Master of Materials Technology
University of New South Wales - UNSW
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Description
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Requierments
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Study options
For international students
For entry into this degree, you must have one of the following: a four-year bachelors degree with a minimum weighted average mark (WAM) of 65 in a cognate science or engineering discipline (e.g., materials science and engineering, chemistry, chemical engineering, mineral engineering and mechanical engineering) a bachelors degree with a minimum weighted average mark (WAM) of 50-65 in a cognate science or engineering discipline and approximately five years professional experience in a relevant field such as in the materials processing or testing industry an honours degree at a recognised university a graduate certificate or graduate diploma in the materials sciences with a minimum WAM of 65. English Language Requirements: IELTS: 6.5 overall (min. 6.0 in each subtest); TOEFL IBT (Internet Based): 90 overall (min. 23 in writing, 22 in reading, listening and speaking); Pearson (PTE - Academic): 64 overall (min. 54 in each subtest); C1 Advanced Cambridge: 176 overall (min. 169 in each subtest); C2 Proficiency Cambridge: 180 overall (min. 180 in each subtest); UNSW Global University English Entry Course (UEEC): Successful completion with a minimum overall grade of C+ and a minimum grade of C in the writing component.
2 Years - Full time
About
Concrete, which is made using industrial waste from steel manufacturing and coal-fired power stations, is being used in a trial in the roads of Sydney for the first time in the world.
UNSW Sydney researchers and the CRCLCL, CRC for Low Carbon Living will use these trial results to create industry guidelines for the very first set of geopolymer concrete.
“While we’ll monitor the road performance for up to five years, a lot of the data collected in the first three to 12 months of this world-first trial will be used to confirm our models and strengthen our predictions. Concrete contributes 7% of all greenhouse gas emissions and in 2018 the world produced about 4.1 billion tonnes of cement, which contributed about 3.5 billion tonnes of CO2. Alternative, low-CO2 concrete materials offer potential benefits in reducing the greenhouse gas emissions associated with conventional concrete. This trial is important because we need demonstration projects to accurately assess the performance of geopolymer over time so that there can be broader uptake,” said Craig Heidrich, executive director of Australian (Iron and Steel) Association and Ash Development Association.
According to the associate professor of sustainability research at UNSW, Dr Tommy Wiedmann, if all concrete produced was geopolymer in place of traditional concrete for one year - 12,000 kilotons of carbon di oxide would be saved.