Xiaohong Wang

Introductory course in computer programming, which involves solving problems by designing, implementing and testing algorithms. Emphasis is on problem solving through the use of algorithms and learning to develop computer programs that are reliable, well-documented, and correct. Implementation is done in object-oriented based languages concentrating on fundamental instructions and the development and implementation of events, methods, and functions. Three hours lecture, two hours lab per week. Meets General Education IVB (Prior to Fall 2008: IIIB).

Students work under supervisors in a local firm or public institution in conjunction with an advisor from the department. Cross-listed with MATH 380. MATH/COSC 380 may be taken twice for a maximum of six credits, but used only once toward a major in mathematics or computer science. Prerequisite: Approval of department chair. Eight to ten hours per week. (P/F)

Study of conventional and object oriented software engineering principles and methods: the human computer interface, requirements analysis, prototyping, software design, system models, use of tools, project management, implementation, testing strategies, software metrics, maintenance, quality assurance, ethics and professional responsibility. Use of standards, verification and validation, configuration management, quality assurance and human factors. Student teams will analyze a real world problem and design, implement, document and test a software system based upon the specified requirements. COSC 426 is a continuation of 425. Prerequisite: C or better in COSC 320. Three hours per week.

Covers three related topics: event driven programming, graphical user interface (GUI) and object oriented (OO) design using design patterns. The event driven model is examined throughout the course. OO design is introduced through the analysis of design patterns. There are several programming projects for this course. Prerequisite: C or better in COSC 220. Three hours per week.

Study of conventional and object oriented software engineering principles and methods: the human computer interface, requirements analysis, prototyping, software design, system models, use of tools, project management, implementation, testing strategies, software metrics, maintenance, quality assurance, ethics and professional responsibility. Use of standards, verification and validation, configuration management, quality assurance and human factors. Student teams will analyze a real world problem and design, implement, document and test a software system based upon the specified requirements. COSC 426 is a continuation of 425. Prerequisite: C or better in COSC 320. Three hours per week.

Provides teams of 3-12 students with experience in using mathematical and computing tools to solve real-world problems posed by a client organization, such as a research institute, business or industry. Combines individual and group work, and requires the presentation of a written and oral report to the client organization and the department. Cross-listed with MATH 495. COSC/MATH 495 may be taken twice for a maximum of eight credits, but used only once toward a major in mathematics or computer science. Prerequisite: Invitation by department chair. Four hours per week. (P/F)

Provides teams of 3-12 students with experience in using mathematical and computing tools to solve real-world problems posed by a client organization, such as a research institute, business or industry. Combines individual and group work and requires presentation of a written and oral report to the client organization and the department. Cross-listed with COSC 495. MATH/COSC 495 may be taken twice for a maximum of eight credit hours, but used only once toward a major in mathematics or computer science. Prerequisite: Invitation by department chair. Four hours per week. (P/F)