国际学生入学条件
A four-year Honours Bachelor degree or its equivalent in mathematics or in a closely related field with a 78% overall average or its equivalent for undergraduate work.Applicants from foreign countries must normally take the Graduate Record Examinations (GRE) General Test and Subject Tests.Three references, normally from academic sources
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IDP—雅思考试联合主办方

雅思考试总分
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雅思考试指南
- 雅思总分:7
- 托福网考总分:90
- 托福笔试总分:160
- 其他语言考试:PTE (Academic) - 63 (writing 65, speaking 65)
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课程简介
持续优化是解决从生物分子设计到投资组合管理的现实世界问题的核心数学科学。连续优化意味着找到一个或多个实变量的函数的最小值或最大值
Continuous optimization is the core mathematical science for real-world problems ranging from design of biomolecules to management of investment portfolios. Continuous optimization means finding the minimum or maximum value of a function of one or many real variables, subject to constraints. The constraints usually take the form of equations or inequalities. Continuous optimization has been the subject of study by mathematicians since Newton, Lagrange and Bernoulli. One major focus of the continuous optimization group at Waterloo is convex optimization, that is, continuous optimization in the case that the objective function and feasible set are both convex. Convex optimization problems have widespread applications in practice and also have special properties that make them amenable to sophisticated analysis and powerful algorithms. Members of the group have carried out fundamental work in convex optimization including new and more efficient algorithms for convex optimization and understanding of the most fundamental properties of convex sets such as properties of the set of positive semidefinite matrices. A second focus of the group is applications of convex optimization to nonconvex problems. Members of the group have shown how to apply convex optimization to NP-hard combinatorial problems yielding results with surprisingly strong guarantees. The group has also applied convex optimization to the nonconvex problem of sensors that must determine their position in space based on measured distances from other nearby sensors. Finally, the group has developed a theory of general purpose methods to use convex optimization for solving nonconvex optimization problems including one of the hardest in the class, namely, unstructured integer linear programming. A final focus of the group is on robust solution of very large scale optimization problems. Such problems may require parallel computing, automatic differentiation, and special handling of sparse matrices and vectors. The group recently was awarded a large high-performance cluster by the Canada Foundation for Innovation and the province of Ontario to push the limits of problems that can be tackled with these techniques.
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