combinations of all of the above. Special circumstances may be considered, but at the discretion of the Admissions Committee.
- A minimum of two reference letters are required from individuals who are in a position to evaluate the applicant’s personal attributes and their academic and laboratory skills.
- Personal interviews are conducted on-site or through Zoom. Only out-of-state or international applicants are offered Zoom interviews.
- Test of English as a Foreign Language: Applicants from countries where English is not the native language may be required to take the TOEFL. Refer to the TOEFL section of this catalog.
NOTE: The Graduate Record Examination (GRE) is NOT required for admission.
Prior Coursework and Experience
Coursework or prior work experience in the following areas of study is strongly recommended.
- Bioinformatics
- Cell Biology
- Cytogenetics
- Evolution and Biochemistry
- Genetics and Genomics
- Laboratory and/or research experience in cell biology, molecular biology, cytogenetics, genomics or microbiology
- Microbiology/Bacteriology
- Molecular Biology
- Statistics
- Other relevant coursework or work experience
Graduation
Each candidate for a master’s degree must complete the following.
- A minimum of 46 SCH of coursework
- Presentation of a poster at a state or national conference and/or publication emanating from research work
- The successful defense of a written research thesis
- At least one-third of the total SCH required must have been earned at the School of Health Professions
Students graduate in August, with Commencement also in August. Upon graduation, students are eligible to take the national certification exam in either molecular biology or cytogenetics administered by the ASCP depending upon the curriculum track for which the student is seeking certification.
Curriculum
An integral part of the M.S. curriculum is pursuing laboratory research. Students are required to select and identify their faculty mentors and related research laboratories before the onset of clinical laboratory rotations in the first spring semester. The curriculum includes didactic coursework followed by directed clinical laboratory training at affiliated hospitals and core laboratories. For further details about the curriculum, refer to the Coursework section below or contact the associate program director.
Accreditation
Diagnostic molecular sciences programs at the School of Health Professions are accredited and conform their curriculum to the standards published and monitored by NAACLS.
Affiliations for Clinical Rotation
In consultation with faculty advisors, students identify their mentors and related research laboratories during the first semester of the program. The curriculum includes didactic coursework followed by directed clinical laboratory training in molecular or cytogenetic diagnostic labs at affiliated institutions listed on the Diagnostic Genetics and Genomics Program page.
Clinical and Translational Laboratory Research
The GPDGG aims to make an important contribution to improving health care through applied research. With participating Principal Investigators drawn from several institutions within the Texas Medical Center whose research interests encompass a wide range of research topics, these goals are attainable through collaborative, interdisciplinary and outcome- based clinical research and clinical applications.
Funding Opportunities
Working through the financial aid office of UTHealth, prospective students may be funded through a variety of sources including federal, state and departmental funds. These funds come in the forms of loans, grants and scholarships.
Course Listings
Students must maintain an overall 3.0 average to graduate.
The semester-by-semester schedules below include all courses needed to graduate, but the sequence and/or course offerings are subject to change.
Cytogenetic Genetics and Genomics Track (46 SCH)
Year 1 (20 SCH)
Fall Semester (10)
DG 6250 Clinical Cytogenetics I (2)
DG 6360 Clinical Cytogenetics I (3)
DG 6530 Clinical Cytogenetic Laboratory Techniques (5)
Spring Semester (10)
DG 6521 Clinical Cytogenetics Rotation I (5)
DG 6531 Clinical Cytogenetics Rotation II (5)
Year 2 (26 SCH)
Fall Semester (11)
DG 6201 Advanced Practice I C (2)
DG 6290 Diagnostic Molecular Pathology (2)
DG 6333 Quantitative Research and Biostatistics (3)
DG Advanced Topics or Bioinformatics * (4)
* Choose one of the following options:
Option 1
DG 6470 Advanced Topics and Case Studies in Clinical Cytogenetics (4)
Option 2
DG 6110 Bioinformatics in Diagnostic Genetics Lab (1)
DG 6320 Bioinformatics in Diagnostic Genetics (3)
Spring Semester (9)
DG 6240 Abnormal Case Studies and Comprehensive Review (2)
DG 6701 Advanced Practice II C (7)
Summer Semester (6)
DG 6100 Clinical Research Seminar (1)
DG 6501 Advanced Practice III (5)
Molecular Genetics and Genomics Track (46 SCH)
Year 1 (22 SCH)
Fall Semester (12)
DG 6110 Bioinformatics in Diagnostic Genetics Lab (1)
DG 6181 Advanced Molecular Biology and Techniques (1)
DG 6280 Concepts in Molecular Diagnostics (2)
DG 6320 Bioinformatics in Diagnostic Genetics I (3)
DG 6510 Advanced Diagnostic Molecular Laboratory Techniques (5)
Spring Semester (10)
DG 6330 Clinical Molecular Rotation I (3)
DG 6340 Bioinformatics in Diagnostic Genetics II (3)
DG 6471 Clinical Molecular Rotation II (4)
Year 2 (24 SCH)
Fall Semester (9)
DG 6290 Diagnostic Molecular Pathology (2)
DG 6333 Quantitative Research and Biostatistics (3)
DG 6401 Advanced Practice I (4)
Spring Semester (9)
DG 6901 Advanced Practice II (9)
Summer Semester (6)
DG 6100 Clinical Research Seminar (1)
DG 6501 Advanced Practice III (5)
Master of Science in MEDICAL DOSIMETRY
The program provides a Master of Science in Medical Dosimetry specifically designed for licensed radiation therapists in active practice. These students are allowed the convenience of completing their theoretical coursework online, offering flexibility with day or evening schedules, while fulfilling their clinical education requirements in medical dosimetry at their workplace. Although there will be only limited synchronous meetings with students concerning their didactic coursework, all examinations are proctored face-to-face at the clinical setting where the student is assigned. The clinical education curriculum and prerequisites are consistent for all students regardless of their clinical sites. In instances where the student is also employed as a radiation therapist at the clinical site where they undergo their clinical education, it is essential to maintain a clear separation between their clinical education hours and working hours.
Degree Offered
Master of Science in Medical Dosimetry
Program Administration
Program Director Mahsa Dehghanpour, Ed.D.
Associate Program Director Jamie Baker, Ph.D.
Executive Advisor George Perkins, M.D.
Program Information
Mission
To provide high-quality didactic and technologically advanced clinical education in Medical Dosimetry and to graduate professional practitioners who are valued by radiation oncology employers, display excellent treatment planning and assessment skills, and remain active in the professional community and learning throughout their careers.
Vision
We shall be the premier educational program in medical dosimetry by providing innovative curricular, clinical and continuing education services to the University of Texas MD Anderson Cancer Center, the State of Texas and the world.
Goals and Student Learning Outcomes
Goal 1. Students will be clinically competent.
Student Learning Outcomes
- Students will produce treatable plans.
- Students will demonstrate understanding of basic science concepts required for site-specific treatment planning.
Goal 2. Students will display critical thinking skills.
Student Learning Outcomes
- Students will correct radiation errors.
- Students will adequately respond to challenges about the optimal nature of their treatment plans.
- Students will show the ability to perform multiple tasks promptly.
Goal 3. Students will demonstrate professionalism.
Student Learning Outcomes
- Students display professional conduct.
- Students demonstrate lifelong learning.
- Students display understanding of their professional codes of ethics.
- Students will understand cultural diversity.
Goal 4. Students will display effective communication skills.
Student Learning Outcomes
- Students will demonstrate written communication skills.
- Students will demonstrate oral communication skills.
Goal 5. The program will provide the community with entry-level medical dosimetrists.
Student Learning Outcomes
- Employers will be satisfied with program graduates' performance as medical dosimetrists.
- Graduates will be satisfied with the learning experience provided by the program.
- The program will produce medical dosimetrists capable of becoming certified.
- Admitted applicants will complete the program.
- Program graduates will be employed as Medical Dosimetrists.
- Students will be satisfied with program courses and instructors.
Objectives
The MS Program in Medical Dosimetry is designed to prepare students with a background in radiation therapy for a career in medical dosimetry. This intensive four-semester Master of Science in Medical Dosimetry is composed of didactic courses and clinical education each semester. Didactic courses are offered fully online asynchronously, and clinical education is conducted in an affiliated clinic in a face-to-face or hybrid format under the supervision of board-certified medical physicists and board-certified medical dosimetrists. The Master of Science degree provides opportunities for its graduates to work in a variety of settings, including clinical medical dosimetry, research, education, and leadership.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Program Admission Requirements
The School of Health Professions at MD Anderson offers a Master of Science in Medical Dosimetry. Students enter the program in January of each year. Admission is on a competitive basis with a minimum overall GPA of 3.0 on a 4.0 scale. Meeting the minimum criteria does not guarantee acceptance.
The Office of the Registrar at UTHealth Houston serves as the Registrar for the School of Health Professions. Application and supporting documents must be submitted in applyUTH.
Applicants to the Master of Science in Medical Dosimetry program must satisfy the following requirements for admission:
- Be a practicing radiation therapist with an ARRT license in Radiation Therapy.
- Must obtain a letter of support from their employer that includes support of clinical education and adjusting work hours, if applicable.
- Educational requirement at a minimum is a bachelor’s degree from an accredited institution.
- Official transcripts from every institution attended.
- Minimum overall undergraduate GPA of 3.0 on a 4.0 scale is required for admission consideration.
- All prerequisite coursework must be completed prior to the start of the program and come from a regionally accredited college or university to include the following with a grade of C or better.
- General Physics I and II (8 SCH)
- Anatomy and Physiology I and II (8 SCH)
- Calculus I and II (6 SCH)
- Have completed the following courses as an undergraduate; otherwise, the courses must be completed during the program:
- Radiobiology
- Clinical Radiation Oncology
- Pathophysiology
- Submit three professional recommendation forms from three professional references (manager, professor, colleague, etc.).
- Submit a resume to include education, work history and research experience.
- Submit a 750-word statement of purpose outlining their goals for pursuing a graduate degree in Medical Dosimetry.
- Test of English as a Foreign Language: Applicants from countries where English is not the native language may be required to take the TOEFL. Refer to the TOEFL section of this catalog.
- Admissions interview and mathematics assessment given to invited competitive applicants.
NOTE: The Graduate Record Examination (GRE) is NOT required for admission.
Graduation
Each candidate for a master’s degree must complete the following.
- 30 SCH of graduate coursework, all of which must be earned at the School of Health Professions.
- Successful presentation of a research paper in the area of interest in radiation oncology.
Curriculum
The Master of Science degree in Medical Dosimetry is a four-semester program built on a cohort learning model. The cohort consists of applicants with a radiation therapy background. The program consists of 12 SCH of clinical education completed in affiliated clinical sites under the supervision of board-certified medical dosimetrists or board-certified medical physicists. The program consists of 18 SCH of didactic courses, including research methods. Students are required to research a topic in radiation oncology and present it to the faculty.
Accreditation
The program is accredited by and has conformed its curriculum to the standards and guidelines published and monitored by the JRCERT.
Affiliations for Clinical Rotation
In consultation with faculty advisors, students identify their mentors and related research laboratories during the first semester of the program. The curriculum includes didactic coursework followed by directed clinical laboratory training in molecular or cytogenetic diagnostic labs at affiliated institutions listed on the Master's of Medical Dosimetry page.
Funding Opportunities
Working through the financial aid office of UTHealth, prospective students may be funded through a variety of sources including federal, state and departmental funds. These funds come in the form of loans, grants and scholarships.
Course Listings
The semester-by-semester schedules below include all courses needed to graduate, but the sequence and/or course offerings are subject to change.
FALL Admittance Program (30 SCH)
Year 1 (24 SCH)
Fall Semester (9)
MD 5301 Radiation Physics (3)
MD 5302 Radiation Oncology Principles and Practice (3)
MD 5310 Clinical Practicum I (3)
Spring Semester (9)
MD 6301 Brachytherapy for Medical Dosimetrists (3)
MD 6302 Modern Topics in Radiation Oncology (3)
MD 5320 Clinical Practicum II (3)
Summer Semester (6)
MD 6310 Clinical Practicum III (3)
RS 5312 Research Methodology (3)
Year 2 (6 SCH)
Second Fall Semester (6)
MD 6303 Capstone Seminar (3)
MD 6320 Clinical Internship (3)
SPRING Admittance Program (30 SCH)
Year 1 (15 SCH)
Spring Semester (9)
MD 5301 Radiation Physics (3)
MD 5302 Radiation Oncology Principles and Practice (3)
MD 5310 Clinical Practicum I (3)
Summer Semester (6)
MD 5320 Clinical Practicum II (3)
RS 5312 Research Methodology (3)
Year 2 (15 SCH)
Fall Semester (9)
MD 6301 Brachytherapy for Medical Dosimetrists (3)
MD 6302 Modern Topics in Radiation Oncology (3)
MD 6310 Clinical Practicum III (3)
Second Spring Semester (6)
MD 6303 Capstone Seminar (3)
MD 6320 Clinical Internship (3)
Master of Science in RADIOLOGIC SCIENCES
The Graduate Program in Radiologic Sciences offers two pathways, with options to specialize in administrative or educational leadership. The program provides medical imaging, radiation therapy, and medical dosimetry professionals with the knowledge and skills essential for career advancement within health care and higher education.
Using a specialized program of study, learners develop innovative and dynamic leadership skills that they can demonstrate in any administrative or educational position. The interdisciplinary perspective and cross-functional design of the program prepare learners to be successful in handling multifaceted challenges amid increased expectations and constrained resources in health care or higher education.
Degree Offered
Master of Science in Radiologic Sciences, with Emphases in
- Administrative Leadership
- Educational Leadership
- Medical Imaging Informatics
Program Administration
Program Director William Undie, Ed.D.
Associate Graduate Program Director Kevin Clark, Ed.D.
Executive Advisor Aziz Benamar, M.B.A.
Program Information
Mission
The Master of Science program in Radiologic Sciences, in concert with the mission and vision of The University of Texas MD Anderson Cancer Center, is committed to the education of technologically and academically outstanding graduates prepared to meet the immediate and future needs of diagnostic and therapeutic services in radiologic sciences.
Objectives
The emerging health care environment has created pressures that have heightened the need for innovative and dynamic leadership. There is an urgent need for individuals who embody effective and compassionate care in a cost-efficient and integrated health care system. Further, there is a shortage of qualified educators to fill many job positions in the radiologic sciences profession; the situation is expected to escalate in the next decade as vacancy rates increase due to attrition, retirement, industry growth and limited numbers of academic programs. Thus, this leadership program is intended to enhance your knowledge, expand your critical thinking skills and strategically position you for a leadership position in health care and academic environments.
Graduates of the program have a variety of opportunities to serve as:
- Corporate trainer for health care facilities by leading the development and implementation of training programs for employees.
- Director or manager for hospital or outpatient imaging facilities.
- Instructor/Professor for radiologic sciences programs.
- Program director or educational coordinator for radiologic sciences programs.
Goals
The goals of the program are to enhance your ability to:
- Synthesize the knowledge gained from radiologic sciences and other academic disciplines to advance strategic planning and operations in health care or higher education.
- Promote the delivery of quality health care by assuming leadership roles in the radiologic sciences professions and health care system.
- Apply the knowledge acquired from independent, collaborative and interdisciplinary empirical research efforts to improve health care services or higher education.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Program Admission Requirements
Applicants should begin the application process three to six months prior to the application deadline to ensure all documents are received and processed by the Office of the Registrar by the due date. Refer to the School of Health Professions How to Apply page for application dates.
Applicants to the Radiologic Sciences program must satisfy the following requirements for admission:
- Bachelor’s degree from an accredited institution
- Credentialed by the American Registry of Diagnostic Medical Sonography (ARDMS), American Registry of Radiologic Technologists (ARRT), Medical Dosimetrist Certification Board (MDCB) or Nuclear Medicine Technology Certification Board (NMTCB).
- Official college transcript(s) from each school attended.
- Minimum overall undergraduate GPA of 3.0 on a 4.0 scale.
- Undergraduate course in either math, statistics or basic research with a minimum grade of C.
- A 500-word statement of purpose outlining your goals for pursuing a graduate degree in Radiologic Sciences. Must include the following elements.
- The reason for applying to the Administrative or Educational emphasis.
- Describe how this degree program will contribute to advancing your career goals.
- Explain what you have accomplished that demonstrates your initiative and willingness to learn.
- Describe how you will contribute to the program through your research experience.
- Describe your experiences working in teams.
- State other relevant attributes or background you think will assist the admission committee in evaluating your application.
- The School of Health Professions recommendation form completed by three professional references to support the applicant’s leadership ability or potential for success.
- Resume to include education, work history and research experience.
- Test of English as a Foreign Language: Applicants from countries where English is not the native language may be required to take the TOEFL. Refer to the TOEFL section of this catalog.
- Competitive applicants will be invited to an admissions interview
Graduation
Each candidate for a master’s degree must complete the following.
- 30 SCH of graduate coursework.
- A minimum of 45 hours of supervised internship in an area of health care administration or educational leadership.
- Successful presentation and defense of a thesis based on research of a topic related to the area of specialization.
- At least one-third of the total SCH required must have been earned at the School of Health Professions.
Students graduate in August.
Curriculum
The Master of Science degree in Radiologic Sciences is a 5-semester program built on a cohort learning model. The cohort consists of applicants with various backgrounds in the radiologic sciences profession. The program consists of 12 SCH of programmatic core and 18 SCH of specialization classes, including internship and thesis. The first two semesters are focused on completing the programmatic core component while students devote the remaining three semesters to their program specialty and thesis project.
Accreditation
UT MD Anderson is regionally accredited through SACSCOC.
Funding Opportunities
Working through the financial aid office of UTHealth, prospective students may be funded through a variety of sources including federal, state and departmental funds. These funds come in the form of loans, grants and scholarships
Course Listings
The semester-by-semester schedules below include all courses needed to graduate, but the sequence and/or course offerings are subject to change.
Administrative Leadership Track (30 SCH)
Year 1 (12 SCH)
Spring Semester (6)
RS 5310 Fundamentals of Healthcare Systems (3)
RS 5311 Strategic Management and Business Policy (3)
Summer Semester (6)
RS 5312 Research Methodology (3)
RS 5313 Legal and Ethical Fundamentals of Healthcare (3)
Year 2 (18 SCH)
Fall Semester (6)
RS 6311 Healthcare Financial Management (3)
RS 6312 Human Resource Management in Health Professions (3)
Spring Semester (6)
RS 6316 Health Resources and Policy Analysis (3)
RS 6317 Thesis (3)
Summer Semester (6)
Informatics or Coding * (3)
RS 6319 Internship (3)
* Students will choose from the following two options
Option 1
RS 6318 Health Informatics and Technology Management (3)
Option 2
RS 6320 Revenue Cycle Management and Coding Strategies (3)
Educational Leadership Track (30 SCH)
Year 1 (12 SCH)
Spring Semester (6)
RS 5310 Fundamentals of Healthcare Systems (3)
RS 5311 Strategic Management and Business Policy (3)
Summer Semester (6)
RS 5312 Research Methodology (3)
RS 5313 Legal and Ethical Fundamentals of Healthcare (3)
Year 2 (18 SCH)
Fall Semester (6)
RS 6313 Adult Learning and Instruction (3)
RS 6314 Critical Thinking Strategies in Higher Education (3)
Spring Semester (6)
RS 6315 Curriculum Development and Evaluation (3)
RS 6317 Thesis (3)
Summer Semester (6)
Informatics or Accreditation* (3)
RS 6319 Internship (3)
* Students will choose from the following two options
Option 1
RS 6318 Health Informatics and Technology Management (3)
Option 2
RS 6330 Accreditation of Radiologic Science Educational Programs (3)
Medical Imaging Informatics Track (30 SCH)
Year 1 (12 SCH)
Spring Semester (6)
RS 5310 Fundamentals of Healthcare Systems (3)
RS 5311 Strategic Management and Business Policy (3)
Summer Semester (6)
RS 5312 Research Methodology (3)
RS 6318 Health Informatics and Technology Management (3)
Year 2 (18 SCH)
Fall Semester (6)
RS 6321 Image Management and Clinical Engineering (3)
RS 6322 Systems Management (3)
Spring Semester (6)
RS 6317 Thesis (3)
RS 6324 Procurement and Operations (3)
Summer Semester (6)
RS 5313 Legal and Ethical Fundamentals of Healthcare (3)
RS 6125 CIIP Examination Review (3)
RS 6219 Project Management Internship (2)
Undergraduate Degrees
Bachelor of Science in CYTOGENETIC TECHNOLOGY
Cytogenetic technologists study the structure of human chromosomes and the role of specific changes in the diagnosis and monitoring of acquired and inherited abnormalities.
Degree Offered
Bachelor of Science in Cytogenetic Technology
Program Administration
Program Director Jun Gu, M.D., Ph.D.
Associate Program Director Ming Zhao, M.D.
Executive Advisor Guilin Tang, M.D., Ph.D.
Program Information
Mission
The UT MD Anderson Cancer Center Program in Cytogenetic Technology, in concert with the mission and vision of The University of Texas MD Anderson Cancer Center, is committed to the education of technically and academically competent graduates prepared to meet the immediate and future needs of the Cytogenetic Technology profession.
Objectives
- The Cytogenetic Technology program is designed to prepare students to become entry-level clinical cytogenetic technologists. The program provides instruction in all the major areas of clinical cytogenetics, including:
- Cancer cytogenetics.
- Molecular techniques.
- Prenatal cytogenetics.
- The role of specific changes in the diagnosis and monitoring of acquired and inherited abnormalities.
- The structure of human chromosomes.
- Abnormalities of chromosome number and morphology are linked with over 400 syndromes associated with mental retardation and other phenotypic abnormalities. Identification of these chromosomal abnormalities by cytogenetic technologists provides clinicians in prenatal/postnatal clinics with sufficient information to plan for medical complications that may arise from specific gene defects.
- Cancer cytogenetics is a rapidly growing field where the cytogeneticist plays a key role in the diagnosis, prognosis and treatment of both hematological malignancies and solid tumors. World Health Organization (WHO) guidelines require either cytogenetics or molecular genetics for standard workup of leukemias and lymphomas.
- Cytogenetic technologists are leaders in the development of applications for new DNA technologies that are transforming modern-day medicine.
- Cytogenetic technologists have a wide range of career options in cancer centers, pediatric and genetic counseling clinics, chemical industries, biotechnology companies, research laboratories, molecular cytogenetic laboratories, computer imaging sales and development, pathology labs and research and teaching institutions.
Program Admission Requirements
Admission to the program is competitive and holistic. Meeting the minimum requirements does not guarantee acceptance. The full- or part-time Bachelor of Science degree is either a one-year (face-to-face or online) or two-year program (face-to-face) with entry at either the junior or senior level. Students selecting part-time enrollment will complete their degree beyond the designated length of time, depending on course selections each semester. Qualified students are accepted on a rolling basis. Application and supporting documents must be submitted in applyUTH.
Applicants must satisfy the General Requirements for admission as listed in the Admissions section, in addition to a minimum GPA of 2.5 on a 4.0 scale overall and in science and mathematics courses, to be considered for admission. Special circumstances may be considered at the discretion of the Admissions Committee.
Applicants should begin the application process three to six months before the application deadline to ensure all documents are received and processed by the Office of the Registrar by the due date. Refer to the School of Health Professions How to Apply page for application dates.
Enrollment Process
Once accepted into Cytogenetic Technology, enrollment is dependent on factors that include the following:
- Proof of successful assessment of the Texas Success Initiative (TSI). Refer to the TSI section of this catalog.
- Ability to meet the School of Health Professions Nonacademic Technical Standards.
- Proof of current health immunizations.
- Satisfactory completion of a drug screen and background check.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Prerequisites
Several physical education and military sciences are not acceptable for discipline-specific prerequisites.
Texas Core Curriculum
Students must complete the Texas Core Curriculum and prerequisite courses elsewhere before transferring into the School of Health Professions. The courses may be taken at any regionally accredited college/university. Refer to the Texas Core Curriculum section of this catalog.
For the Two-Year Program
Students must complete a minimum of 60 SCH that includes the Texas Core Curriculum (42 SCH) and the following courses:
- 8 SCH in Biological Sciences
- 16 SCH in Chemistry
For the One-Year Program (face-to-face and online)
Students must complete a minimum of 90 SCH that includes the Texas Core Curriculum (42 SCH) and the following courses.
- 16 SCH in Chemistry
- 3 SCH in Microbiology
- 3 SCH in Genetics
- Additional 8 SCH in Biological Sciences
- 11 SCH of upper-level courses
NOTE: International students are NOT eligible for the online option due to U.S. Immigration and Customs Enforcement regulations.
Advanced Placement
The School of Health Professions accepts and/or awards credit through the following examination programs*:
- College-level examination program of the College Board.
- Comprehensive departmental examinations.
- Regionally accredited military training programs.
*Note: The student who is admitted or readmitted will undergo an evaluation process related to awarding course credits, if applicable.
Recommendations from the School of Health Professions’ academic departments are followed regarding minimum score requirements, level of credit and amount of credit to be awarded. Program faculty are consulted to determine if credit recommendations equate to specific School of Health Professions courses. The internal comprehensive departmental examination program provides a local means for establishing knowledge of School of Health Professions course content in areas not covered by the above examination program. Programs may elect to administer examinations that cover material specific to School of Health Professions courses, with the results being reported to the Registrar.
Graduation
Each candidate for a bachelor's degree must complete a minimum of 136 SCH of coursework if admitted into the two-year program or a minimum of 139 SCH of coursework if admitted into the one-year program. Within this requirement, students must complete the following at UT MD Anderson:
- At least 40 SCH of upper-level coursework
- At least 25% of the total required SCH
Students graduate in August. Upon graduation, students are eligible to take the Clinical Cytogenetics Board of Certification exam administered by the ASCP. Check with the program director for application deadlines and exam dates. Upon passing this exam, the student is considered a certified cytogenetic technologist. The awarding of the degree or certificate is not contingent upon a student passing the national certification exam.
Curriculum
This intensive program is composed of a didactic phase followed by directed clinical training at affiliated hospitals and laboratories. During the didactic phase, formal lectures are presented on the principles of medical genetics, molecular and biochemical basis of genetic disease, karyotyping, hematology, clinical cytogenetics and molecular genetic technology. Laboratory sessions coordinated with lectures and covering the fundamentals of diagnostic laboratory procedures are included in the didactic phase. Online students are required to attend one week of on-campus laboratory sessions each semester. Graduates of the program are eligible to take the CG(ASCP) Board of Certification exam
Accreditation
The Cytogenetic Technology Program is accredited and has conformed its curriculum to the standards published and monitored by NAACLS.
Current Affiliations
The Program in Cytogenetic Technology has developed clinical affiliations with leading clinical cytogenetic laboratories in Texas and beyond so that students may develop expertise in a variety of settings and experience the breadth of opportunity available to Cytogenetic Technologists. Clinical experiences in these laboratories offer students the opportunity to achieve competence and confidence in performing a wide variety of cytogenetic procedures on patients’ specimens. Visit the Cytogenetic Technology Program page for a list of current affiliations.
Course Listings
The semester-by-semester schedules below include all courses needed to graduate, but the sequence and/or course offerings are subject to change.
Students Enrolling Part-Time
Part-time enrollment is defined as a minimum of seven semester credit hours each semester. Additionally, not all courses are offered every semester. Therefore, students enrolled part-time should work closely with the Program Faculty in Cytogenetic Technology to complete a degree plan.
Students Enrolling Online
The online flexible options allow working adults to complete a degree in Cytogenetic Technology. Nearly 80% of the content is delivered online, including asynchronously delivered class content. Approximately 20% of the content is gained through direct campus participation. Students have access to online chromosome identification training through KaryoTutor and online course management software 24/7. Lab experience will be gained during a consolidated one-week lab session at the conclusion of each semester.
Two-Year Program (76 SCH)
Junior Year (30 SCH)
Fall Semester (16)
HS 3115 Introduction to Cytogenetics I (1)
HS 3121 Introduction to Hematology (1)
HS 3210 Laboratory Mathematics (2)
HS 3270 Fundamentals of Writing and Critical Thinking (2)
HS 3330 Pathology of Body Fluids (3)
HS 4102 Professionalism and Leadership in Health Care (1)
HS 4300 Pathophysiology for Health Professions (3)
HS 4310 Medical Microbiology (3)
Spring Semester (14)
HS 3120 Introduction to Cytogenetics II (1)
HS 3300 Medical Immunology (3)
HS 3320 Medical Genetics (3)
HS 3333 Statistics (3)
HS 3340 Research Methods (3)
HS 4100 Health Care Ethics (1)
Senior Year (46 SCH)
Fall Semester (15)
CC 4120 Introduction to G-Band Karyotyping (1)
CC 4152 Prenatal Cytogenetics (1)
CC 4250 Clinical Cytogenetics (2)
CC 4280 Independent Research Project I (2)
CC 4530 Basic Laboratory Techniques (5)
GT 4300 Advanced Medical Genetics (3)
HS 4160 Critical Scientific Analysis (1)
Spring Semester (16)
CC 4181 Independent Research Project II (1)
CC 4240 Advanced Cytogenetic Lab Techniques (2)
CC 4251L Clinical Cytogenetics (2)
CC 4320 Special Topics in Genetics (3)
CC 4390 Advanced Topics in Cytogenetics (3)
GT 4330 Genetics of Hematology Malignancies (3)
HS 4110 Molecular Genetics Technology (1)
HS 4161 Seminar in Healthcare (1)
Summer Semester (15)
CC 4210 Molec & Biochem Basis of Genetic Disease (2)
CC 4521 Clinical Cytogenetic Rotation I (5)
CC 4531 Clinical Cytogenetic Rotation II (5)
HS 4371 Management and Education (3)
One-Year Program (49 SCH)
Fall Semester (17)
CC 4120 Introduction to G-Band Karyotyping (1)
CC 4152 Prenatal Cytogenetics (1)
CC 4250 Clinical Cytogenetics (2)
CC 4280 Independent Research Project I (2)
CC 4530 Basic Laboratory Techniques (5)
GT 4300 Advanced Medical Genetics (3)
HS 4102 Professionalism and Leadership in Health Care (1)
HS 4160 Critical Scientific Analysis (1)
HS 4170 Special Topics (1)
Spring Semester (17)
CC 4181 Independent Research II (1)
CC 4240 Advanced Cytogenetic Lab Techniques (2)
CC 4251L Clinical Cytogenetics (2)
CC 4320 Special Topics in Genetics (3)
CC 4390 Advanced Topics in Cytogenetics (3)
GT 4330 Genetics of Hematology Malignancies (3)
HS 4100 Health Care Ethics (1)
HS 4110 Molecular Genetics Technology (1)
HS 4161 Seminar in Healthcare (1)
Summer Semester (15)
CC 4210 Molec & Biochem Basis of Genetic Disease (2)
CC 4521 Clinical Cytogenetic Rotation I (5)
CC 4531 Clinical Cytogenetic Rotation II (5)
HS 4371 Management and Education (3)
Bachelor of Science in DIAGNOSTIC IMAGING - 3-Year Program with Certificate in RADIOGRAPHY
Diagnostic Imaging is a specialty devoted to the study of routine and advanced imaging procedures. The curriculum includes emerging, advanced technologies in Computed Tomography (CT), CT with Vascular Interventional (CT/VI) and Magnetic Resonance Imaging (MRI). The program prepares the student for various careers in hospitals, clinics, education and management.
Certificate Offered
Certificate in Radiologic Sciences
Note: Upon completion of the DI program radiography curriculum (the first two years of the three-year program), students must sit for the examination and certification from the ARRT. To qualify to sit for the ARRT exam, the student must have completed an AA degree or higher prior to the 4th semester of the DI Program.
Degree Offered
Bachelor of Science in Diagnostic Imaging, with Emphases in
- Computed Tomography (CT)
- Computed Tomography with Vascular Interventional (VI)
- Education
- Magnetic Resonance Imaging (MRI)
- Management
Program Administration
Program Director: Education, Management and Radiography Suzieann Bass, Ed.D.
Executive Advisor Aurelio Matamoros, M.D.
Program Information
Mission
The mission of the Diagnostic Imaging Program is to provide the highest quality of education to diagnostic imaging students through formal didactic and state-of-the-art clinical experiences that prepare our students to be diagnostic imaging professionals who are patient care focused, critical thinkers and engaged in lifelong learning.
Vision
We shall be the premier educational program in Diagnostic Imaging by providing innovative curricular, clinical and continuing education services to the diagnostic imaging community and the patients we serve.
Goals
Fulfillment of the program’s mission is assessed by the program’s effectiveness and the degree to which the program achieves the goals and learning outcomes that will enable our students to succeed academically and professionally.
- Develop a patient care focus by providing superior patient care.
- Demonstrate critical thinking skills.
- Adopt a philosophy of lifelong learning through continuing education and professional involvement.
- Embrace the UT MD Anderson core values of caring, integrity and discovery.
- Communicate effectively in a variety of settings.
Objectives
- The radiologic technologist is a prominent member of the health care team focused on the diagnosis and treatment of human disease.
- Radiologic technologists work with ionizing radiation, radiopharmaceuticals, sound waves and magnetic fields to produce medical images in diagnostic imaging or radiology departments of hospitals and medical clinics or free-standing imaging centers.
- The Diagnostic Imaging Program is designed to prepare students for a challenging career in the Radiologic Sciences through formal didactic and state-of-the-art clinical education. Today’s medical practice dictates that technologists have advanced skills in imaging, patient assessment and treatment of specific diseases.
- The program accommodates Bachelor of Science degree-seeking students as follows.
- Those who are working towards initial certification in Radiologic Technology (radiography). These students enter the Diagnostic Imaging Program as sophomores.
- Graduates of an accredited program in radiologic sciences, with acceptable transferable credits, who must submit proof of certification and have completed the required Texas core curriculum. These students enter the Diagnostic Imaging Program during the senior year of their education and complete their degree through the School of Health Professions.
Program Admission Requirements
Admission to the program is competitive and holistic. Meeting the minimum requirements does not guarantee acceptance. Students pursuing a Certificate of Radiography enter at the Sophomore level (for five semesters over 20 months). Students pursuing a Bachelor of Science degree enter either at the Sophomore level (three-year track) or Senior level (one-year track). Application and supporting documents must be submitted in applyUTH.
Applicants must satisfy the General Requirements for admission as listed in the Admissions section in addition to the following:
- A minimum overall GPA of 2.5 on a 4.0 scale. Cumulative and prerequisite GPA are factors for admission.
- Clinical site visit (Certificate Applicants only) 8 hours of clinical site observation at MD Anderson and a clinical site visit evaluation.
- CPR certification through the American Heart Association certification.
- Attend one information session during the year of the application process.
Applicants should begin the application process three to six months before the application deadline to ensure all documents are received and processed by the Office of the Registrar by the due date. Refer to the School of Health Professions How to Apply page for application dates.
Enrollment Process
Once accepted into Diagnostic Imaging, enrollment is dependent on factors that include the following:
- Proof of successful assessment of the Texas Success Initiative (TSI). Refer to the TSI section of this catalog.
- Ability to meet the School of Health Professions Nonacademic Technical Standards.
- Proof of current health immunizations.
- Satisfactory completion of a drug screen and background check.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Program Sequence
Students admitted to the three-year program will do the following:
- Successfully complete the first two years of the program.
- Be eligible to sit for the ARRT(R) exam.
- Upon passing the ARRT(R) exam, students will choose their emphasis from CT, CT/VI, MRI, Education, or Management for the third year of the program.
Prerequisites
Several physical education and military sciences are not acceptable for discipline-specific prerequisites.
Texas Core Curriculum
Students must complete the Texas Core Curriculum and prerequisite courses elsewhere before transferring into the School of Health Professions. The courses may be taken at any regionally accredited college/university. Refer to the Texas Core Curriculum section of this catalog.
For the Certificate in Radiography Program
Students must complete a minimum of 30 SCH of the Texas Core Curriculum*. Within these 30 SCH, Anatomy and Physiology I (4 SCH) must be included.
* Full completion of the 42 SCH of the Texas Core Curriculum is recommended.
For the Three-Year Bachelor’s Program:
Two-Year Certificate in Radiologic Sciences* + Senior Year
Students must complete a minimum of 42 SCH which includes the Texas Core Curriculum (42 SCH) and Anatomy and Physiology I (4 SCH).
* Students entering the program with an associate’s degree are eligible to sit for the ARRT(R) certification after completing the first two years of the program.
Advanced Placement
The School of Health Professions accepts and/or awards credit through the following examination programs*:
- College-level examination program of the College Board.
- Comprehensive departmental examinations.
- Regionally accredited military training programs.
* The student who is admitted or readmitted will undergo an evaluation process related to awarding course credits, if applicable.
Recommendations from the School of Health Professions’ academic departments are followed regarding minimum score requirements, level of credit and amount of credit to be awarded. Program faculty are consulted to determine if credit recommendations equate to specific School of Health Professions courses. The internal comprehensive departmental examination program provides a local means for establishing knowledge of the School of Health Professions course content in areas not covered by the above examination program. Programs may elect to administer examinations that cover material specific to the School of Health Professions courses, with the results being reported to the Registrar.
Graduation
Each candidate for a bachelor's degree must complete a minimum of 125 SCH of coursework. Within this requirement, students must complete the following at UT MD Anderson:
- At least 40 SCH of upper-level coursework.
- At least 25% of the total SCH required must be taken at UT MD Anderson.
Upon completion of the curriculum, students will have demonstrated the professional skills necessary to work with ionizing radiation, radiopharmaceuticals, sound waves and or magnetic fields to produce medical images in diagnostic imaging or radiology departments of hospitals, and medical clinics or freestanding imaging centers.
Students graduate in August. Upon graduation, students are eligible to take the national certification credentialing examination(s) administered by the ARRT in their chosen emphasis(es).
Check with the program director for application deadlines. Upon passing the certification exam(s), the graduate is considered a Registered Technologist (RT). The awarding of the degree is not contingent upon a student passing the national certification exam.
Curriculum
The curriculum meets or exceeds the curriculum recommendations of the American Society of Radiologic Technologists (ASRT). This intensive three-year program is composed of a didactic phase followed by directed clinical training at affiliated hospitals and laboratories.
Accreditation
The Diagnostic Imaging Program is accredited by and has conformed its curriculum to the standards and guidelines published and monitored by the JRCERT.
Current Affiliations
During the clinical phase of instruction, training and supervision are provided in a variety of clinical sites. Visit the Diagnostic Imaging Program page for a list of current affiliations.
Course Listings
The semester-by-semester schedules below include all courses needed to graduate, but the sequence and/or course offerings are subject to change.
Three-Year Radiography Program 83-89 SCH (First Two Years)
All students admitted to the Three-Year Program take the same core Radiography courses the first two years (sophomore and junior years) and choose their emphasis for the third year (senior year).
Three-Year Program (the first two years) (47 SCH)
Sophomore Year (30 SCH)
Fall Semester (12)
DI 2210 Introduction to Radiologic Sciences (2)
DI 2221 Patient Care in Radiologic Sciences (2)
DI 2301 Principles of Radiographic Exposure I (3)
DI 2331 Radiographic Anatomy & Positioning I (3)
HS 3270 Fundamentals of Writing and Critical Thinking (2)
Spring Semester (13)
DI 2261 Clinical Education I (2)
DI 2332 Radiographic Anatomy & Positioning II (3)
DI 2342 Principles of Radiographic Exposure II (3)
DI 3343 Quality Management in Radiology (3)
DI 4201 Radiation Safety and Protection (2)
Summer Semester (5)
DI 2262 Clinical Education II (2)
DI 2333 Radiographic Anatomy & Positioning III (3)
Junior Year (17)
Fall Semester (9)
DI 3334 Radiographic Anatomy & Positioning IV (3)
DI 3360 Clinical Education III (3)
DI 4210 Radiobiology (2)
HS 4102 Professionalism and Leadership in Health Care (1)
Spring Semester (8)
DI 3100 Capstone: Registry Review (1)
DI 3235 Radiographic Anatomy & Positioning V (2)
DI 3361 Clinical Education IV (3)
HS 4100 Issues in Health Care Ethics (1)
HS 4111 Medial Law (1)
Bachelor of Science in DIAGNOSTIC IMAGING - ADVANCED MODALITIES for the 1-Year Program and the Continuation of the 3-Year Program
Diagnostic Imaging is a specialty devoted to the study of routine and advanced imaging procedures. The curriculum includes emerging, advanced technologies in Computed Tomography (CT), CT with Vascular Interventional (VI) and Magnetic Resonance Imaging (MRI). The program prepares the student for various careers in hospitals, clinics, education and management.
Degree Offered
Bachelor of Science in Diagnostic Imaging, with Emphases in
- Computed Tomography (CT)
- Computed Tomography/Vascular Interventional (VI)
- Education
- Magnetic Resonance Imaging (MRI)
- Management
Program Administration
Program Director, Advanced Modality Programs William Undie, Ed.D.
Program Director, Education, Management and Radiography Suzieann Bass, Ed.D.
Associate Program Director, CT, CT/VI and M Claudia Tamara, D.D.S.
Associate Program Director, MRI Saleha Zafar, M.S.
Executive Advisor Aurelio Matamoros, M.D.
Program Information
Mission
The mission of the Diagnostic Imaging Program is to provide the highest quality of education to diagnostic imaging students through formal didactic and state-of-the-art clinical experiences that prepare our students to be diagnostic imaging professionals who are patient care focused, critical thinkers and engaged in lifelong learning.
Vision
We shall be the premier educational program in Diagnostic Imaging by providing innovative curricular, clinical and continuing education services to the diagnostic imaging community and the patients we serve.
Goals
Fulfillment of the program’s mission is assessed by the program’s effectiveness and the degree to which the program achieves the goals and learning outcomes that will enable our students to succeed academically and professionally.
- Develop a patient care focus by providing superior patient care.
- Demonstrate critical thinking skills.
- Adopt a philosophy of lifelong learning through continuing education and professional involvement.
- Embrace the UT MD Anderson core values of caring, integrity and discovery.
- Communicate effectively in a variety of settings.
Objectives
- The radiologic technologist is a prominent member of the health care team focused on the diagnosis and treatment of human disease.
- Radiologic technologists work with ionizing radiation, radiopharmaceuticals, sound waves and magnetic fields to produce medical images in diagnostic imaging or radiology departments of hospitals and medical clinics or free-standing imaging centers.
- The Diagnostic Imaging Program is designed to prepare students for a challenging career in the Radiologic Sciences through formal didactic and state-of-the-art clinical education. Today’s medical practice dictates that technologists have advanced skills in imaging, patient assessment and treatment of specific diseases.
- The program accommodates Bachelor of Science degree-seeking students as follows.
- Those who are working towards initial certification in Radiologic Technology (radiography). These students enter the Diagnostic Imaging Program as sophomores.
- Graduates of an accredited program in radiologic sciences, with acceptable transferable credits, who must submit proof of certification and have completed the required Texas core curriculum. These students enter the Diagnostic Imaging Program during the senior year of their education and complete their degree through the School of Health Professions.
Emphasis in Magnetic Resonance Imaging
Mission
The mission of the Diagnostic Imaging Program MRI Emphasis is to provide the highest quality education to MRI students through formal didactic and state-of-the-art clinical experiences that prepare our students to be MRI professionals who are patient care focused, critical thinkers and engaged in lifelong learning.
Vision
We shall be the premier educational program in MRI by providing innovative curricular, clinical and continuing education services to the diagnostic imaging community and the patients we serve.
Goals
Fulfillment of the program’s mission is assessed by the program’s effectiveness and the degree to which the program achieves the goals and learning outcomes that will enable our students to succeed academically and professionally:
- Students will develop a patient care focus by providing superior patient care.
- Students will demonstrate critical thinking skills in the clinical environment.
- Students will adopt a philosophy of lifelong learning through continuing education and professional development.
- Students will embrace the UT MD Anderson core values of caring, integrity and discovery.
- Students will communicate effectively in a variety of settings.
Program Admission Requirements
Admission to the program is competitive and holistic. Meeting the minimum requirements does not guarantee acceptance. One-Year students pursuing a Bachelor of Science degree enter at the Senior level. Application and supporting documents must be submitted in applyUTH.
Applicants must satisfy the General Requirements for admission as listed in the Admissions section in addition to the following:
- A minimum overall GPA of 2.5 on a 4.0 scale. Cumulative and prerequisite GPA are factors for admission.
- Clinical site visit (Certificate Applicants only) 8 hours of clinical site observation at MD Anderson and a clinical site visit evaluation.
- CPR certification through the American Heart Association certification.
- Attend one information session during the year of the application process.
Applicants should begin the application process three to six months before the application deadline to ensure all documents are received and processed by the Office of the Registrar by the due date. Refer to the School of Health Professions How to Apply page for application dates.
Enrollment Process
Once accepted into Diagnostic Imaging, enrollment is dependent on factors that include the following:
- Proof of successful assessment of the Texas Success Initiative (TSI). Refer to the TSI section of this catalog.
- Ability to meet the School of Health Professions Nonacademic Technical Standards.
- Proof of current health immunizations.
- Satisfactory completion of a drug screen and background check.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Prerequisites
Several physical education and military sciences are not acceptable for discipline-specific prerequisites.
Texas Core Curriculum
Students must complete the Texas Core Curriculum and prerequisite courses elsewhere prior to transferring into the School of Health Professions. The courses may be taken at any regionally accredited college/university. Refer to the Texas Core Curriculum section of this catalog.
For the One-Year Bachelor’s Program
All students must complete a minimum of 54 SCH that includes the Texas Core Curriculum (42 SCH) and an additional 12 SCH. Within these 54 SCH, Anatomy and Physiology I (4 SCH) must be included*.
* Students with a minimum of 30 SCH may apply for the Education or Management part-time option.
Students must be certified by:
- The ARDMS, ARRT or the NMTCB if applying to the MRI emphasis.
- The ARRT in radiography (R), radiation therapy (T) or nuclear medicine (N), or the NMTCB if applying to the CT emphasis.
- The ARRT(R) if applying to the CT with VI emphasis.
Advanced Placement
The School of Health Professions accepts and/or awards credit through the following examination programs*.
- College-level examination program of the College Board
- Comprehensive departmental examinations
- Regionally accredited military training programs
* The student who is admitted or readmitted will undergo an evaluation process related to awarding course credits, if applicable.
Recommendations from the School of Health Professions’ academic departments are followed regarding minimum score requirements, level of credit and amount of credit to be awarded. Program faculty are consulted to determine if credit recommendations equate to specific School of Health Professions courses. The internal comprehensive departmental examination program provides a local means for establishing knowledge of the School of Health Professions course content in areas not covered by the above examination program. Programs may elect to administer examinations that cover material specific to the School of Health Professions courses, with the results being reported to the Registrar.
Graduation
Each candidate for a bachelor's degree must complete a minimum of 125 SCH of coursework. Within this requirement, students must complete the following at UT MD Anderson:
- At least 40 SCH of upper-level coursework.
- At least 25% of the total SCH required must be taken at UT MD Anderson.
Upon completion of the curriculum, students will have demonstrated the professional skills necessary to work with ionizing radiation, radiopharmaceuticals, sound waves and/or magnetic fields to produce medical images in diagnostic imaging or radiology departments of hospitals, and medical clinics or freestanding imaging centers.
Students graduate in August. Upon graduation, students are eligible to take the national certification credentialing examination(s) administered by the ARRT in their chosen emphasis(es).
Check with the program director for application deadlines. Upon passing the certification exam(s), the graduate is considered a Registered Technologist (RT). The awarding of the degree is not contingent upon a student passing the national certification exam.
Curriculum
The curriculum meets or exceeds the curriculum recommendations of the American Society of Radiologic Technologists (ASRT). This intensive three-year program is composed of a didactic phase followed by directed clinical training at affiliated hospitals and laboratories.
Accreditation
The Diagnostic Imaging Program is accredited by and has conformed its curriculum to the standards and guidelines published and monitored by the JRCERT.
Current Affiliations
During the clinical phase of instruction, training and supervision are provided in a variety of clinical sites. Visit the Diagnostic Imaging Program page for a list of current affiliations.
Course Listings for the Three-Year Advanced Modalities Senior Year
The semester-by-semester schedules below include all courses needed to graduate, but the sequence and/or course offerings are subject to change.
All students admitted to the three-year program choose an emphasis for their third (senior) year.
CT Track
of the Three-Year Program (Senior Year) (36 SCH)
Fall Semester (12)
DI 4300 Research Techniques in Radiologic Sciences (3)
DI 4351 CT Physics I (3)
DI 4352 CT Procedures of the Nervous System (3)
DI 4393 CT Internship I (3)
Spring Semester (12)
DI 4301 Research Project (3)
DI 4353 CT Physics II (3)
DI 4354 CT of the Chest, Abdomen & Pelvis (3)
DI 4394 CT Internship II (3)
Summer Semester (12)
DI 4355 Special Topics in CT & VI (3)
DI 4356 CT of the Extremities (3)
DI 4357 CT Comprehensive Review (3)
DI 4395 Internship III (3)
VI Track
of the Three-Year Program (Senior Year) (42 SCH)
Fall Semester (12)
DI 4300 Research Techniques in Radiolgoic Sciences (3)
DI 4351 CT Physics I (3)
DI 4352 CT of the Nervous System (3)
DI 4393 CT Internship I (3)
Spring Semester (15)
DI 4301 Research Project (3)
DI 4353 CT Physics II (3)
DI 4354 CT of the Chest, Abdomen & Pelvis (3)
DI 4358 Vascular/Non-Vascular Interventional Procedures (3)
DI 4394 CT Internship II (3)
Summer Semester (15)
DI 4355 Special Topics in CT & VI (3)
DI 4356 CT of the Extremities (3)
DI 4357 CT Comprehensive Review (3)
DI 4359 VI Comprehensive Review (3)
DI 4395 CT Internship III (3)
MRI Track
of the Three-Year Program (Senior Year) (36 SCH)
Fall Semester (12)
DI 4300 Research Techniques in Radiologic Sciences (3)
DI 4361 MRI Physics I (3)
DI 4364 MRI Procedures I (3)
DI 4390 MRI Internship I (3)
Spring Semester (12)
DI 4301 Research Project (3)
DI 4363 MRI Physics II (3)
DI 4366 MRI Procedures II (3)
DI 4391 MRI Internship II (3)
Summer Semester (12)
DI 4362 MRI Procedures III (3)
DI 4365 Special Topics/Future Directions in MRI (3)
DI 4367 MRI Comprehensive Review (3)
DI 4392 MRI Internship III (3)
Course Listings for the One-Year Advanced Modalities Program
The semester-by-semester schedules below include all courses needed to graduate, but the sequence and/or course offerings are subject to change.
CT One-Year Program (41 SCH)
Fall Semester (15)
DI 4300 Research Techniques in Radiologic Sciences (3)
DI 4351 CT Physics I (3)
DI 4352 CT of the Nervous System (3)
DI 4393 CT Internship I (3)
HS 3270 Fundamentals of Writing and Critical Thinking (2)
HS 4102 Professionalism and Leadership in Health Care (1)
Spring Semester (13)
DI 4301 Research Project (3)
DI 4353 CT Physics II (3)
DI 4354 CT of the Chest, Abdomen & Pelvis (3)
DI 4394 CT Internship II (3)
HS 4100 Issues in Health Care Ethics (1)
Summer Semester (13)
DI 4355 Special Topics in CT & VI (3)
DI 4356 CT of the Extremities (3)
DI 4357 CT Comprehensive Review (3)
DI 4395 CT Internship III (3)
HS 4111 Medical Law (1)
VI One-Year Program (47)
Fall Semester (15)
DI 4300 Research Techniques in Radiologic Sciences (3)
DI 4351 CT Physics I (3)
DI 4352 CT of the Nervous System (3)
DI 4393 CT Internship I (3)
HS 3270 Fundamentals of Writing and Critical Thinking (2)
HS 4102 Professionalism and Leadership in Health Care (1)
Spring Semester (16)
DI 4301 Research Project (3)
DI 4353 CT Physics II (3)
DI 4354 CT of the Chest, Abdomen & Pelvis (3)
DI 4358 Vascular/Non-Vascular Interventional Procedures (3)
DI 4394 CT Internship II (3)
HS 4100 Health Care Ethics (1)
Summer Semester (16)
DI 4355 Special Topics in CT & VI (3)
DI 4356 CT of the Extremities (3)
DI 4357 CT Comprehensive Review (3)
DI 4359 VI Comprehensive Review (3)
DI 4395 Internship III (3)
HS 4111 Medical Law (1)
MRI One-Year Program (41 SCH)
Fall Semester (16)
DI 4300 Research Techniques in Radiologic Sciences (3)
DI 4361 MRI Physics I (3)
DI 4364 MRI Procedures I (3)
DI 4390 MRI Internship I (3)
HS 3270 Fundamentals of Writing and Critical Thinking (2)
HS 4102 Professionalism and Leadership in Health Care (1)
Spring Semester (13)
DI 4301 Research Project (3)
DI 4363 MRI Physics II (3)
DI 4366 MRI Procedures II (3)
DI 4391 MRI Internship II (3)
HS 4100 Health Care Ethics (1)
Summer Semester (13)
DI 4362 MRI Procedures III (3)
DI 4365 Special Topics/Future Directions in MRI (3)
DI 4367 MRI Comprehensive Review (3)
DI 4392 MRI Internship III (3)
HS 4111 Medical Law (1)
Bachelor of Science in DIAGNOSTIC IMAGING - EDUCATION and MANAGEMENT 1-Year Program and the Continuation of the 3-Year Program
Diagnostic Imaging is a specialty devoted to the study of routine and advanced imaging procedures. The curriculum includes emerging, advanced technologies in Computed Tomography (CT), CT with Vascular Interventional (CT/VI) and Magnetic Resonance Imaging (MRI). The program prepares the student for various careers in hospitals, clinics, education and management.
Degree Offered
Bachelor of Science in Diagnostic Imaging, with Emphases in
- Education
- Management
Program Administration
Program Director: Education, Management and Radiography Suzieann Bass, Ed.D.
Executive Advisor Aurelio Matamoros, M.D.
Program Information
Mission
The mission of the Diagnostic Imaging Program is to provide the highest quality of education to diagnostic imaging students through formal didactic and state-of-the-art clinical experiences that prepare our students to be diagnostic imaging professionals who are patient care focused, critical thinkers and engaged in lifelong learning.
Vision
We shall be the premier educational program in Diagnostic Imaging by providing innovative curricular, clinical and continuing education services to the diagnostic imaging community and the patients we serve.
Goals
Fulfillment of the program’s mission is assessed by the program’s effectiveness and the degree to which the program achieves the goals and learning outcomes that will enable our students to succeed academically and professionally:
- Develop a patient care focus by providing superior patient care.
- Demonstrate critical thinking skills.
- Adopt a philosophy of lifelong learning through continuing education and professional involvement.
- Embrace the UT MD Anderson core values of caring, integrity and discovery.
- Communicate effectively in a variety of settings.
Objectives
- The radiologic technologist is a prominent member of the health care team focused on the diagnosis and treatment of human disease.
- Radiologic technologists work with ionizing radiation, radiopharmaceuticals, sound waves and magnetic fields to produce medical images in diagnostic imaging or radiology departments of hospitals and medical clinics or free-standing imaging centers.
- The Diagnostic Imaging Program is designed to prepare students for a challenging career in the Radiologic Sciences through formal didactic and state-of-the-art clinical education. Today’s medical practice dictates that technologists have advanced skills in imaging, patient assessment and treatment of specific disease.
- The program accommodates Bachelor of Science degree-seeking students as follows.
- Those who are working towards initial certification in Radiologic Technology (radiography). These students enter the Diagnostic Imaging Program as sophomores.
- Graduates of an accredited program in radiologic sciences, with acceptable transferable credits, who must submit proof of certification and have completed the required Texas core curriculum. These students enter the Diagnostic Imaging Program during the senior year of their education and complete their degree through the School of Health Professions.
Program Admission Requirements
Admission to the program is competitive and holistic. Meeting the minimum requirements does not guarantee acceptance. One-Year students pursuing a Bachelor of Science degree enter at the Senior level. Application and supporting documents must be submitted in applyUTH.
Applicants must satisfy the General Requirements for admission as listed in the Admissions section in addition to the following.
- A minimum overall GPA of 2.5 on a 4.0 scale. Cumulative and prerequisite GPA are factors for admission.
- Clinical site visit (Certificate Applicants only) 8 hours of clinical site observation at MD Anderson and a clinical site visit evaluation.
- CPR certification through the American Heart Association certification.
- Attend one information session during the year of the application process.
Applicants should begin the application process three to six months before the application deadline to ensure all documents are received and processed by the Office of the Registrar by the due date. Refer to the School of Health Professions How to Apply page for application dates.
Enrollment Process
Once accepted into Diagnostic Imaging, enrollment is dependent on factors that include the following.
- Proof of successful assessment of the Texas Success Initiative (TSI). Refer to the TSI section of this catalog.
- Ability to meet the School of Health Professions Nonacademic Technical Standards.
- Proof of current health immunizations.
- Satisfactory completion of a drug screen and background check.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Prerequisites
Several physical education and military sciences are not acceptable for discipline-specific prerequisites.
Texas Core Curriculum
Students must complete the Texas Core Curriculum and prerequisite courses elsewhere before transferring into the School of Health Professions. The courses may be taken at any regionally accredited college/university. Refer to the Texas Core Curriculum section of this catalog.
For the One-Year Bachelor’s Program
All students must complete a minimum of 54 SCH that includes the Texas Core Curriculum (42 SCH) and an additional 12 SCH. Within these 54 SCH, Anatomy and Physiology I (4 SCH) must be included*.
* Students with a minimum of 30 SCH may apply for the Education or Management part-time option.
Students must be certified by the ARDMS, ARRT or the NMTCB if applying to the Education or Management emphases.
Advanced Placement
The School of Health Professions accepts and/or awards credit through the following examination programs*:
- College level examination program of the College Board.
- Comprehensive departmental examinations.
- Regionally accredited military training programs.
* The student who is admitted or readmitted will undergo an evaluation process related to awarding course credits, if applicable.
Recommendations from the School of Health Professions’ academic departments are followed regarding minimum score requirements, level of credit and amount of credit to be awarded. Program faculty are consulted to determine if credit recommendations equate to specific School of Health Professions courses. The internal comprehensive departmental examination program provides a local means for establishing knowledge of the School of Health Professions course content in areas not covered by the above examination program. Programs may elect to administer examinations that cover material specific to the School of Health Professions courses, with the results being reported to the Registrar.
Graduation
Each candidate for a baccalaureate degree must complete a minimum of 125 SCH of coursework. Within this requirement, students must complete the following at UT MD Anderson:
- At least 40 SCH of upper-level coursework
- At least 25% of the total SCH required must be taken at UT MD Anderson
Upon completion of the curriculum, students will have demonstrated the professional skills necessary to work with ionizing radiation, radiopharmaceuticals, sound waves and or magnetic fields to produce medical images in diagnostic imaging or radiology departments of hospitals, and medical clinics or freestanding imaging centers.
Students graduate in August. Upon graduation, students are eligible to take the national certification credentialing examination(s) administered by the ARRT in their chosen emphasis(es).
Check with the program director for application deadlines. Upon passing the certification exam(s), the graduate is considered a Registered Technologist (RT). The awarding of the degree is not contingent upon a student passing the national certification exam.
Curriculum
The curriculum meets or exceeds the curriculum recommendations of the American Society of Radiologic Technologists (ASRT). This intensive three-year program is composed of a didactic phase followed by directed clinical training at affiliated hospitals and laboratories.
Accreditation
The Diagnostic Imaging Program is accredited by and has conformed its curriculum to the standards and guidelines published and monitored by the JRCERT.
Current Affiliations
During the clinical phase of instruction, training and supervision are provided in a variety of clinical sites. Visit the Diagnostic Imaging Program page for a list of current affiliations.
Course Listings for the Three-Year Program Senior Year
The semester-by-semester schedules below include all courses needed to graduate, but the sequence and/or course offerings are subject to change.
EDUCATION Track
of the Three-Year Program (Senior Year) (36 SCH)
Fall Semester (9)
DI 4300 Research Techniques in Radiologic Sciences (3)
DI 4313 Education Internship I (3)
DI 4323 Management Skills for New Supervisor (3)
Spring Semester (15)
DI 4301 Research Project (3)
DI 4310 Teaching Strategies in Healthcare Education (3)
DI 4314 Education Internship II (3)
DI 4319 Fiscal Analysis in Health Care (3)
DI 4322 Effective Human Resources Management (3)
Summer Semester (12)
DI 4311 Instructional Design (3)
DI 4315 Issues in Health Care Education (3)
DI 4316 Leadership in Radiologic Sciences (3)
DI 4326 Individual Projects (3)
MANAGEMENT Track
of the Three-Year Program (Senior Year) (36 SCH)
Fall Semester (9)
DI 4300 Research Techniques in Radiolgoic Sciences (3)
DI 4323 Management Skills for New Supervisors (3)
DI 4324 Management Internship I (3)
Spring Semester (12)
DI 4301 Research Project (3)
DI 4319 Fiscal Analysis in Health-Care (3)
DI 4321 Operations Management (3)
DI 4322 Effective Human Resources Management (3)
Summer Semester (15)
DI 4316 Leadership in Radiologic Sciences (3)
DI 4317 Staff Development (3)
DI 4318 Promotional Strategies in Rad Sciences (3)
DI 4320 Current Trends in Health Care Management (3)
DI 4328 Management Internship II (3)
Course Listings for the One-Year Program Senior Year
The semester-by-semester schedules below include all courses needed to graduate, but the sequence and/or course offerings are subject to change.
EDUCATION One-Year Program (41 SCH)
Fall Semester (12)
DI 4300 Research Techniques in Radiologic Sciences (3)
DI 4313 Education Internship I (3)
DI 4323 Management Skills for New Supervisor (3)
HS 3270 Fundamentals of Writing and Critical Thinking (2)
HS 4102 Professionalism and Leadership in Health Care (1)
Spring Semester (16)
DI 4301 Research Project (3)
DI 4310 Teaching Strategies in Healthcare Education (3)
DI 4314 Education Internship II (3)
DI 4319 Fiscal Analysis in Health-Care (3)
DI 4322 Effective Human Resource Management (3)
HS 4100 Issues in Health Care Ethics (1)
Summer Semester (13)
DI 4311 Instructional Design (3)
DI 4315 Issues in Health Care Education (3)
DI 4316 Leadership in Radiologic Sciences (3)
DI 4326 Individual Projects (3)
HS 4111 Medical Law (1)
MANAGEMENT One-Year Program (41 SCH)
Fall Semester (12)
DI 4300 Research Techniques in Radiologic Sciences (3)
DI 4323 Management Skills for New Supervisors (3)
DI 4324 Management Internship I (3)
HS 3270 Fundamentals of Writing and Critical Thinking (2)
HS 4102 Professionalism and Leadership in Health Care (1)
Spring Semester (13)
DI 4301 Research Project (3)
DI 4319 Fiscal Analysis in Health Care (3)
DI 4321 Operations Management (3)
DI 4322 Effective Human Resources Management (3)
HS 4100 Issues in Health Care Ethics (1)
Summer Semester (16)
DI 4316 Leadership in Radiologic Sciences (3)
DI 4317 Staff Development (3)
DI 4318 Promotional Strategies in Radiological Sciences (3)
DI 4320 Current Trends in Healthcare Management (3)
DI 4328 Management Internship II (3)
HS 4111 Medical Law (1)
Bachelor of Science in DIAGNOSTIC MEDICAL SONOGRAPHY
Diagnostic Medical Sonography is a non-invasive imaging modality that uses high-frequency sound waves to produce a dynamic visual image of the internal organs or tissues in the body, including abdominal organs, a developing fetus, male or female reproductive organs and blood flow.
Degree Offered
Bachelor of Science in Diagnostic Medical Sonography
Program Administration
Program Director Hady Abdin, M.D.
Associate Program Director Anca Fumurescu, M.D.
Executive Advisor Aurelio Matamoros, M.D.
Program Information
Mission
The mission of the Diagnostic Medical Sonography Program is to provide the highest quality of education to diagnostic imaging students through formal didactic and state-of-the-art clinical experiences that prepare students to be diagnostic medical sonographers who are focused on patient care, are critical thinkers and are engaged in lifelong learning.
Vision
We shall be the premier educational program in Diagnostic Medical Sonography by providing innovative curricular, clinical and continuing education services to the diagnostic imaging community and the patients we serve.
Goals
Fulfillment of the program’s mission is assessed by the program’s effectiveness and the degree to which the program achieves the goals in which our students will academically and professionally:
- Graduates will develop a patient care focus by providing superior patient care.
- Graduates will adopt a philosophy of lifelong learning through continuing education and professional involvement.
- Graduates will embrace UT MD Anderson values of caring, integrity and discovery.
- Graduates will be able to communicate effectively in a variety of settings.
- Prepare graduates to successfully challenge the ARDMS boards through didactic education and clinical experience.
- Prepare students to be successful in meeting the challenges of being a Sonographer.
- Provide a high-quality education experience for all students.
- Provide tutoring and online tutoring to all students to help ensure their success in the program.
- Provide students with awareness of the significance of continuing education and instill in them the desire to continue their education after graduation.
- Graduate Sonographers to practice Sonography within an ethical and legal framework consistent with the ARDMS and the Society of Diagnostic Medical Sonography (SDMS) standards.
- Graduate Sonographers to use critical thinking to analyze clinical data and current literature as a basis for decision-making in Sonography.
- To prepare competent entry-level sonographers in the cognitive (knowledge), psychomotor (skills) and affective (behavior) learning domains.
Program Admission Requirements
Admission to the program is competitive and holistic. Meeting the minimum requirements does not guarantee acceptance. Students pursuing a Bachelor of Science degree enter at the Junior level. Application and supporting documents must be submitted in applyUTH.
Applicants must satisfy the General Requirements for admission as listed in the Admissions section in addition to the following.
- A minimum GPA of 2.5 on a 4.0 scale both overall and in science and mathematics courses is required to be considered for admission. Cumulative and prerequisite GPA are factors for admission. Special circumstances may be considered, but at the discretion of the Admissions Committee.
- Attend one information session during the year of the application process.
Applicants should begin the application process three to six months before the application deadline to ensure all documents are received and processed by the Office of the Registrar by the due date. Refer to the School of Health Professions How to Apply page for application dates.
Enrollment Process
Once accepted into Diagnostic Medical Sonography, enrollment depends on the following factors.
- Proof of successful assessment of the Texas Success Initiative (TSI). Refer to the TSI section of this catalog.
- Ability to meet the School of Health Professions Nonacademic Technical Standards.
- Proof of current health immunizations.
- Satisfactory completion of a drug screen and background check.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Prerequisites
Several physical education and military sciences courses do not count toward discipline-specific prerequisites.
Texas Core Curriculum
Students must complete the Texas Core Curriculum and prerequisite courses elsewhere before transferring into the School of Health Professions. The courses may be taken at any regionally accredited college/university. Refer to the Texas Core Curriculum section of this catalog.
For the Two-Year Program
Students must complete a minimum of 42 SCH that includes the Texas Core Curriculum (42 SCH) and the following courses.
- 4 SCH College Physics with laboratory
- 4 SCH in Anatomy and Physiology I
- 4 SCH in Anatomy and Physiology II
Students are recommended to complete an associate’s or bachelor’s degree from a regionally accredited institution, but a degree is not required.
Advanced Placement
The School of Health Professions accepts and/or awards credit through the following examination programs*.
- College-level examination program of the College Board
- Comprehensive departmental examinations
- Regionally accredited military training programs
*Note: The student who is admitted or readmitted will undergo an evaluation process related to awarding course credits, if applicable.
Recommendations from the School of Health Professions’ academic departments are followed regarding minimum score requirements, level of credit and amount of credit to be awarded. Program faculty are consulted to determine if credit recommendations equate to specific School of Health Professions courses. The internal comprehensive departmental examination program provides a local means for establishing knowledge of the School of Health Professions course content in areas not covered by the above examination program. Programs may elect to administer examinations that cover material specific to the School of Health Professions courses, with the results being reported to the Registrar.
Graduation
Each candidate for a bachelor's degree must complete a minimum of 120 SCH of coursework. Within this requirement, students must complete at least 40 SCH of upper-level coursework at UT MD Anderson.
Students graduate in May, while Commencement is in August. Upon graduation, participants will be eligible to take the national registry examination administered by the ARDMS under category 3B. The awarding of the degree is not contingent upon a student passing the national certification exam
Curriculum
Upon completion of the curriculum, students will have demonstrated the professional skills necessary to work sound waves to produce medical images in diagnostic imaging or radiology departments of hospitals and medical clinics or free-standing imaging centers.
Accreditation Information
UT MD Anderson is regionally accredited through SACSCOC. The educational standards of this program are based on the Diagnostic Medical Sonography National Educational Curriculum.
Current Affiliations
Students rotate through multiple clinical sites at The Texas Medical Center. The diversity of examination procedures at the respective facilities offers the students broad skills, as well as opportunities for future employment upon graduation. Visit the Diagnostic Medical Sonography Program page for a list of current rotations.
Course Listings
The semester-by-semester schedule below includes all courses needed to graduate, but the sequence and/or course offerings are subject to change.
Two-Year Program (78 SCH)
Junior Year (45)
Fall Semester (16)
DS 3103 Intro to Vascular Sonography (1)
DS 3201 General Ultrasound I (2)
DS 3221 Sonography Physics I (2)
DS 3222 Sonographic Physics II (2)
DS 3341 Abdominal Ultrasound (3)
DS 3371 Sonography Lab I (3)
HS 3270 Fundamentals of Writing and Critical Thinking (2)
HS 4102 Professionalism and Leadership in Health Care (1)
Spring Semester (15)
DS 3211 Clinical Internship I (2)
DS 3343 Obstetrics Sonography (3)
DS 3361 Abdominal and Pelvic Pathology (3)
DS 3372 Sonography Lab II (3)
DS 4351 Doppler Sonography (3)
HS 4100 Issues in Health Care Ethics (1)
Summer Semester (14)
DS 3262 Gynecologic Pathology (2)
DS 3264 Sonography of Superficial Structures (2)
DS 3343 Obstetrics Sonography (3)
DS 3363 Neurosonography (3)
DS 3373 Sonography Lab III (3)
HS 4111 Medical Law (1)
Senior Year (33)
Fall Semester (17)
DI 4300 Research Techniques in Radiologic Sciences (3)
DS 4265 Pediatric Sonography (2)
DS 4302 Principles of Vascular Technology (3)
DS 4311 Clinical Internship III (3)
DS 4345 Sonography of High Risk Obstetrics (3)
DS 4374 Sonography Lab IV (3)
Spring Semester (16)
DI 4301 Professional Project (3)
DS 4100 Registry Review (1)
DS 4142 Special Topics in Diagnostic Medical Sonography (1)
DS 4246 Sonography of Small Parts (2)
DS 4303 Advanced Non Invasive Vascular Technology (3)
DS 4312 Clinical Internship IV (3)
DS 4375 Sonography Lab V (3)
Bachelor of Science in HEALTHCARE ANALYTICS AND ADVOCACY
The Healthcare Analytics and Advocacy program provides specific knowledge and skills related to global health care disparities, diversity and advocacy in health care and in patient experience. This degree presents unique opportunities to learn about disparities, diversity and advocacy in a non-traditional, full- or part-time online format.
Graduates will gain knowledge and experience for employment in health care disparities, diversity or patient experience advocacy roles.
Degree Offered
Bachelor of Science in Healthcare Analytics and Advocacy
Program Administration
Program Director Susan K. Lee, Ph.D.
Program Advisor Jaymesson Bezerra, Associate Director, Patient Relations
Program Advisor Alba Calzada, Sr. Research Project Manager, Health Disparities Research
Executive Advisor Ranna Parekh, M.D.
Program Information
Mission
The mission of the Healthcare Analytics and Advocacy program is to provide the highest quality of education to students through online didactic and preceptorship experiences in the practice of health care analytics and patient advocacy.
Vision
The Healthcare Analytics and Advocacy program shall be the premier provider of education in health care analytics and patient experience advocacy based on best practices and research in these areas of healthcare.
Objectives
- Healthcare Analytics and Advocacy students will concentrate on health disparities. The student will
- Demonstrate awareness of factors contributing to disparities in health care among marginalized populations.
- Identify resources available for reducing health disparities.
- Demonstrate health care professionals’ role in eliminating health disparities.
- Healthcare Analytics and Advocacy students will be culturally competent with diverse populations. The student will
- Demonstrate cultural sensitivity.
- Analyze barriers to the delivery of health care in diverse populations.
- Apply solutions to selected concerns in diverse populations studied.
- Healthcare Analytics and Advocacy students will be patient advocates. The student will
- Demonstrate communication techniques in difficult health care situations.
- Evaluate risks in health care institution-patient experience.
- Identify federal, state and local regulations related to patient advocacy.
Program Admission Requirements
Admission to the program is competitive and holistic. Meeting the minimum requirements does not guarantee acceptance. Students pursuing a Bachelor of Science degree enter at the Junior level. Application and supporting documents must be submitted in applyUTH.
Applicants must satisfy the General Requirements for admission as listed in the Admissions section in addition to a minimum GPA of 2.5 on a 4.0 scale, both overall and in science courses, to be considered for admission. Cumulative and prerequisite GPA are factors for admission.
Applicants should begin the application process three to six months before the application deadline to ensure all documents are received and processed by the Office of the Registrar by the due date. Refer to the School of Health Professions How to Apply page for application dates.
Enrollment Process
Once accepted into Healthcare Analytics and Advocacy, enrollment depends on the following factors.
- Proof of successful assessment of the Texas Success Initiative (TSI). Refer to the TSI section of this catalog.
- Ability to meet the School of Health Professions Nonacademic Technical Standards.
- Proof of current health immunizations.
- Satisfactory completion of a drug screen and background check.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Prerequisites
Several physical education and military sciences courses do not count toward discipline-specific prerequisites.
Texas Core Curriculum
Students must complete the Texas Core Curriculum and prerequisite courses elsewhere before transferring into the School of Health Professions. The courses may be taken at any regionally accredited college/university. Refer to the Texas Core Curriculum section of this catalog.
For the Online Program
Students must complete a minimum of 72 SCH that includes the Texas Core Curriculum (42 SCH) and an additional 30 SCH. To fulfill these 30 SCH, applicants have the following options.
- Transfer 30 SCH of elective courses from regionally accredited colleges and universities. Remedial-level courses will not be accepted.
- Receive a maximum of 30 SCH, at the discretion of the School of Health Professions Curriculum Committee, for holding a national certification in a health care discipline, e.g. Medical Laboratory Technician, Surgical Technologist, Dental Hygienist.
- Complete the required 30 SCH of elective courses at the School of Health Professions. Course offerings vary by semester.
Applicants who hold nationally recognized certification in a health profession and are graduates of an accredited program may be awarded a maximum of 30 SCH as elective coursework. SCH given will be evaluated and determined using set criteria developed by the program’s admissions committee.
An applicant who has earned a baccalaureate degree from a regionally accredited college or university may be awarded a second degree by meeting the following requirements:
- Accepted to the School of Health Professions
- Fulfilled all General Education Core curriculum requirements
- Completed a minimum of 48 SCH of the required curriculum
- Provided supporting documents to the Office of the Registrar
Advanced Placement
The School of Health Professions accepts and/or awards credit through the following examination programs*.
- College-level examination program of the College Board
- Comprehensive departmental examinations
- Regionally accredited military training programs
*Note: The student who is admitted or readmitted will undergo an evaluation process related to awarding course credits, if applicable.
Recommendations from the School of Health Professions’ academic departments are followed regarding minimum score requirements, level of credit and amount of credit to be awarded. Program faculty are consulted to determine if credit recommendations equate to specific School of Health Professions courses. The internal comprehensive departmental examination program provides a local means for establishing knowledge of the School of Health Professions course content in areas not covered by the above examination program. Programs may elect to administer examinations that cover material specific to the School of Health Professions courses, with the results being reported to the Registrar.
Graduation
Each candidate for a bachelor's degree must complete a minimum of 120 SCH of coursework. Within this requirement, students must complete the following at UT MD Anderson.
- At least 40 SCH of upper-level coursework
- At least 25% of the total SCH required must be taken at UT MD Anderson
Students graduate in August.
Curriculum
Upon completion of the curriculum, students will have demonstrated the professional skills necessary to function in health care analytics and advocacy.
Accreditation
UT MD Anderson is regionally accredited through SACSCOC.
Course Listings
The semester-by-semester schedule below includes all courses needed to graduate, but the sequence and/or course offerings are subject to change.
Full-Time Two-Year Program (48 SCH)
Junior Year (24 SCH)
Fall Semester (12)
HAA 4211 Medical Law (2)
HAA 4311 Understanding Community Health Care Needs (3)
HAA 4313 Health Across the Lifespan (3)
HAA 4322 Effective Mentorship (3)
HS 4100 Issues in Health Care Ethics (1)
Spring Semester (12)
HAA 4314 Resources and Support for Complex Health Scenarios (3)
HAA 4321 Understanding Patient Needs (3)
HAA 4323 Organizational Behavior in Health Care (3)
HAA 4331 Patient Advocacy (3)
Senior Year (24)
Fall Semester (12)
HAA 4324 Seminar in Population Health (3)
Prerequisites: HAA 4321, HAA 4322, HAA 4323
HAA 4332 Role of the Patient Advocate (3)
HAA 4333 Health Care Policy and Practice (3)
HS 3110 Medical Terminology (1)
HS 3270 Fundamentals of Writing and Critical Thinking (2)
Spring Semester (12)
HAA 4312 Comparative Health Practice (3)
HAA 4334 Seminar in Patient Advocacy (3)
Prerequisites: HAA 4331, HAA 4332, HAA 4333
HAA 4340 Leadership in Healthcare (3)
HAA 4345 Healthcare Analytics (3)
Part-Time Four-Year Program (48 SCH)
Year 1 (12 SCH)
Fall Semester (6)
HAA 4211 Medical Law (2)
HAA 4322 Effective Mentorship (3)
HS 4100 Issues in Health Care Ethics (1)
Spring Semester (6)
HAA 4321 Understanding Patient Needs (3)
HAA 4323 Organizational Behavior in Health Care (3)
Year 2 (12 SCH)
Fall Semester (6)
HAA 4311 Understanding Community Health Care Needs (3)
HAA 4313 Health Across the Lifespan (3)
Spring Semester (6)
HAA 4314 Resources and Support for Complex Health Scenarios (3)
HAA 4331 Patient Advocacy (3)
Year 3 (12 SCH)
Fall Semester (6)
HAA 4332 The Role of the Patient Advocate (3)
HAA 4333 Health care Policy and Practice (3)
Spring Semester (6)
HAA 4312 Comparative Health Practice (3)
HAA 4340 Leadership in Healthcare (3)
Year 4 (12 SCH)
Fall Semester (6)
HAA 4324 Seminar in Poplation Health (3)
Prerequisites: HAA 4331, HAA 4332, HAA 4333
HS 3110 Medical Terminology (1)
HS 3270 Fundamentals of Writing and Critical Thinking (2)
Spring Semester (6)
HAA 4334 Seminar in Patient Advocacy (3)
Prerequisites: HAA 4331, HAA 4322, HAA 4323
HAA 4345 Healthcare Analytics (3)
Elective Courses
Healthcare Analytics and Advocacy students who choose to complete elective courses at UT MD Anderson may choose from the following course offerings.
DI 4310 Teaching Strategies in Health Care Education (3)
DI 4311 Instructional Design (3)
DI 4312 Patient Education (3)
HAA 3345 Directed Readings (1-3)
HAA 4316 Telehealth: Best Practices and Operations (3)
HAA 4326 Telehealth: Management Theory and Practice (3)
HAA 4336 Telehealth: Experience in Health Information Technology (3)
HAA 4390 Independent Project (1-3)
HS 3333 Statistics (3)
Bachelor of Science in HISTOTECHNOLOGY
Histotechnology is the specialty that plays a fundamental role in detecting abnormalities in tissue cells. The application of theoretical and applied knowledge of biological and chemical sciences is utilized to prepare tissue specimens for microscopic examination. This is an important part of the intricate process of scientific investigation used in establishing and confirming patient diagnosis and research.
Degree Offered
Bachelor of Science in Histotechnology
Program Administration
Program Director Mark A. Bailey, M.A.
Associate Program Director Toysha Mayer, D.H.Sc.
Executive Advisor Maria Gubbiotti, M.D., Ph.D.
Program Information
Mission
The mission of the School of Health Professions Program in Histotechnology, in concert with the mission and vision of UT MD Anderson , is to develop and maintain a quality program in which our graduates are academically and technically competent to enter the workforce as entry-level Scientist in Histotechnology. Therefore, our students and graduates will promote best practices and ethical standards associated with the Histotechnology discipline.
Objectives
The primary objective of the Histotechnology program is to offer entry-level routine histotechnology courses to the program’s students as well as an introduction to advanced laboratory techniques, including but not limited to the following techniques.
- Digital Microscope Imaging
- Immunohistochemistry
- Laboratory Management
- Tissue Biopsy Grossing
- Tissue Biorepository
Program graduates are prepared to work in a variety of settings such as hospitals, medical schools, veterinary medicine, research, private independent laboratories, industry and local, state and federal agencies in both urban and rural settings.
Program Admission Requirements
Admission to the program is competitive and holistic. Meeting the minimum requirements does not guarantee acceptance. Students pursuing a Bachelor of Science degree enter either at the Junior level (two-year track) or Senior level (one-year and professional tracks). Application and supporting documents must be submitted in applyUTH.
Applicants must satisfy the General Requirements for admission as listed in the Admissions section.
- Applicants to the program must have completed all core curriculum courses required by the TEC and all biology and chemistry courses required by the Board of Certification of ASCP.
- A minimum GPA of 2.5 on a 4.0 scale both overall and in science courses is required to be considered for admission. Cumulative, science and math GPA are factors for admission. Special circumstances may be considered, but at the discretion of the Admissions Committee.
Applicants should begin the application process three to six months before the application deadline to ensure all documents are received and processed by the Office of the Registrar by the due date. Refer to the School of Health Professions How to Apply page for application dates.
Enrollment Process
Once accepted into Histotechnology, enrollment depends on the following factors.
- Proof of successful assessment of the Texas Success Initiative (TSI). Refer to the TSI section of this catalog.
- Ability to meet the School of Health Professions Nonacademic Technical Standards.
- Proof of current health immunizations.
- Satisfactory completion of a drug screen and background check.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Prerequisites
Several physical education and military sciences courses do not count toward discipline-specific prerequisites.
Texas Core Curriculum
Students must complete the Texas Core Curriculum and prerequisite courses elsewhere prior to transferring into the School of Health Professions. The courses may be taken at any regionally accredited college/university. Refer to the Texas Core Curriculum section of this catalog.
For the Two-Year Program
Students must complete a minimum of 60 SCH that includes the Texas Core Curriculum (42 SCH) and the following courses:
- 4 SCH in Biology I
- 4 SCH in Biology II
- 4 SCH in General Chemistry I
- Additional 8 SCH in Biology and/or Chemistry
For the One-Year Program
Students must complete a minimum of 90 SCH that includes the Texas Core Curriculum (42 SCH) and the following courses:
- 4 SCH in Biology I
- 4 SCH in Biology II
- 4 SCH in General Chemistry I
- Additional 18 SCH in Biology and/or Chemistry
- 18 SCH of upper-level courses
For the One-Year Professional Program
Students must complete a minimum of 90 SCH that includes the Texas Core Curriculum (42 SCH) and the following courses:
- 4 SCH in Biology I
- 4 SCH in Biology II
- 4 SCH in General Chemistry I
- Additional 18 SCH in Biology and/or Chemistry
- 18 SCH of upper-level courses
In addition, students must meet the following additional requirements.
- Certified with ASCP(HT)
- Minimum of one year of work experience in a Histotechnology Service Laboratory
- Currently working in a Histotechnology Service Laboratory that will serve as the clinical affiliate site
Advanced Placement
The School of Health Professions accepts and/or awards credit through the following examination programs*.
- College level examination program of the College Board
- Comprehensive departmental examinations
- Regionally accredited military training programs
*Note: The student who is admitted or readmitted will undergo an evaluation process related to awarding course credits, if applicable.
Recommendations from the School of Health Professions’ academic departments are followed regarding minimum score requirements, level of credit and amount of credit to be awarded. Program faculty are consulted to determine if credit recommendations equate to specific School of Health Professions courses. The internal comprehensive departmental examination program provides a local means for establishing knowledge of the School of Health Professions course content in areas not covered by the above examination program. Programs may elect to administer examinations that cover material specific to the School of Health Professions courses, with the results being reported to the Registrar.
Graduation
Each candidate for a bachelor's degree must complete a minimum of 121 SCH of coursework. Within this requirement, students must complete the following at UT MD Anderson:
- At least 40 SCH of upper-level coursework.
- At least 25% of the total SCH required must be taken at UT MD Anderson.
Students graduate in August. Upon graduation, students are eligible to take the national certification exam in histotechnology administered by the ASCP Board of Certification. Check with the program director for application deadlines and exam dates. Upon passing either exam, the student is considered a certified Scientist in Histotechnology. The awarding of the degree is not contingent upon a student passing the national certification exam.
Curriculum
The comprehensive two-year program is composed of a didactic phase followed by directed clinical internships at affiliated hospitals and laboratories. During the didactic phase, formal lectures, demonstrations and rotations through clinical laboratories provide experience in routine and specialized procedures. Laboratory sessions are coordinated with lectures and cover the fundamentals of diagnostic laboratory procedures and are included in the didactic phase. The program maintains an extensive collection of reference books, microscopic slides and projection slides, PowerPoint presentations and microscopic digitized images for use in lectures and independent study. Students are expected to maintain high academic performance and display appropriate professional and ethical behavior during all phases of their education and training.
Accreditation
The Histotechnology program is accredited by, and the curriculum conforms to the standards published and monitored by NAACLS.
Current Affiliations
The Program in Histotechnology has developed education affiliations with clinical and research pathology laboratories and medical institutions in the Greater Houston area, so that students will develop expertise in a variety of settings and experience the breadth of opportunity available to a certified Scientist in Histotechnology. During the clinical phase of instruction, training and supervision are provided in affiliated clinical laboratories. Visit the Histotechnology Program page for a list of current affiliations.
Course Listings
The semester-by-semester schedules below include all courses needed to graduate, but the sequence and/or course offerings are subject to change
Two-Year Program (62 SCH)
Junior Year (24 SCH)
Fall Semester (12)
HS 3101 Basic Lab Techniques (1)
HS 3110 Medical Terminology (1)
HS 3210 Laboratory Mathematics (2)
HS 4102 Professionalism and Leadership in Health Care (1)
HS 4111L Medical Microbiology Lab (1)
HS 4300 Pathophysiology for Health Professions (3)
HS 4310 Medical Microbiology (3)
Spring Semester (12)
HS 3102 Molecular Techniques Lab (1)
HS 3300 Medical Immunology (3)
HS 3340 Research Seminar (3)
HS 4100 Health Care Ethics (1)
HS 4161 Seminar in Healthcare (1)
HS Elective *
*Choose from one of the following courses
HS 3310 Quality in Healthcare (3)
HS 3320 Medical Genetics (3)
Senior Year (38 SCH)
Fall Semester (13)
HS 4371 Management and Education (3)
HT 4241 Histotechnology Lab. Operations I (2)
HT 4312 Theory and Practice of Histotechniques I (3)
HT 4521 Histotechniques Laboratory Rotation I (5)
Spring Semester (12)
HS 3254 Immunohistochemistry (2)
HT 4242 Histotechnology Lab. Operations II (2)
HT 4413 Theory & Practice of Histotechniques II (4)
HT 4444 Theory of Special Stains (4)
Summer Semester (13)
HT 4390 Histotechnology Capstone Review (3)
HT 4522 Histotechniques Laboratory Rotation II (5)
HT 4523 Histotechniques Laboratory Rotation III (5)
One-Year and Professional Programs (40 SCH)
Fall Semester (14)
HS 4102 Professionalism and Leadership in Health Care (1)
HS 4371 Management and Education (3)
HTL 4241 Histotechnology Lab. Operations I (2)
HTL 4312 Theory & Practice of Histotechniques I (3)
HTL 4521 Histotechniques Laboratory Rotation I (5)
Spring Semester (13)
HS 3254 Immunohistochemistry (2)
HS 4100 Health Care Ethics (1)
HTL 4242 Histotechnology Lab Operations II (2)
HTL 4413 Theory & Practice of Histotechniques II (4)
HTL 4444 Theory of Special Stains (4)
Summer Semester (13)
HT 4390 Histotechnology Capstone Review (3)
HT 4522 Histotechniques Laboratory Rotation II (5)
HT 4523 Histotechniques Laboratory Rotation III (5)
Bachelor of Science in MEDICAL DOSIMETRY
Medical Dosimetrists are vital members of the radiation oncology team, working closely with radiation oncologists, medical physicists, and radiation therapists to create customized radiation treatment plans designed to target cancer while sparing normal tissue. In order to carry out this work, medical dosimetrists must develop a knowledge base that includes, but is not limited to, human anatomy, clinical disease processes, radiation physics, and computer technology.
Medical dosimetrists use multimodality imaging, including CT, MRI, and PET scans, to construct three-dimensional treatment plans that will allow the delivery of high doses of radiation to a tumor while minimizing the risk to sensitive surrounding tissues. In the course of their work, medical dosimetrists also contribute to excellence in patient care by participating in quality assurance and innovative clinical research.
Students are prepared for the technical, theoretical, and psychological aspects of a career in this field and acquire the professional skills of dose calculation, treatment design and quality assurance through intensive classroom, laboratory, and clinical education.
Degree Offered
Bachelor of Science in Medical Dosimetry
Program Administration
Program Director Mahsa Dehghanpour, Ed.D.
Associate Program Director Jamie Baker, Ph.D.
Executive Advisor George Perkins, M.D.
Program Information
Mission
To provide high-quality didactic and technologically advanced clinical education in Medical Dosimetry and to graduate professional practitioners who are valued by radiation oncology employers, display excellent treatment planning and assessment skills, and remain active in the professional community and learning throughout their careers.
Vision
We shall be the premier educational program in medical dosimetry by providing innovative curricular, clinical and continuing education services to UT MD Anderson, the State of Texas and the world.
Goals
- Students will be clinically competent.
- Students will display critical thinking skills.
- Students will demonstrate professionalism.
- Students will display effective communication skills.
- The program will provide the community with entry-level medical dosimetrists.
Objectives
The 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, laboratory and clinical education under the supervision of board-certified medical dosimetrists, physicists and radiation oncologists.
Program Admission Requirements
Admission to the program is competitive and holistic. Meeting the minimum requirements does not guarantee acceptance. Students pursuing a Bachelor of Science degree enter at the Junior level. Application and supporting documents must be submitted in applyUTH.
Applicants must satisfy the General Requirements for admission as listed in the Admissions section, in addition to a minimum GPA of 2.5 on a 4.0 scale, both overall and in undergraduate courses, to be considered for admission.
Applicants should begin the application process three to six months before the application deadline to ensure all documents are received and processed by the Office of the Registrar by the due date. Refer to the School of Health Professions How to Apply page for application dates.
Enrollment Process
Once accepted into Medical Dosimetry, enrollment depends on the following factors.
- Proof of successful assessment of the Texas Success Initiative (TSI). Refer to the TSI section of this catalog.
- Ability to meet the School of Health Professions Nonacademic Technical Standards.
- Proof of current health immunizations.
- Satisfactory completion of a drug screen and background check.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Prerequisites
Several physical education and military sciences courses do not count toward discipline-specific prerequisites.
Texas Core Curriculum
Students must complete the Texas Core Curriculum and prerequisite courses elsewhere before transferring into the School of Health Professions. The courses may be taken at any regionally accredited college/university. Refer to the Texas Core Curriculum section of this catalog.
For the Two-Year Program
Students must complete a minimum of 60 SCH that includes the Texas Core Curriculum (42 SCH) and the following courses.
- 4 SCH in Anatomy and Physiology I
- 4 SCH in Anatomy and Physiology II
- 4 SCH in General Physics I
- 4 SCH in General Physics II
- 3 SCH in Calculus I
- 3 SCH in Calculus II
Advanced Placement
The School of Health Professions accepts and/or awards credit through the following examination programs*.
- College-level examination program of the College Board
- Comprehensive departmental examinations
- Regionally accredited military training programs
*Note: The student who is admitted or readmitted will undergo an evaluation process related to awarding course credits, if applicable.
Recommendations from the School of Health Professions’ academic departments are followed regarding minimum score requirements, level of credit and amount of credit to be awarded. Program faculty are consulted to determine if credit recommendations equate to specific School of Health Professions courses. The internal comprehensive departmental examination program provides a local means for establishing knowledge of School of Health Professions course content in areas not covered by the above examination program. Programs may elect to administer examinations that cover material specific to School of Health Professions courses, with the results being reported to the Registrar.
Graduation
Each candidate for a bachelor's degree must complete a minimum of 130 SCH of coursework. Within this requirement, students must complete the following at UT MD Anderson:
- At least 40 SCH of upper-level coursework
- At least 25% of the total SCH required must be taken at UT MD Anderson
Students graduate in August. Upon graduation, students are eligible to take the national certification exam in Medical Dosimetry administered by the MDCB. Check with the program director or visit the MDCB site for application deadlines and exam dates. Upon passing the exam, the graduate is considered a Certified Medical Dosimetrist (CMD). The awarding of the degree is not contingent upon a student passing the national certification exam.
Curriculum
This intensive two-year program is composed of didactic education and directed clinical training at MD Anderson clinics and affiliated hospitals. During the didactic phase, formal lectures cover dose calculations, treatment design, quality assurance and other field-specific topics. Treatment planning laboratory sessions complement the lecture series.
Accreditation
The Program is accredited by and has conformed its curriculum to the standards and guidelines published and monitored by the JRCERT.
Current Affiliations
During the clinical phase of instruction, training and supervision are provided in a variety of locations. Visit the Medical Dosimetry Program page for a list of current affiliations.
Course Listings
The semester-by-semester schedule below includes all courses needed to graduate, but the sequence and/or course offerings are subject to change.
Two-Year Program (70 SCH)
Junior Year (28 SCH)
Fall Semester (14)
HS 4102 Professionalism and Leadership in Health Care (1)
HS 4300 Pathophysiology for Health Professions (3)
MD 3201 Introduction to Radiation Treatment (2)
MD 3302 Introduction to Treatment Planning I (3)
MD 4102 Anatomy for Radiation Oncology (1)
MD 4300 Introduction to Medical Dosimetry (3)
RT 4101 Radiation Safety and Protection (1)
Spring Semester (14)
HS 4100 Health Care Ethics (1)
MD 3303 Introduction to Treatment Planning II (3)
MD 3304 Intro. to Clinical Medical Dosimetry (3)
MD 4204 Aspects of Radiation Oncology (2)
MD 4210 Radiation Biology (2)
MD 4313 Clinical Radiation Oncology (3)
Senior Year (42 SCH)
Fall Semester (15)
MD 4301 Medical Dosimetry Physics I (3)
MD 4302 Brachytherapy Dosimetry (3)
MD 4303 Research Design and Statistics I (3)
*Clinical Education (6)
Spring Semester (15)
MD 4305 Medical Dosimetry Physics II (3)
MD 4306 Research Design and Statistics II (3)
MD 4309 Interstitial and Intracavitary Dosimetry (3)
*Clinical Education (6)
Summer Semester (12)
MD 4401 Radiation Physics (4)
MD 4508 External Beam Dosimetry (5)
*Clinical Education (3)
*Note that the following courses are offered each semester. Students are advised as to which clinical courses they should register for each semester.
MD 4331 Clinical Education I (3)
MD 4332 Clinical Education II (3)
MD 4333 Clinical Education III (3)
MD 4334 Clinical Education IV (3)
MD 4335 Internship in Radiation Oncology (3)
Elective Courses
If a student has taken a required course as a prerequisite before entering the program, the student will not be required to repeat the course. However, the student must substitute the course with an Elective Course with equivalent credit hours to fulfill the minimum required SCH for graduation from the Medical Dosimetry program.
DI 4310 Teaching Strategies in Health Care Ed. (3)
DI 4318 Promotional Strategies in Rad. Sci. (3)
DI 4320 Current Trends in Health Care Mgmt. (3)
DI 4322 Effective Human Resources Management (3)
DI 4323 Management Skills for New Supervisor (3)
HS 3110 Medical Terminology (1)
HS 3340 Research Methods (3)
HS 4111 Medical Law (1)
MD 4201 Medical Dosimetry Review (2)
RT 4199 Special Topics in Radiation Therapy (1)
RT 4309 Special Applications in Rad. Oncology (3)
NOTE: Additional courses may be used as electives with the approval of the Program Director.
Bachelor of Science in MEDICAL LABORATORY SCIENCE
The medical laboratory scientist is an essential member of the health care team, performing a myriad of laboratory procedures aimed at the diagnosis and treatment of disease.
Degree Offered
Bachelor of Science in Medical Laboratory Science
Program Administration
Program Director Brandy Greenhill, Dr.P.H.
Executive Advisor Jeffrey Tarrand, M.D.
Program Information
Mission
The UT MD Anderson Program in Medical Laboratory Science, in concert with the mission and vision of UT MD Anderson, is committed to the education of technically and academically competent graduates prepared to meet the immediate and future needs of the Medical Laboratory Science profession.
Goals
The faculty of the Program in Medical Laboratory Science is committed to the following.
- Providing the didactic and clinical instruction that offers the graduate the opportunity to prepare to
- Perform procedures in all areas of the medical laboratory.
- Integrate and correlate laboratory data.
- Solve problems relating to the production of laboratory results.
- Maintaining an effective program of student development and learning.
- Leading the student in developing an understanding and appreciation for a total quality management program, the skills necessary to establish quality control measures, and to make appropriate decisions to maintain accuracy and precision.
- Meeting the future needs of the Medical Laboratory Science profession by including the following.
- State-of-the-art procedures and instrumentation.
- Courses that offer career alternatives.
- Opportunities to participate in research and development of molecular techniques.
- Developing the framework for the graduate to maintain and grow in professional competence throughout his lifetime by promoting participation in continuing education activities of the laboratory, MD Anderson and the community.
- Communicating the necessity of obeying a professional code of conduct toward patients, visitors and all health care professionals and of demonstrating the highest regard for human dignity and life.
Objectives
- The Program in Medical Laboratory Science is designed to prepare students to perform medical laboratory analysis, make appropriate decisions and solve problems to become successful entry-level medical laboratory scientists.
- The program provides instruction and training in all the major areas of the medical laboratory through both didactic and clinical training. Most students enter the program to pursue a Bachelor of Science degree.
- The medical laboratory scientist is an essential member of the health care team, performing a myriad of laboratory procedures aimed at the diagnosis and treatment of disease.
- The technical procedures and complex instruments used in modern laboratory medicine require well-educated and technically proficient scientists. Medical laboratory scientists are problem solvers, technologists who use their knowledge and technical skills to operate and repair laboratory instruments, monitor quality control programs, produce high-quality patient test results and correlate test results with disease processes.
- The primary goal of the Medical Laboratory Science program is to provide the community with competent, entry-level medical laboratory scientists (medical laboratory scientists) who are prepared to meet the qualifications for certification in their profession.
- While many scientists choose to work in hospital laboratories, others opt to develop new testing procedures in diagnostic and research laboratories. Scientists with leadership ability and administrative skills manage the laboratory operations. Those interested in computer technology use their laboratory knowledge and skills in the management of laboratory information systems. Others provide educational programs to prepare the scientists for the future. There are even opportunities for scientists to serve as self-employed consultants.
Program Competencies
The Medical Laboratory Science curriculum offers the student the opportunity to obtain the following competencies.
- Accurate application of mathematical principles in the medical laboratory science domain of practice.
- Appropriate interpersonal and public speaking skills in the clinical and academic setting.
- Appropriate oral and written communication in the clinical and academic setting.
- Appropriate computer skills in the clinical and academic setting.
- Synthesis of information from primary and secondary sources using recognized research techniques.
- Critical reading and writing strategies to evaluate, interpret and analyze non-fiction, academic and professional readings.
- Knowledge of quality assurance through application of quality control and required documents for regulatory compliance.
- Correlation of disease processes with appropriate assays for diagnosis.
- Application of management principles in the medical laboratory science domain of practice.
- Ability to collect specimens and determine the criteria of acceptability and rejection.
- Ability to operate instrumentation, troubleshoot and document preventive maintenance.
- Ability to describe the theory and principle of operation of the test methodology for all areas of the clinical laboratory.
- Ability to perform appropriate assays with the ability and accuracy to determine the accuracy of results from interference substances.
- Ability to correctly perform appropriate manual procedures when necessary.
- Ability to apply knowledge of test limitations and select appropriate corrective action for out-of-limits situations.
- Ability to organize workflow to make efficient use of time and materials.
- Ability to differentiate between appropriate and inappropriate results by recognizing normal, abnormal and critical values and taking appropriate action where necessary.
Program Admission Requirements
Admission to the program is competitive and holistic. Meeting the minimum requirements does not guarantee acceptance. Students pursuing a Bachelor of Science degree enter at the Junior level. Application and supporting documents must be submitted in applyUTH.
Applicants must satisfy the General Requirements for admission as listed in the Admissions section.
Applicants should begin the application process three to six months before the application deadline to ensure all documents are received and processed by the Office of the Registrar by the due date. Refer to the School of Health Professions How to Apply page for application dates.
Enrollment Process
Once accepted into Medical Laboratory Science, enrollment depends on the following factors.
- Proof of successful assessment of the Texas Success Initiative (TSI). Refer to the TSI section of this catalog.
- Ability to meet the School of Health Professions Nonacademic Technical Standards.
- Proof of current health immunizations.
- Satisfactory completion of a drug screen and background check.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Prerequisites
Several physical education and military sciences courses do not count toward discipline-specific prerequisites.
Texas Core Curriculum
Students must complete the Texas Core Curriculum and prerequisite courses elsewhere prior to transferring into the School of Health Professions. The courses may be taken at any regionally accredited college/university. Refer to the Texas Core Curriculum section of this catalog.
For the Two-Year Program
Students must complete a minimum of 60 SCH that includes the Texas Core Curriculum (42 SCH) and the following courses.
- 8 SCH in Anatomy and Physiology I & II, or Biology I & II
- 4 SCH in General Chemistry I with lab
- 4 SCH in General Chemistry II with lab
- 4 SCH in Organic Chemistry I with lab
- 4 SCH in Organic Chemistry II with lab, or Biochemistry
Advanced Placement
The School of Health Professions may accept and/or award credit through the following examination programs*.
- College-level examination program of the College Board
- Comprehensive departmental examinations
- Regionally accredited military training programs
*Note: The student who is admitted or readmitted will undergo an evaluation process related to awarding course credits, if applicable.
Recommendations from School of Health Professions’ academic departments are followed regarding minimum score requirements, level of credit and amount of credit to be awarded. Program faculty is consulted to determine if credit recommendations equate to specific School of Health Professions courses. The internal comprehensive departmental examination program provides a local means for establishing knowledge of School of Health Professions course content in areas not covered by the above examination program. Programs may elect to administer examinations that cover material specific to School of Health Professions courses, with the results being reported to the Registrar.
Graduation
Each candidate for graduation with a baccalaureate degree in Medical Laboratory Science must have completed a minimum of 138 SCH of coursework. Within this requirement, students must have completed the following:
- At least 40 SCH of upper-level coursework
- At least 25% of the total SCH required must have been earned at the School of Health Professions
Students graduate in August. Upon graduation, students are eligible to take the national certification exam administered by the ASCP. This exam is given throughout the year. Check with the program director for application deadlines.
Upon passing the certification examination, the student is considered a certified Medical Laboratory Scientist. The awarding of the degree is not contingent upon a student passing a national certification examination.
Curriculum
The Program in Medical Laboratory Science is a highly intensive course of study composed of didactic and clinical training. Didactic courses are presented in clinical hematology and hemostasis, clinical chemistry, clinical microscopy, microbiology, immunohematology, immunology, molecular diagnostics, human tissue typing and management.
The course of study will offer the student the opportunity to obtain the following.
- Fundamental knowledge to enter the profession as a capable medical laboratory scientist.
- Highly specialized skills that will broaden career opportunities.
During the clinical phase of instruction, training and supervision are provided at leading medical laboratories at sister medical institutions within the Texas Medical Center and beyond, so that students may develop expertise in a variety of settings and experience the breadth of opportunity available to Medical Laboratory Scientists.
Accreditation
The UT MD Anderson Program of Medical Laboratory Science is accredited by and has confirmed its curriculum to the standards published and monitored by NAACLS.
Current Affiliations
During the clinical phase of instruction, training and supervision are provided in affiliated medical laboratories. Visit the Medical Laboratory Science Program page for a list of current affiliations.
Course Listings
The semester-by-semester schedule below includes all courses needed to graduate, but the sequence and/or course offerings are subject to change.
Two-Year Program (69 SCH)
Junior Year (31 SCH)
Fall Semester (14)
HS 3101 Basic Techniques Lab (1)
HS 3210 Laboratory Mathematics (2)
HS 3330 Pathology of Body Fluids (3)
HS 4102 Professionalism and Leadership in Health Care (1)
HS 4111L Microbiology Lab (1)
HS 4300 Pathophysiology (3)
HS 4310 Medical Microbiology (3)
Spring Semester (17)
CL 4345 Hemostasis (3)
HS 3102 Molecular Techniques Lab (1)
HS 3300 Medical Immunology (3)
HS 3310 Intro to Healthcare Quality (3)
HS 3333 Statistics (3)
HS 3340 Research Methods (3)
HS 4100 Health Care Ethics (1)
Senior Year (38 SCH)
Fall Semester (12)
CL 4200 Core Laboratory Techniques (2)
CL 4400 Clinical Chemistry (4)
CL 4440 Clinical Hematology (4)
HS 3270 Critical Thinking in Health Professions (2)
Spring Semester (13)
CL 4210 Microbiology Student Lab (2)
CL 4231 Immunohematology Student Lab (2)
CL 4320 Diagnostic Microbiology (3)
CL 4330 Immunohematology (3)
HS 4371 Management and Education (3)
Summer Semester (13)
CL 4260 Capstone (2)
CL 4321 Clinical Microbiology (3)
CL 4332 Clinical Immunohematology (3)
CL 4530 Clinical Core Rotation (5)
Bachelor of Science in MOLECULAR GENETIC TECHNOLOGY
Molecular genetic technologists study the role of DNA in oncology, Mendelian genetics, forensic identity, infectious disease, population genetics, and prenatal and postnatal diagnosis.
Degree Offered
Bachelor of Science in Molecular Genetic Technology
Program Administration
Program Director Peter Hu, Ph.D.
Associate Program Director Vibhuti Srivastava, Ph.D.
Executive Advisor Rajyalakshmi Luthra, Ph.D.
Program Information
Mission
The UT MD Anderson Program in Molecular Genetic Technology, in concert with the mission and vision of UT Texas MD Anderson, is committed to the education of technically and academically competent graduates prepared to meet the immediate and future needs of the Molecular Genetic Technology profession.
Objectives
The Molecular Genetic Technology program is designed to prepare students to become entry-level clinical molecular genetic technologists. The program provides instruction in major areas of the field such as:
- Cancer molecular genetic testing
- DNA forensic science testing
- Infectious disease testing
- Prenatal and Postnatal genetic disorder testing
The curriculum provides didactic training followed by directed clinical training at affiliated hospitals and laboratories. Students may enter the program to pursue a Bachelor of Science degree, and program faculty help each student develop a focal point related to the learner’s area of interest. During their training, students learn how to detect DNA polymorphisms and interpret a variety of DNA and RNA assays. They also develop an understanding of the essential elements of statistics and population genetics.
While students study molecular diagnostic procedures such as recombinant DNA technology and its application to the clinical laboratory, their laboratory experiences may include, but are not limited to the following.
- DNA and RNA extraction
- Hybridization methods
- Microarray technology
- Next-generation sequencing
- PCR, primer design, real-time PCR and Melt Curve Analysis
- Sanger sequencing and fragment analysis
Students also focus on the specific applications of molecular techniques within such disciplines as:
- Bacteriology
- Forensics
- Genetic disease of inheritance
- Infectious disease
- Oncology
- Paternity
Professionals in the field have a wide range of career options. As the Human Genome Project has led to the discovery of an increasing number of genes important in human disease processes, molecular genetic technologists will play an ever-increasing role in diagnostic patient care.
Employment opportunities include the following.
- Biotechnology companies
- Cancer centers
- Genetic counseling departments
- Forensic laboratories
- Pediatric clinics
- Research and teaching institutions
- Research, molecular cytogenetic and pathology laboratories
Some molecular genetic technologists combine administrative and managerial talent with their technical background to become laboratory or hospital administrators.
Program Admission Requirements
Admission to the program is competitive and holistic. Meeting the minimum requirements does not guarantee acceptance. Students pursuing a Bachelor of Science degree either enter at the Junior level (two-year track) or Senior level (one-year track). Application and supporting documents must be submitted in applyUTH.
Applicants must satisfy the General Requirements for admission as listed in the Admissions section, in addition to a minimum GPA of 2.5 on a 4.0 scale, both overall and in science and mathematics courses, to be considered for admission. Cumulative and prerequisite GPA are factors for admission.
Applicants should begin the application process three to six months before the application deadline to ensure all documents are received and processed by the Office of the Registrar by the due date. Refer to the School of Health Professions How to Apply page for application dates.
Enrollment Process
Once accepted into Molecular Genetic Technology, enrollment depends on the following factors.
- Proof of successful assessment of the Texas Success Initiative (TSI). Refer to the TSI section of this catalog.
- Ability to meet the School of Health Professions Nonacademic Technical Standards.
- Proof of current health immunizations.
- Satisfactory completion of a drug screen and background check.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Prerequisites
Several physical education and military sciences courses do not count toward discipline-specific prerequisites.
Texas Core Curriculum
Students must complete the Texas Core Curriculum and prerequisite courses elsewhere before transferring into the School of Health Professions. The courses may be taken at any regionally accredited college/university. Refer to the Texas Core Curriculum section of this catalog.
For the Two-Year Program
Students must complete a minimum of 60 SCH that includes the Texas Core Curriculum (42 SCH) and the following courses:
- 8 SCH in Biological Sciences
- 15 SCH in Chemistry including Organic Chemistry or Biochemistry
For the One-Year Program
Students must complete a minimum of 90 SCH that includes the Texas Core Curriculum (42 SCH) and the following courses.
- 3 SCH of Microbiology
- 3 SCH of Genetics
- 8 additional SCH in Biological Sciences
- 15 SCH in Chemistry to include Organic Chemistry or Biochemistry
- 12 SCH of upper-level courses
Advanced Placement
The School of Health Professions accepts and/or awards credit through the following examination programs*.
- College-level examination program of the College Board
- Comprehensive departmental examinations
- Regionally accredited military training programs
*Note: The student who is admitted or readmitted will undergo an evaluation process related to awarding course credits, if applicable.
Recommendations from the School of Health Professions’ academic departments are followed regarding minimum score requirements, level of credit and amount of credit to be awarded. Program faculty is consulted to determine if credit recommendations equate to specific School of Health Professions courses. The internal comprehensive departmental examination program provides a local means for establishing knowledge of the School of Health Professions course content in areas not covered by the above examination program. Programs may elect to administer examinations that cover material specific to the School of Health Professions courses, with the results being reported to the Registrar.
Graduation
Each candidate for a bachelor's degree must complete a minimum of 136 SCH of coursework. Within this requirement, students must complete the following at UT MD Anderson:
- At least 40 SCH of upper-level coursework.
- At least 25% of the total SCH required must be taken at UT MD Anderson.
Students graduate in August. Upon graduation, students are eligible to take the national certification exam in molecular biology administered by the ASCP Board of Certification.
Check with the program director for application deadlines and exam dates. Upon passing the exam, the student is considered a certified molecular genetic technologist. The awarding of the degree is not contingent upon a student passing the national certification exam.
Curriculum
This intensive two-year program is composed of a didactic phase followed by directed clinical training at affiliated hospitals and laboratories. During the didactic phase, formal lectures are presented on the principles of medical genetics, molecular and biochemical basis of genetic disease, hematology, clinical molecular genetics and molecular genetic technology. Laboratory sessions coordinated to lectures and covering the fundamentals of diagnostic laboratory procedures are included in the didactic phase.
Accreditation
The Molecular Genetic Technology program is accredited and has conformed its curriculum to the standards published and monitored by NAACLS.
Current Affiliations
During the clinical phase of instruction, training and supervision are provided in affiliated clinical laboratories. The locations are subject to change depending on availability on a year-to-year basis. Visit the Molecular Genetic Technology Program page for a list of current affiliations.
Course Listings
The semester-by-semester schedules below include all courses needed to graduate, but the sequence and/or course offerings are subject to change.
Two-Year Program (76 SCH)
Junior Year (32 SCH)
Fall Semester (14)
HS 3102 Molecular Techniques Lab (1)
HS 3210 Laboratory Mathematics (2)
HS 3330 Pathology of Body Fluids (3)
HS 4102 Professionalism and Leadership in Health Care (1)
HS 4111L Medical Microbiology Lab (1)
HS 4300 Pathophysiology for Health Professions(3)
HS 4310 Medical Microbiology (3)
Spring Semester (18)
HS 3203 Advanced Molecular Techniques (2)
HS 3300 Medical Immunology (3)
HS 3310 Introduction to Quality in Healthcare (3)
HS 3320 Medical Genetics (3)
HS 3333 Statistics (3)
HS 3340 Research Methods (3)
HS 4100 Health Care Ethics (1)
Senior Year (44 SCH)
Fall Semester (17)
CC 4120 Introduction to G-Band Karyotyping (1)
GT 4300 Advanced Medical Genetics (3)
HS 4110 Introduction to Clinical Molecular Genetic Technology (1)
MG 4111 Bioinformatics for Clinical Diagnostics Lab (1)
MG 4200 Bioinformatics for Clinical Diagnostics (2)
MG 4211 Molecular Diagnostic Techniques (2)
MG 4280 Concepts in Molecular Diagnostics (2)
MG 4510 Molecular Diagnostic Techniques Laboratory I (5)
Spring Semester (13)
GT 4330 Genetics of Hematology Malignancies (3)
MG 4281 Advanced Concepts in Molecular Diagnostics (2)
MG 4290 Clinical Disease Application of Molecular Genetics (2)
MG 4310 Molecular Diagnostic Techniques Laboratory II (3)
MG 4320 Molecular Diagnostic Techniques Laboratory III (3)
Summer Semeseter (14)
HS 4371 Management and Education (3)
MG 4160 Molecular Journal Club I (1)
MG 4560 Molecular Diagnostics Clinical Rotation I (5)
MG 4570 Molecular Diagnostics Clinical Rotation II (5)
One-Year Program (46 SCH)
Fall Semester (18)
CC 4120 Introduction to G-Band Karyotyping (1)
GT 4300 Advanced Medical Genetics (3)
HS 4102 Professionalism and Leadership in Health Care (1)
HS 4110 Molecular Genetic Technology (1)
MG 4111 Bioinformatics for Clinical Diagnostics Lab (1)
MG 4200 Bioinformatics for Clinical Diagnostics (2)
MG 4211 Molecular Diagnostic Techniques (2)
MG 4280 Concepts in Molecular Diagnostics (2)
MG 4510 Molecular Diagnostic Techniques Laboratory I (5)
Spring Semester (14)
GT 4330 Genetics of Hematology Malignancies (3)
HS 4100 Health Care Ethics (1)
MG 4281 Advanced Concepts in Molecular Diagnostics (2)
MG 4290 Clinical Disease Applications of Molecular Genetics (2)
MG 4310 Molecular Diagnostic Techniques Laboratory II (3)
MG 4320 Molecular Diagnostic Techniques Laboratory III (3)
Summer Semester (14)
HS 4371 Management and Education (3)
MG 4160 Molecular Journal Club I (1)
MG 4560 Molecular Diagnostics Clinical Rotation I (5)
MG 4570 Molecular Diagnostics Clinical Rotation II (5)
Bachelor of Science in RADIATION THERAPY
Radiation therapy involves the administration of ionizing radiation for the treatment of cancer and other related conditions. The field of Radiation Therapy presents the professional with the unique opportunity to blend the knowledge of mathematics, medical science, psychology and critical thinking while providing hands-on patient care.
Degree Offered
Bachelor of Science in Radiation Therapy
Program Administration
Program Director Shaun T. Caldwell, Ed.D.
Associate Program Director Sandra John-Baptiste, M.Ed.
Executive Advisor Eric A. Strom, M.D., F.A.C.R.
Program Information
Mission
The mission of the Radiation Therapy Program is to provide the highest quality of education to radiation therapy students through formal didactic and state-of-the-art clinical experiences that prepare the student to deliver superior patient care and treatment in all aspects of radiation therapy.
Vision
We shall be the premier provider of education for radiation therapy professionals based on best practices and research in radiation oncology.
Objectives
The UT MD Anderson Program in Radiation Therapy is designed to prepare students for a challenging career in cancer treatment through formal education including human anatomy, physiology, radiation therapy physics, radiation oncology, pathology, radiation biology, medical dosimetry, quality assurance and patient care.
Goals and Student Learning Outcomes
Our students will
- Be clinically competent.
- Be critical thinkers.
- Be effective communicators.
- Demonstrate professionalism.
Goal: Clinical Competence
Student Learning Outcomes: The student will
- Accurately assess the patient’s status before discharge from their care.
- Demonstrate reproduction of the patient’s initial setup.
- Demonstrate superior patient care skills.
Goal: Critical Thinking
Student Learning Outcomes: The student will
- Evaluate and interpret data.
- Recognize discrepancies in treatment.
- Develop solutions to clinical situations.
Goal: Effective Communication
Student Learning Outcomes: The student will
- Communicate with patients
- Demonstrate written communication skills
- Demonstrate oral presentation skills
Goal: Demonstrate Professionalism
Student Learning Outcomes: The student will
- Discuss patient information and set up out of hearing of inappropriate people.
- Assume full responsibility for their actions.
- Accept constructive criticism.
Program Admission Requirements
Admission to Radiation Therapy is competitive and holistic. Meeting the minimum requirements does not guarantee acceptance. Students pursuing a Bachelor of Science degree enter at the Junior level. Application and supporting documents must be submitted in applyUTH.
Applicants must satisfy the General Requirements for admission as listed in the Admissions section in addition to the following.
- Candidates who completed the prerequisite courses seven or more years before admission may need to update their academic skills. For specific information, contact the program director.
- A minimum GPA of 2.5 on a 4.0 scale for overall, science courses and prerequisites is required to be considered for admission. Cumulative and prerequisite GPA are factors for admission.
- Clinical site evaluation.
- Assessments to gauge knowledge in anatomy and physiology, math and physics, as well as soft skills (e.g., initiative, problem solving, decision making). The assessments will be administered on or before the interview date.
Applicants should begin the application process three to six months before the application deadline to ensure all documents are received and processed by the Office of the Registrar by the due date. Refer to the School of Health Professions How to Apply page for application dates.
Enrollment Process
Once accepted into Radiation Therapy, enrollment depends on the following factors.
- Proof of successful assessment of the Texas Success Initiative (TSI). Refer to the TSI section of this catalog.
- Ability to meet the School of Health Professions Nonacademic Technical Standards.
- Proof of current health immunizations.
- Satisfactory completion of a drug screen and background check.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Prerequisites
Several physical education and military sciences courses do not count toward discipline-specific prerequisites.
Texas Core Curriculum
Students must complete the Texas Core Curriculum and prerequisite courses elsewhere before transferring into the School of Health Professions. The courses may be taken at any regionally accredited college/university. Refer to the Texas Core Curriculum section of this catalog.
For the Two-Year Program
Students must complete a minimum of 46 SCH that includes the Texas Core Curriculum (42 SCH) and the following courses:
- 3 SCH in Pre-Calculus
- 4 SCH in Anatomy and Physiology I
- 4 SCH in Anatomy and Physiology II
- 4 SCH in College Physics I
- 4 SCH in College Physics II
Advanced Placement
The School of Health Professions accepts and/or awards credit through the following examination programs*.
- College-level examination program of the College Board
- Comprehensive departmental examinations
- Regionally accredited military training programs
*Note: The student who is admitted or readmitted will undergo an evaluation process related to awarding course credits, if applicable.
Recommendations from the School of Health Professions’ academic departments are followed regarding minimum score requirements, level of credit and amount of credit to be awarded. Program faculty are consulted to determine if credit recommendations equate to specific School of Health Professions courses. The internal comprehensive departmental examination program provides a local means for establishing knowledge of School of Health Professions course content in areas not covered by the above examination program. Programs may elect to administer examinations that cover material specific to School of Health Professions courses, with the results being reported to the Registrar.
Graduation
Each candidate for a bachelor's degree must complete a minimum of 126 SCH of coursework. Within this requirement, students must complete the following at UT MD Anderson:
- At least 40 SCH of upper-level coursework.
- At least 25% of the total SCH required must be taken at UT MD Anderson.
Upon completion of the curriculum, students will have demonstrated the professional skills necessary to plan, deliver and record a prescribed course of radiation, including proton therapy.
Students graduate in August. Upon graduation, students may be eligible to take the national certification exam administered by the ARRT.
All applicants should consult the American Registry of Radiologic Technologists website to determine examination eligibility before applying to the program. Upon passing the exam, the student is considered a certified Radiation Therapist. The awarding of the degree is not contingent upon a student passing the national certification exam.
Curriculum
The curriculum meets or exceeds the national curriculum of the ASRT. This intensive two-year program is composed of didactic and directed clinical training at affiliated hospitals. Formal lectures cover human anatomy, physiology, radiation therapy physics, radiation oncology, pathophysiology, radiation biology, treatment planning, dosimetry, quality assurance and patient care.
Accreditation
The Radiation Therapy Program is accredited by and meets the standards and guidelines of the JRCERT.
Current Affiliations
During the clinical phase of instruction, training and supervision are provided in a variety of clinical sites. Visit the Radiation Therapy Program page for a list of current affiliations.
Course Listings
The semester-by-semester schedule below includes all courses needed to graduate, but the sequence and/or course offerings are subject to change.
Two-Year Program (80 SCH)
Junior Year (44 SCH)
Fall Semester (17)
DI 2301 Principles of Radiographic Exposure I (3)
HS 4102 Professionalism and Leadership in Health Care (1)
HS 4300 Pathophysiology for Health Professions (3)
RT 3101 Simulation and Treatment Techniques I (1)
RT 3220 Clinical Education I (2)
RT 4101 Radiation Safety and Protection (1)
RT 4305 Patient Care in Radiation Oncology (3)
RT 4306 Technical Radiation Oncology (3)
Spring Semester (15)
DI 2342 Principles of Radiographic Exposure II (3)
HS 4100 Health Care Ethics (1)
HS 4303 Advanced Pathophysiology for Radiation Therapy (3)
RT 3103 Simulation and Treatment Techniques II (1)
RT 3221 Clinical Education II (2)
RT 4210 Radiobiology (2)
RT 4302 Anatomy for Radiation Oncology (3)
Summer Semester (12)
DI 4350 Introduction to CT (3)
HS 4111 Medical Law (1)
RT 3222 Clinical Education III (2)
RT 4312 Quality Management in Radiation Therapy (3)
RT 4390 Adaptive Radiation Therapy (3)
Senior Year (36 SCH)
Fall Semester (12)
DI 4300 Research Techniques in Radiologic Sciences (3)
DI 4304 Sectional Anatomy (3)
RT 4310 Radiation Therapy Physics (3)
RT 4320 Clinical Education IV (3)
Spring Semester (12)
DI 4301 Research Project (3)
RT 4311 Radiation Therapy Treatment Planning and Dosimetry (3)
RT 4313 Clinical Radiation Oncology (3)
RT 4321 Clinical Education V (3)
Summer Semester (12)
RT 3345 Directed Readings (3)
RT 4156 Individual Project (1)
RT 4295 Capstone (2)
RT 4309 Special Applications in Radiation Oncology (3)
RT 4322 Clinical Education VI (3)
Certificates
Advanced Technical Certificate in MAMMOGRAPHY
Mammography is a specialized imaging modality that uses ionizing radiation to produce high-quality, multidimensional soft-tissue breast imaging displays. This one-semester program offers radiologic technologists a pathway to expand their knowledge in mammography while completing an Advanced Technical Certificate. The program prepares the student for various careers in hospitals, clinics, and other healthcare organizations.
Certificate Offered
Advanced Technical Certificate in Mammography
Program Administration
Program Director, Advanced Imaging Programs William Undie, Ed.D.
Associate Program Director, CT, VI and M Claudia Tamara, D.D.S.
Executive Advisor Aurelio Matamoros, M.D.
Program Information
Mission
The mission of the Advanced Technical Certificate Program in Mammography is to train and create competent professionals for the performance of diagnostic studies that will have a positive impact on the prevention and management of breast cancer and other related diseases.
Vision
The Advanced Technical Mammography Certificate Program will strive to provide excellence in the academic and clinical training of future professionals while at the same time facilitating compassionate and outstanding patient care.
Program Admission Requirements
Admission to the program is competitive and holistic. Meeting the minimum requirements does not guarantee acceptance. Students pursuing an Advanced Technical Certificate in Mammography enter as a non-degree-seeking student. Application and supporting documents must be submitted in applyUTH.
Applicants must satisfy the General Requirements for admission as listed in the Admissions section in addition to the following.
- A minimum overall GPA of 2.5 on a 4.0 scale. Cumulative and prerequisite GPA are factors for admission:
- ARRT certification in Radiography (R).
- Associate’s degree or higher.
- CPR certification through the American Heart Association certification.
Applicants should begin the application process three to six months before the application deadline to ensure all documents are received and processed by the Office of the Registrar by the due date. Refer to the Mammography How to Apply page for application dates.
Enrollment Process
Once accepted into the certificate program, enrollment depends on the following factors.
- Proof of successful assessment of the Texas Success Initiative (TSI). Refer to the TSI section of this catalog.
- Ability to meet the School of Health Professions Nonacademic Technical Standards.
- Proof of current health immunizations.
- Satisfactory completion of a drug screen and background check.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Prerequisites
For the One-Semester Certificate Program
All students must have earned an associate’s degree or higher to satisfy the ARRT requirements for candidates seeking a certification after 2015. Students must be certified by the ARRT (R).
Certificate Completion
Each candidate for a certificate must complete 16 SCH of coursework and a two-day Mammography Registry Review, all of which must be taken at UT MD Anderson.
The Registry Review is preparation for the national credentialing ARRT Mammography examination. The training grants 16 continuing education credit hours (CECH) that can be used as part of the structured education requirement for ARRT. The course meets the final two days of the semester.
Upon completion of the curriculum, students will have demonstrated the professional skills necessary to work with ionizing radiation to produce medical images in diagnostic imaging or radiology departments of hospitals, and medical clinics or freestanding imaging centers.
Curriculum
The curriculum meets or exceeds the curriculum recommendations of the American Society of Radiologic Technologists (ASRT). This intensive one-semester program is composed of a didactic phase followed by directed clinical training at affiliated hospitals.
Accreditation
The Diagnostic Imaging Program is accredited by and has conformed its curriculum to the standards and guidelines published and monitored by the JRCERT.
Course Listings
The program is completed in one semester and offered twice every academic year during the Fall and Spring Semesters. Students entering the program take 16 SCH that can be applied to any further academic course offerings.
Students also take a 2-day Mammography Comprehensive Review while earning 16 CE units as approved by the Association for Medical Imaging Management.
The semester schedule below includes all courses needed for completion, but the sequence and/or course offerings are subject to change.
Postbaccalaureate Certificate in MOLECULAR GENETIC TECHNOLOGY
This certificate program is designed for bachelor's-level students with an interest in molecular genetics and its application in diagnostic procedures. Students will be introduced to the fundamental principles of molecular genetics, gene regulation and practical techniques used in clinical diagnostics. The comprehensive certificate program covers essential topics in molecular genetics and techniques such as nucleic acid extraction, amplification methods, sequencing technologies, and analysis tools for detecting and characterizing genetic mutations, infectious agents, and biomarkers associated with diseases. Emphasis is placed on understanding the concepts underlying molecular laboratory techniques, where students gain proficiency in assay composition, result interpretation, and understanding quality control measures essential for accurate and reliable molecular diagnostics in healthcare settings.
Certificate Offered
Post-Baccalaureate Certificate in Molecular Genetic Technology
Program Administration
Program Director Peter Hu, Ph.D.
Associate Program Director Vibhuti Srivastava Ph.D.
Executive Advisor Rajyalakshmi Luthra, Ph.D.
Program Information
Mission
The mission of the Certificate in Molecular Genetic Technology Program is to train existing laboratory professionals and create competent professionals for the performance of molecular diagnostic testing that will have a positive impact on the prevention and management of genetic diseases.
Vision
The Certificate in Molecular Genetic Technology Program will strive to provide excellence in the academic and clinical training of future professionals while at the same time facilitating compassionate and outstanding patient care.
Program Admission Requirements
Admission to the program is competitive and holistic. Meeting the minimum requirements does not guarantee acceptance. Students pursuing a certificate in Molecular Genetic Technology enter as a non-degree-seeking student. Application and supporting documents must be submitted in applyUTH.
Applicants must satisfy the General Requirements for admission as listed in the Admissions section in addition to the following.
- A minimum overall GPA of 2.5 on a 4.0 scale. Cumulative and prerequisite GPA are factors for admission.
- Bachelor’s degree in clinical lab sciences, biology or a related discipline or higher.
Applicants should begin the application process three to six months before the application deadline to ensure all documents are received and processed by the Office of the Registrar by the due date. Refer to the Molecular Genetic Technology How to Apply page for application dates.
Enrollment Process
Once accepted into the certificate program, enrollment depends on the following factors.
- Ability to meet the School of Health Professions Nonacademic Technical Standards.
- Proof of current health immunizations.
- Satisfactory completion of a drug screen and background check.
Nonacademic Requirements
Refer to the Nonacademic Technical Standards section of this catalog.
Certificate Completion
Each candidate for a certificate must complete 12 SCH of coursework, all of which must be taken at UT MD Anderson. Upon completion of the curriculum, students will have demonstrated an understanding of molecular diagnostic concepts and commonly used molecular techniques/tests.
Curriculum
This intensive certificate program is composed of a didactic phase only.
Course Listings
The semester schedule below includes all courses needed for completion, but the sequence and/or course offerings are subject to change.
Post-Baccalaureate Certificate in Molecular Genetic Technology
(12 SCH)
Each candidate for a certificate must complete 12 SCH of coursework all of which must be taken at MD Anderson. Upon completion of the curriculum, students will have demonstrated the understanding of molecular diagnostic concepts and commonly used molecular techniques/tests. This intensive certificate program is composed of a didactic phase only. The semester schedule below includes all courses needed for completion, but the sequence and/or course offerings are subject to change.
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