国际学生入学条件
While grade point averages and test scores are important, most programs consider a number of factors for admission. In general, most graduate programs require:
A bachelor's degree (or higher) or the equivalent from an accredited, government-recognized university. These degrees are generally four-year-long programs.
B average or higher from your undergraduate study (3.0/4.0 GPA, or equivalent).
3 letters of recommendation.
A personal statement.
Official transcripts for all post-secondary coursework completed.
Transcripts reflecting all undergraduate and/or post-baccalaureate study from each international and U.S. college/university. Departments can begin the review of an application with uploaded unofficial transctips. If offered admission, you will be required to supply official transcripts. Official transcripts are those that come directly to MSU from the previously attended university. If needed, you may need to supply an English translation and transcription to US standards.
Internet-based TOEFL Test (iBT) 80
Paper-based TOEFL Test (PBT) 550
IELTS 6.5
Duolingo - 120
MSU reserves the right to question the evaluation of all non-U.S. academic credentials/transcripts. We recommend using an accredited translation/transcription company.
Three (3) Year Bachelor's Degrees: MSU accepts a three year Bachelor's degree from applicants. You are welcome to submit an application which will be reviewed by the department to determine whether you are a strong enough candidate to be admitted. If admitted, you may be asked to take some undergraduate courses at the start of your graduate degree at MSU to strengthen your background
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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:80
- 托福笔试总分:550
- 其他语言考试:Duolingo - 120
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
D'Urso小组的研究追求新的精度测量并解决了基本的物理问题。我们利用悬浮在真空中的磁性,光学和Paul阱中的微粒和纳米颗粒进行灵敏的测量,并控制与环境的耦合。最终,我们正在观察宏观物体中的量子行为,这可能会启用测量重力,惯性制导甚至重力波检测的新技术。量子材料和纳米光学小组研究了新材料系统的光学,电子和量子特性,这些新材料系统是下一代技术感兴趣的领域,包括量子计算,量子信息科学,人工光收集和高性能传感。
The research in the D'Urso group pursues new precision measurements and addresses fundamental physics questions. We utilize microparticles and nanoparticles levitated in magnetic, optical, and Paul traps under vacuum to make sensitive measurements with controlled coupling to the environment. Ultimately, we are pursuing the observation of quantum behavior in macroscopic objects, which could enable new techniques for measuring gravity, for inertial guidance, and even for gravity wave detection. Two specific goals we are currently pursuing include fundamental tests of quantum mechanics including gravitational decoherence and a new approach to a precision measurement of the Newtonian gravitational constant G. We use a broad range of experimental techniques including optics, ultra-high vacuum, electronics, and cryogenics.
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