You will delve into simulation systems and will be able to evaluate the side effects of each therapy"  

Radiophysics Applied to Radiotherapy is an essential discipline in the field of Oncology Nursing. For example, it serves to collaborate in the identification and prevention of possible problems in the administration of radiotherapy. In tune with this, these experts are often in charge of explaining to patients the possible side effects of the therapies, as well as the precautions they should take. For this reason, it is important for nurses to gain in-depth knowledge about ionizing radiation and its effect on tissues. 

In order to support them in this task, TECH has developed an advanced program that will train specialists in the use of radiation to optimize the diagnosis and treatment of multiple conditions. With the supervision of a well-versed teaching team, the curriculum will analyze the interaction between ionizing radiation and biological tissues, unraveling the resulting cellular and biological effects. It will also address the intricate repair mechanisms and evaluate the biological efficiency of different ionizing radiation.  

Likewise, the clinical practice of External Radiation Therapy will be delved into, highlighting the importance of radioprotection and associated risk management, delving into physical and clinical dosimetry. Regarding the latter, special emphasis will be placed on the use of computer tools for problem solving. Finally, each stage of the radiotherapy process will be examined, from simulation to treatment with linear electron accelerators. 

It should be noted that the approach of this program reinforces its innovative character. Along these lines, TECH offers a 100% online educational environment, tailored to the needs of busy professionals seeking to advance their careers. Through the Relearning, methodology, based on the repetition of key concepts to fix knowledge and facilitate learning, flexibility is combined with a robust pedagogical approach. In addition, graduates will have access to an extensive library of innovative multimedia resources.  

Do you want to implement the most advanced quality assurance programs in Physical Dosimetry? Achieve it with this program in only 150 hours”

This Postgraduate diploma in Radiophysics Applied to Radiotherapy contains the most complete and up-to-date scientific program on the market. The most important features include:

• The development of practical cases presented by experts in Radiophysics applied to Radiotherapy 
• The graphic, schematic, and practical contents with which they are created, provide scientific and practical information on the disciplines that are essential for professional practice
• Practical exercises where self-assessment can be used to improve learning
• Its special emphasis on innovative methodologies  
• Theoretical lessons, questions to the expert, debate forums on controversial topics, and individual reflection assignments 
• Content that is accessible from any fixed or portable device with an Internet connection 

You will obtain specialized knowledge for clinical practice in the various areas where ionizing radiation is present" 

The program’s teaching staff includes professionals from the field who contribute their work experience to this educational program, as well as renowned specialists from leading societies and prestigious universities.  

The multimedia content, developed with the latest educational technology, will provide the professional with situated and contextual learning, i.e., a simulated environment that will provide immersive education programmed to learn in real situations.  

This program is designed around Problem-Based Learning, whereby the professional must try to solve the different professional practice situations that arise during the academic year For this purpose, the students will be assisted by an innovative interactive video system created by renowned and experienced experts.   

You will perform manual calculations of Monitor Units and ensure the accuracy of treatments"

You will achieve your objectives thanks to TECH's didactic tools, including explanatory videos and interactive summaries"

This curriculum is a helpful guide to the safety and care of patients receiving radiation therapy. Designed by a well-versed faculty, the curriculum will delve into concepts related to the interaction of radiation with organ tissues. The didactic materials will also enable nurses to use modern technological tools of physical dosimetry, including computed tomography, to obtain cross-sectional images of anatomical structures. In addition, training will emphasize the importance of accurate treatment planning, offering techniques to verify outcomes using verification metrics.

You will demonstrate your commitment to Medical Oncology and drive crucial advances in the fight against Cancer”

Module 1. Radiobiology

1.1. Interaction of Radiation with Organic Tissues

1.1.1. Interaction of Radiation with Tissues
1.1.2. Interaction of Radiation with Cells
1.1.3. Physical-Chemical Response

1.2. Effects of Ionizing Radiation on DNA

1.2.1. Structure of ADN
1.2.2. Radiation-induced Damage
1.2.3. Damage Repair

1.3. Effects of Radiation on Organic Tissues

1.3.1. Effects on the Cell Cycle
1.3.2. Irradiation Syndromes
1.3.3. Aberrations and Mutations

1.4. Mathematical Models of Cell Survival

1.4.1. Mathematical Models of Cell Survival
1.4.2. Alpha-Beta Model
1.4.3. Effect of Fractionation

1.5. Efficacy of Ionizing Radiations on Organic Tissues

1.5.1. Relative Biological Efficacy
1.5.2. Factors Altering Radiosensitivity
1.5.3. LET and Oxygen Effect

1.6. Biological Aspects according to the Dose of Ionizing Radiations

1.6.1. Radiobiology at Low Doses
1.6.2. Radiobiology at High Doses
1.6.3. Systemic Response to Radiation

1.7. Estimation of the Risk of Ionizing Radiation Exposure

1.7.1. Stochastic and Random Effects
1.7.2. Risk Estimation
1.7.3. ICRP Dose Limits

1.8. Radiobiology in Medical Exposures in Radiotherapy

1.8.1. Isoeffect
1.8.2. Proliferation Effect
1.8.3. Dose-Response

1.9. Radiobiology in Medical Exposures in Other Medical Exposures

1.9.1. Brachytherapy
1.9.2. Radiodiagnostics
1.9.3. Nuclear medicine

1.10. Statistical Models in Cell Survival

1.10.1. Statistical Models
1.10.2. Survival Analysis
1.10.3. Epidemiological Studies

Module 2. External Radiotherapy. Physical Dosimetry

2.1. Linear Electron Accelerator. Equipment in External Radiotherapy

2.1.1. Linear Electron Accelerator (LEA)
2.1.2. External Radiotherapy Treatment Planner (TPS)
2.1.3. Record Keeping and Verification System
2.1.4. Special Techniques
2.1.5. Hadrontherapy

2.2.  Simulation and Localization Equipment in External Radiation Therapy

2.2.1. Conventional Simulator
2.2.2. Computed Tomography (CT) Simulation
2.2.3. Other Image Modalities

2.3. Image-guided External Radiation Therapy Equipment

2.3.1. Simulation equipment
2.3.2. Image-guided Radiotherapy Equipment. CBCT
2.3.3. Image-guided Radiotherapy Equipment. Planar Image
2.3.4. Auxiliary Localization Systems

2.4. Photon Beams in Physical Dosimetry

2.4.1. Measuring Equipment
2.4.2. Calibration Protocols
2.4.3. Calibration of Photon Beams
2.4.4. Relative Dosimetry of Photon Beams

2.5. Electron Beams in Physical Dosimetry

2.5.1. Measuring Equipment
2.5.2. Calibration Protocols
2.5.3. Calibration of Electron Beams
2.5.4. Relative Dosimetry of Electron Beams

2.6. Implementation of External Radiotherapy Equipment

2.6.1. Installation of External Radiotherapy Equipment
2.6.2. Acceptance of External Radiotherapy Equipment
2.6.3. Initial Reference Status (IRS)
2.6.4. Clinical Use of External Radiotherapy Equipment
2.6.5. Treatment Planning Systems

2.7. Quality Control of External Radiotherapy Equipment

2.7.1. Quality Control of Linear Accelerators
2.7.2. Quality Control in the IGRT Equipment
2.7.3. Quality Control in Simulation Systems
2.7.4. Special Techniques

2.8. Quality Control of Radiation Measuring Equipment

2.8.1. Dosimetry
2.8.2. Measuring Tools
2.8.3. Mannequins Employed

2.9. Application of Risk Analysis Systems in External Radiation Therapy

2.9.1. Risk Analysis Systems
2.9.2. Error Reporting Systems
2.9.3. Process Mapping

2.10. Quality Assurance Programming in Physical Dosimetry

2.10.1. Responsibilities
2.10.2. Requirements in External Radiotherapy
2.10.3. Quality Assurance Programming Clinical and Physical Aspects
2.10.4. Maintenance of Quality Control Program

Module 3. External Radiotherapy. Clinical Dosimetry

3.1. Clinical Dosimetry in External Radiotherapy

3.1.1. Clinical Dosimetry in External Radiotherapy
3.1.2. Treatment in External Radiotherapy
3.1.3. Beam Modifying Elements

3.2. Stages of Clinical Dosimetry of External Radiotherapy

3.2.1. Simulation Stage
3.2.2. Treatment Planning
3.2.3. Treatment Verification
3.2.4. Linear Electron Accelerator Treatment

3.3. Treatment Planning Systems in External Radiotherapy

3.3.1. Models in Planning Systems
3.3.2. Calculating Algorithms
3.3.3. Utilities of Planning Systems
3.3.4. Imaging Tools for Planning Systems

3.4. Quality Control of Planning Systems in External Radiotherapy

3.4.1. Quality Control of Planning Systems in External Radiotherapy
3.4.2. Initial Reference State
3.4.3. Periodic Controls

3.5. Manual Calculation of Monitor Units (MUs)

3.5.1. Manual Control of MUs
3.5.2. Intervening Factors in Dose Distribution
3.5.3. Practical Example of Calculation of UMs

3.6. Conformal 3D Radiotherapy Treatments

3.6.1. 3D Radiotherapy (RT3D)
3.6.2. Photon Beam RT3D Treatments
3.6.3. Electron Beam RT3D Treatments

3.7. Advanced Intensity Modulated Treatments

3.7.1. Modulated Intensity Treatments
3.7.2. Optimization
3.7.3. Specific Quality Control

3.8. Evaluation of External Radiation Therapy Planning

3.8.1. Dose-volume Histogram
3.8.2. Conformation Index and Homogeneity Index
3.8.3. Clinical Impact of the Planning
3.8.4. Planning Errors

3.9 Advanced Special Techniques in External Radiotherapy

3.9.1. Radiosurgery and Extracranial Stereotactic Radiotherapy
3.9.2. Total Body Irradiation
3.9.3. Total Body Surface Irradiation
3.9.4. Other Technologies in External Radiotherapy

3.10. Verification of Treatment Plans in External Radiotherapy

3.10.1. Verification of Treatment Plans in External Radiotherapy
3.10.2. Treatment Verification Systems
3.10.3. Treatment Verification Metrics

Acquire knowledge without geographic limitations or pre-established timing”