CourseBachelor DegreeBRadiationSc

M2017 Bachelor of Radiation Sciences

Faculty of Medicine, Nursing and Health Sciences

Bachelor of Radiation Sciences (M2017) is a 3 years full-time, 144-credit-point, bachelor degree course from the Faculty of Medicine, Nursing and Health Sciences, taught at Clayton. Map your units semester by semester with the MonMap planner.

Credit points
144
Duration
3 years full time
Campus
Clayton
On campus
Guaranteed ATAR
75 (Indigenous=50)

This is the 2023 handbook entry. See the 2026 entry.

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Requisite map

Overview

The Bachelor of Radiation Sciences combines scientific and technical knowledge with studies in health and patient care. In this course you will cover topics including radiation physics and instrumentation, radiobiology, imaging anatomy, physiology, epidemiology, oncology, radiation therapy*, cancer management strategies, general radiography, medical ultrasound, computed tomography and magnetic resonance imaging. You will develop beginner-level clinical skills in radiation therapy planning, radiation therapy treatment, and patient care and management. Psychology, medico-legal and ethical aspects of health care, cultural and communicative competence, and occupational health and safety are also addressed.

*Radiation therapy uses ionising radiation for the treatment of cancer and benign conditions.

SPECIALISATIONS AVAILABLE:

  • Radiation Sciences
  • Informatics

Course structure

Part A. Common units90 credit points
Part B. Specialisation units54 credit points
You must complete one of the following specialisations

Radiation sciences

54 credit points
You must complete the following units and one unit from each of the elective lists below.

Note 1: Eligibility for enrolment into RTS4104 will be based on the WAM for RAD1081, RAD1022 and RTS2101 and the top 30 ranked students, who have applied for entry to the Master of Radiation Therapy, will be able to enrol in RTS4104. Working with Children Check, Police Check, and Immunisation requirements apply to RTS4104.

Note 2: Students who choose BEX2750 are advised to complete it in Summer B between years 1 and 2, or between years 2 and 3. Enrolment in Summer B after year 3 will mean that your graduation will be delayed.
The handbook's description of this structure

The course develops through four themes: Theme 1. Personal and professional development; Theme 2. Population, communities, health and illness; Theme 3. Scientific basis of health care practice; and Theme 4. Professional practice skills. These themes are interwoven in units throughout the course, structured in two parts: Part A. Common units and Part B. Specialisation units.

Theme 1. Personal and professional development

These studies will develop an understanding of the roles, responsibilities and expectations of health professionals and the personal and professional attributes needed in the workplace. These include communication and interpersonal skills, teamwork, critical thinking, ethical and legal issues, and reflective practice. Research methodologies and the application of research to the field of health will also be studied.

Theme 2. Population, communities, health and illness

The focus of these studies is the social, environmental and behavioural contexts of health, disease and injury and broad societal issues such as health promotion, the application of epidemiology and statistics in the assessment of health risk in populations, public health, community diversity, population and global health. Students will also develop a sound understanding of evidence-based practice.

Theme 3. Scientific basis of health care practice

These studies provide the foundation scientific knowledge of human systems and technology that are required to become an expert in the field of radiation sciences. This will include physical, biomedical, mathematical and behavioural sciences.

Theme 4. Professional practice skills

These studies address the knowledge and skills for radiation therapy, allied health and related health disciplines. The focus will be on the incorporation of the best available research evidence with the clinical reasoning skills of assessment, management, evaluation and health care across the lifespan and across a spectrum of environments and circumstances. A series of electives in year three provide students with options to develop discipline specific knowledge and wider opportunities to enhance their problem solving and collaborative skills.

For students in the Informatics Specialisation:

Informatics
These studies provide core knowledge in information technology including basic programming skills, network design, managing databases and IT projects, maintaining system and user security as well as integrity of data and digital images.

Course progression map

The course progression map provides guidance on unit enrolment for each semester of study.

This course comprises 144 points structured in two parts: Part A Common units (90 points) and Part B. Specialisation units (54 points)

Units are 6 points unless otherwise stated.

Part A. Common units (90 points)

You must complete:

BMA1011 Foundations of anatomy and physiology for health practice 1
BMA1012 Foundations of anatomy and physiology for health practice 2
HSC1100 Research and evidence in health
RAD1081 Foundations in medical radiation physics
RAD1022 Medical Radiation Science: Physical principles
RAD2001 Medical Imaging Science: Radiographic principles
RAD2002 Medical Imaging anatomy
RAD2003 Medical Imaging Science: Nuclear Medicine
RAD2004 Pathophysiology for Medical Radiation Science 1
RAD2005 Medical Radiation Science: Professional skills 1
RAD2006 Pathophysiology for Medical Radiation Science 2
RAD3002 Medical Imaging Science: Computed tomography & Digital Image processing
RAD3061 Medical Imaging Science (Ultrasound)
RAD4503 Physical foundations of magnetic resonance imaging
RTS2101 Fundamentals of cancer and its management

Part B. Specialisation units (54 points) 

Radiation Sciences

You must complete:

RAD2007 Medical Radiation Science: Professional skills 2
RTS4101 Radiation therapy science 1
RTS4103 Radiation therapy science 3
FIT1052 Digital futures: IT shaping society
PBH2001 Foundations of epidemiology
HSC1400 Healthcare systems

Plus one of the following units:

  • RTS4104 Radiation therapy principles and practice 1*
  • OCC3041 Skills for evidence based practice 2
  • OCC3061 Health promotion in occupational therapy
  • BEX2750 Monash innovation guarantee**

Plus one of the following units:

  • FIT3180 Data management for health informatics
  • BMS1042 Public health and preventive medicine
  • PBH3012 Translating research into practice
  • BEX2750 Monash innovation guarantee**

Plus one of the following units:

  • RTS4105 Radiation therapy principles and practice 2
  • FOR3001 Principles of forensic medicine and science
  • AHC3001 Communication in health and disability
  • BEX2750 - Monash innovation guarantee**

*NOTE: Eligibility for enrolment into RTS4104 will be based on the WAM for RAD1081, RAD1022 and RTS2101, and the top 30 ranked students, who have also applied for entry to the Master of Radiation Therapy, will be able to enrol in RTS4104. Working with Children Check, Police Check, and Immunisation requirements apply to RTS4104.

**NOTE: Students who choose BEX2750 are advised to complete it in Summer B between years 1 and 2, or between years 2 and 3. Enrolment in Summer B after year 3 will mean that your graduation will be delayed.

Radiation Sciences (Informatics)

You must complete:

FIT1043 Introduction to data science
FIT1047 Introduction to computer systems, networks and security
FIT1049 IT professional practice
FIT1051 Programming fundamentals in java
FIT2001 System development
FIT2002 IT project management
FIT2094 Databases
FIT3146 Maker lab
FIT3179 Data visualisation

Learning outcomes

These course outcomes are aligned with the Australian Qualifications Framework and Monash Graduate Attributes.

Upon successful completion of this course it is expected that you will be able to:

  1. 1

    demonstrate broad knowledge and understanding of the scientific concepts underpinning radiation physics including digital image processing, magnetic resonance imaging and medical ultrasound

  2. 2

    synthesise knowledge of the practice of general radiography, radiation therapy, medical ultrasound, computed tomography and magnetic resonance imaging for application in the field of medical radiation science

  3. 3

    identify relevant aspects of the theories informing the psychosocial basis of illness and disease for broad application with diverse patient populations and contexts

  4. 4

    apply knowledge of imaging anatomy, human health and disease, and health promotion in the health professional context

  5. 5

    collect, organise, analyse, interpret and report health data

  6. 6

     exercise personal, professional and social responsibility as a global citizen.

  7. 7

    Radiation sciences specialisation students will be able to:
    demonstrate knowledge and understanding at the beginner level of practice the protocols and techniques associated with radiation treatment and planning processes

  8. 8

    Radiation sciences specialisation students will be able to: 
    apply knowledge of the biological consequences of ionising and non-ionising radiation and scientific principles informing radiation dosimetry and radiation safety to the radiation therapy professional context

  9. 9

    Radiation sciences specialisation students will be able to: 
    communicate effectively with patients and the inter-professional team using a variety of formats

  10. 10

    Radiation sciences specialisation students will be able to: 
    critically apply ethical concepts and knowledge of the Australian health system and medico- legal framework to the practice of radiation therapy

  11. 11

    Informatics specialisation students will be able to: 
    apply good programming practices and security controls in accordance with industry standards and professional legal and ethical frameworks

  12. 12

    Informatics specialisation students will be able to: 
    use data modelling and database development tools to manage the acquisition, storage, retrieval and use of health information

  13. 13

    Informatics specialisation students will be able to: 
    analyse and evaluate various strategies used by an operating system in managing the system resources and running applications

  14. 14

    Informatics specialisation students will be able to: 
    select, justify and use project management techniques and tools for IT projects

Entry requirements

Guaranteed ATAR and selection rank

75 (Indigenous=50)

Other applicants

Applicants must have completed the VCE subject prerequisites or equivalent university units.

Applicants who have completed Year 12 or above:
This course uses the entire academic record as part of its selection considerations. To be considered on your tertiary results alone you must complete at least one year of full time study (48 credit points) of a recognised university degree with a minimum average mark required is 70%. These are minimum requirements, admissions to this course is competitive and applicants may need to meet a higher requirement to be offered a place

English language

Monash Level B: IELTS (Academic): 6.5 (with individual band scores of Writing: 6.0, Listening: 6.5, Reading: 6.5 and Speaking: 6.0); or Pearson Test of English (Academic):  score of 58 overall with minimum scores: Writing 50, Listening 58, Reading 58, Speaking 50; or TOEFL Internet-based test: score of 79 overall with minimum scores: Writing 21, Listening 20, Reading 19, Speaking 18; or Equivalent approved English test

Pathways

Radiation Sciences (Indigenous Entry)
Monash Transition Program

More information

Progression to further studies

Successful completion of this course with a WAM of 65, may provide a pathway to the Master of Radiation Therapy (M6004) with advanced standing. 

Successful completion of this course may also provide a pathway to the Master of Medical Ultrasound (M6005).

Notes for students

You are required to study some units at Caulfield campus.

Other information

The Bachelor of Radiation Sciences combines scientific and technical knowledge with studies in health and patient care. In this course you will cover topics including radiation physics and instrumentation, radiobiology, imaging anatomy, physiology, epidemiology, oncology, radiation therapy*, cancer management strategies, general radiography, medical ultrasound, computed tomography and magnetic resonance imaging. You will develop beginner-level clinical skills in radiation therapy planning, radiation therapy treatment, and patient care and management. Psychology, medico-legal and ethical aspects of health care, cultural and communicative competence, and occupational health and safety are also addressed.

*Radiation therapy uses ionising radiation for the treatment of cancer and benign conditions.

SPECIALISATIONS AVAILABLE:

  • Radiation Sciences
  • Informatics

Contacts

Academic Coordinator
Associate Professor Caroline Wright
Ms Lori Boyd

Common questions

How long is Bachelor of Radiation Sciences?

3 years full time, 144 credit points. At 24 credit points a semester, that is 6 semesters of full-time study.

What ATAR do I need for Bachelor of Radiation Sciences?

The guaranteed ATAR listed for 2023 entry is 75 (Indigenous=50).

Where can I study Bachelor of Radiation Sciences?

At Clayton.

How do I plan my Bachelor of Radiation Sciences units?

Open the course in the MonMap planner. It lays out your semesters, checks prerequisites as you drag units in, and tracks the credit points each requirement still needs.

Course details

Qualification
Bachelor Degree
AQF level
Level 7
Credit points
144
Full time
3 Years
Maximum time
8 years
Faculty
Faculty of Medicine, Nursing and Health Sciences
CRICOS code
0100635 (Informatics only)
Abbreviation
BRadiationSc
Award titles
Bachelor of Radiation Sciences(Informatics)Bachelor of Radiation Sciences
Handbook years
2020202120222023202420252026