aos
Students who commenced study in 2016 should refer to this area of study entry for direction on the requirments; to check which units are currently available for enrolment, refer to the unit indexes in the the current edition of the Handbook. If you have any queries contact the managing faculty for your area of study.
Commencement year
This area of study entry applies to students commencing this course in 2016 and should be read in conjunction with the relevant course entry in the Handbook.
Any units listed for this area of study relate only to the 'Requirements' outlined in the Faculty of Science component of any bachelors double degrees.
Unit codes that are not linked to their entry in the Handbook are not available for study in the current year.
Managing faculty
Offered by
School of Physics and Astronomy
Coordinator
Dr Jasmina Lazendic-Galloway (Level one); Dr Duncan Galloway (Level two); Dr Michael Brown (Level three); Professor Michael Morgan (Honours)
Websites
Location
Astrophysics is the science that endeavours to understand the Universe and its contents through observations and the applications of physical laws. The phenomena we seek to explain include the distribution of matter on the largest scales, and the nature and behavior of celestial objects; these objects include galaxies and quasars, stars and planets, comets, pulsars and black holes. Astrophysics links the smallest and largest objects in the Universe, from cosmic rays to super clusters of galaxies. The subject deals with big questions, such as the ultimate fate of the Universe and the possibility of extra-terrestrial life. We address these questions by using theory, observations made with the largest telescopes and calculations done on the world's largest supercomputers. Astronomical observations are made using a multitude of different telescopes located around the globe and in space. These telescopes gather data from across the entire electromagnetic spectrum.
Monash is home to world-leading experts in observational and theoretical astrophysics, whose expertise contributes directly to the content of the undergraduate astrophysics program. The program will introduce you to all of the skills and tools required in modern astronomy and astrophysics, from observing with sophisticated telescopes to the development of numerical codes for supercomputers. We are also developing new ways of teaching physics and astronomy. At first year this centres on the Physics and Astronomy Collaborative-learning Environment (PACE). First year classes are held in the PACE Studios which are custom-designed to encourage independent learning, and to promote the problem solving, effective communication and team work highly valued by employers. We are forging a community of students who are proactive learners, able to apply their knowledge and skills in creative ways.
Modern astrophysics draws heavily on physics, mathematics, computation and numerical analysis, and the Monash astrophysics program provides excellent training in both contemporary science and cutting-edge problem-solving. So our graduates find work in areas that require analytical people with highly developed problem-solving skills; this includes government, finance, business, private industry, science journalism and teaching, as well as research laboratories, universities and planetariums. For those who wish to pursue studies beyond their undergraduate degree, our postgraduate program can equip those who intend to pursue a professional career in astronomy or astrophysics.
Astrophysics is listed in S2000 Bachelor of Science, S3001 Bachelor of Science Advanced - Global Challenges (Honours) and S3002 Bachelor of Science Advanced - Research (Honours) at Clayton as a major, extended major or minor.
In addition to achieving the broad outcomes of their course, students successfully completing this major and extended major will be able to:
Except for some units at level 1, most astrophysics and physics units have mathematics prerequisites such as: MTH1020 Analysis of change, MTH1030 Techniques for modelling, MTH2010 Multivariable calculus and MTH2032 Differential equations with modelling.
Note 1: Students in the double degree course with Engineering complete ENG1090 and/or ENG1005 instead of MTH1020 and/or MTH1030 and either ENG2005 or ENG2006 from 2017 instead of MTH2010.
12 points at level 1 and 12 points at level 2.
Students complete:
(a.) Two level 1 units (12 points) from the following:
Note 2: ASP1010 and ASP1022 are descriptive and introductory and accessible to students without any specific background in science or mathematics and are particularly suitable as standalone electives.
Note 3: Students who have passed physics at year 12 (or equivalent) should take PHS1011; it extends students' existing knowledge and skills in physics. Students without year 12 physics should take PHS1080. Students with a specific interest in the relation of physics to biological systems can choose PHS1031.
Note 4: Students intending to do an extended major or complete second or third year PHS units need to take PHS1022 at level 1.
(b.) The following two level 2 units (12 points)
12 points at each of level 1 and level 2, and 24 points at level 3.
Students complete:
(a.) The requirements for a minor in Astrophysics including two units of level 1 Physics (24 points)
(b.) Four level 3 units (24 points) chosen from:
* Enrolment in these units requires approval by the School for Physics and Astronomy level three coordinator.
No more than 18 points at level 1 and at least 24 points at level 3.
Students complete:
(a.) The requirements for a major in Astrophysics (48 points), ensuring that PHS1022 is one of the units taken at level 1
(b.) Four additional units (24 points) from the list (b.) under the major or from the following, including all level 3 ASP units from list b), and no more than one unit from list (a.) under the minor:
* Note that PHS1022 is a prerequisite for these units and needs to be one of the units taken at level 1.
24 points of relevant level 3 Astrophysics or Physics units.
Refer to S3701 Bachelor of Science (Honours) for full details.
Successful completion of this area of study can be counted towards meeting the requirements for the following single degrees:*
Students in other single bachelor's degrees may be eligible to complete the minor or major by using 24 or 48 points of their free electives, however need to be aware that additional maths supporting units may also be required.
Successful completion of this area of study can be counted towards meeting the requirements for the Bachelor of Science component in the following double degrees:*
* Students cannot complete a minor, major or extended major in the same area of study.