<?xml version="1.0" encoding="UTF-8"?>
<course>
  <academic-career-val type="integer">1</academic-career-val>
  <assumed-knowledge-and-required-skills></assumed-knowledge-and-required-skills>
  <available-through-customised-graduate-programs type="integer" nil="true"></available-through-customised-graduate-programs>
  <co-teaching-course-id type="integer" nil="true"></co-teaching-course-id>
  <consent-description></consent-description>
  <consent-required type="boolean">false</consent-required>
  <corequisites></corequisites>
  <cost-considerations></cost-considerations>
  <course-code>ASTR3002</course-code>
  <course-description>This course covers three main topics. Compact Objects: white dwarfs, neutron stars and black holes. Theoretical Cosmology: dark matter and dark energy, Universe models. Observational Cosmology: historical observations, distances, accelerating Universe and the cosmic background radiation.</course-description>
  <course-group>C</course-group>
  <eligibility></eligibility>
  <filled-flag type="integer">1</filled-flag>
  <first-year-course type="boolean">false</first-year-course>
  <id type="integer">10295</id>
  <incompatibility>&lt;p&gt;with MATH3052.&lt;/p&gt;</incompatibility>
  <indicative-assessment>Assignments involving problem solving, computational, numerical methods, statistical, mathematical and essay writing components. </indicative-assessment>
  <indicative-reading-list></indicative-reading-list>
  <is-active type="integer">1</is-active>
  <is-public type="integer">1</is-public>
  <learning-outcomes>&lt;p&gt;On completion of this course students will be able to:&lt;/p&gt;&lt;p&gt;Apply the concepts of general relativity and quantum mechanics to the study of white dwarf, neutron stars and black holes; efficiently utilise tensor calculus and general relativity in the study of compact objects and cosmology; understand concepts and solve problems in compact star research and physical cosmology; understand and apply the mathematical and physical basis for modern cosmology; understand how the tools of observational astronomy are utilised to understand the evolution of the Universe; use computational and statistical tools to solve problems; write succinctly and coherently in these areas of science.&lt;/p&gt;</learning-outcomes>
  <lock-version type="integer">9</lock-version>
  <long-title>Black Holes and the Universe</long-title>
  <max-units type="integer">6</max-units>
  <min-units type="integer">6</min-units>
  <other-information></other-information>
  <preliminary-reading></preliminary-reading>
  <prescribed-texts></prescribed-texts>
  <progress-units type="integer">6</progress-units>
  <quota></quota>
  <recommended-courses>PHYS3001 and one of MATH2306, MATH2406</recommended-courses>
  <requisite-statement>&lt;p&gt;PHYS2013, and one of MATH2305, MATH2405&lt;/p&gt;</requisite-statement>
  <restricted-program-entry type="integer" nil="true"></restricted-program-entry>
  <short-title>Black Holes and the Universe</short-title>
  <student-contribution-band>Band 2 NP</student-contribution-band>
  <subject>Astronomy and Astrophysics</subject>
  <technology-requirements></technology-requirements>
  <updated-by>u4046746</updated-by>
  <version type="integer">9</version>
  <workload></workload>
  <year type="integer">2010</year>
</course>
