国际学生入学条件
You should have, or expect to achieve, at least a 2:1 honours degree (or equivalent) in mechanical engineering, continuum mechanics, computer science, materials science, physics or a related subject. A relevant master's degree and/or experience in one or more of the following will be an advantage: mechanical engineering, continuum mechanics, computer science, materials science, biomedical engineering.
IELTS: 6.5 Overall with 6.0 in each individual element.
TOEFL iBT: Overall score of 92, with not less than 22 in each test
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IDP—雅思考试联合主办方

雅思考试总分
6.5
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雅思考试指南
- 雅思总分:6.5
- 托福网考总分:92
- 托福笔试总分:160
- 其他语言考试:Pearson Test of Academic English (PTE)- 62 overall with no less than 55 in all subtests
CRICOS代码:
申请截止日期: 请与IDP顾问联系以获取详细信息。
课程简介
拉夫堡大学在研究强度(REF2014)方面是英格兰排名前十的大学,并且有资格提交给REF的拉夫堡学术人员中有66%的杰出工作被评为“世界领先”。或“国际一流”,而全国平均水平为43%。<br>在选择拉夫堡进行研究时,您将与该领域的领导者一起工作。您将受益于我们的全面支持和指导,包括量身定制的职业建议,以帮助您在研究和未来职业中取得成功。<br>项目详细信息:在过去的二十年中,材料力学作为一门学科经历了复兴。主要原因是不断引入具有非凡的微观结构,性能和性能的新材料(甚至它们的类别)。碳纳米管,量子点,块状金
In the last two decades, Mechanics of Materials as a discipline has experienced a type of revival. The main reason for this has been a continuing introduction of new materials (or even their classes) with extraordinary microstructures, properties and performance. Carbon nanotubes, quantum dots, bulk metallic glasses and graphene are some of the examples. This revival process was additionally enhanced by an application-related drive to expose these-as well as previously known and used- materials to harsher conditions: high strains, strain rates, loads and temperatures as well as combinations of various loading and environmental factors. Recent developments in aerospace, energy, automotive and defence industries as well as in microelectronics were possible thanks to extended usability envelopes for various components and structures. The Mechanics of Advanced Materials Research Group carries out multi-disciplinary research into the response of advanced engineering and bio-materials to various types of external loading and environmental conditions, using a combination of analytical, numerical and experimental techniques. Analysis of deformation processes, damage evolution as well as failure initiation and development allows us to predict the properties, performance, reliability and structural integrity of modern materials and the components and structures made from them. Projects in this broad area are welcome. Among the materials we are currently working with are composites and nanocomposites, polymers and adhesives, steels and alloys, metallic glasses, biological and biomedical materials, hydrogels, materials for microelectronics, sports materials, ceramics and ceramic coatings, polymeric foams and non-woven fabrics.
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