College: Graduate School of Health Sciences

This specialization focuses on protecting individuals and the environment from the harmful effects of radiation. Students will study radiobiology, dosimetry, radiation detection, and regulatory standards. The program integrates theoretical knowledge with practical skills to prepare students for careers in radiation safety, nuclear energy, medical physics, and environmental protection.

Learning Objectives:

• Understand health physics principles and their role in radiation protection.
• Develop skills in measuring and monitoring radiation levels.
• Learn techniques for evaluating and mitigating radiation risks.
• Explore the biological effects of radiation and its health implications.
• Understand the regulatory frameworks and standards governing radiation safety.
• Analyze the challenges and opportunities for working in the field of health physics.
• Develop critical thinking and problem-solving skills to address contemporary radiation safety issues.

Main Curriculum:

1. Introduction to Health Physics - Overview of the field, its history, and importance in radiation protection.
2. Radiobiology - Study of the biological effects of radiation on cells, tissues, and organisms.
3. Radiation Detection and Measurement - Techniques for detecting and measuring radiation using various tools.
4. Radiation Dosimetry - Principles of measuring and calculating the radiation doses individuals receive.
5. Radiation Protection and Safety - Strategies for designing protective measures and preventive actions to reduce radiation exposure.
6. Regulatory Standards and Compliance - Overview of national and international regulations governing radiation safety.
7. Environmental Health Physics - Techniques for monitoring and surveying radiation in the environment.
8. Emerging Trends in Health Physics - Impact of new technologies, such as advanced imaging and radiotherapy, on health physics.

Assessment Methods:

• Laboratory experiments and radiation measurement projects.
• Written assignments and research papers.
• Presentations on case studies related to radiation safety and risk assessment.
• Participation in group discussions on contemporary issues.

Recommended Textbooks:

• "Introduction to Health Physics" by Herman Cember and Thomas E. Johnson.
• "Radiation Detection and Measurement" by Glenn F. Knoll.
• "Health Physics and Radiological Health" by Thomas E. Johnson and Daniel J. Strom.

Prerequisites:

Basic knowledge in physics, biology, and chemistry.

Program Duration:

Four years, combining lectures, laboratory work, and practical projects.

Degree:

Undergraduate degree in health physics, as per the program.

Target Audience:

Undergraduate and graduate students in physics, environmental sciences, or related fields, and professionals seeking to enhance their skills.

This specialization prepares students to protect individuals and the environment from radiation hazards, leveraging theoretical knowledge, practical skills, and emerging trends in health physics.