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      Course Introduction

      Course Introduction

      Class Content / Objectives

      This course is the first half of the advanced fluid mechanics major course, aiming to understand the physical properties and behavior of fluids, and to teach the governing equations and analytical methods for fluid flow. Specifically, it aims to cultivate the ability to interpret fluid statics, fluid kinematics, and fluid dynamics by applying the laws of mass, momentum, and energy conservation, and by using integral and differential methods.

      Course Management Plan

      Syllabus
      Week Week Title Learning Objectives
      1 Introduction to Fluid Mechanics and Physical Properties of Fluids Motivate learning of fluid mechanics and understand the physical properties related to fluid characteristics.
      2 Fluid Statics Understand the pressure distribution in a static fluid and learn methods to measure fluid pressure.
      3 Hydrostatic Force, Buoyancy, and Rigid Body Motion Learn how to calculate hydrostatic forces acting on submerged surfaces and objects, and how to determine the pressure distribution in a fluid undergoing rigid body motion.
      4 Fluid Dynamics Derive the governing equations of flow by applying Newton's second law and the first law of thermodynamics to fluid motion.
      5 Applications of Bernoulli Equation Learn about the most widely used application cases and limitations of Bernoulli's equation in flow analysis.
      6 Fluid Kinematics Learn the techniques for describing fluid motion, visualization methods of flow, and the concepts of velocity and acceleration fields.
      7 Reynolds Transport Theorem Study the Reynolds Transport Theorem by defining control volume and applying physical laws to the control volume.
      Midterm Exam
      9 Integral Analysis of Flow: Conservation of Linear Momentum Apply Reynolds Transport Theorem to the conservation of linear momentum to derive the integral form of the momentum equation and learn how to apply this equation.
      10 Integral Analysis of Flow: Conservation of Angular Momentum Apply Reynolds Transport Theorem to the conservation of angular momentum to derive the integral form of the angular momentum equation and learn how to apply this equation.
      11 Integral Analysis of Flow: Conservation of Energy Apply Reynolds Transport Theorem to the conservation of energy to derive the integral form of the energy equation and learn how to apply this equation.
      12 Differential Analysis of Flow Apply the laws of mass and momentum conservation to fluid elements to derive the differential equations governing flow, and learn how to apply these equations.
      13 Potential Flow Learn about the potential theory for analyzing ideal fluid flow, including basic plane potential flow and the engineering applications of superimposing flows.
      14 Differential Analysis of Viscous Flow Derive the Navier-Stokes equations governing viscous fluid flow and learn how to find solutions for laminar flow of Newtonian fluids. Also, briefly introduce computational fluid dynamics used in practical flow analysis.
      Final Exam

      Course Enrollment Information

      Completion / Evaluation Information

      Completion/Evaluation Info
      Category Quiz Midterm Exam Final Exam
      Weighting Ratio 40% 30% 30%

      Quiz (40%):Conduct weekly quizzes to encourage continuous learning and active participation. Quizzes consist of 2-3 questions each week, designed to help learners organize and summarize the content learned. Reflects 40% of the total evaluation.

      Midterm Exam (30%):Covers content from Week 1 to Week 7, with multiple-choice questions. Reflects 30% of the total evaluation.

      Final Exam (30%):Covers content from Week 8 to Week 13, with multiple-choice questions. Reflects 30% of the total evaluation.

      ※ A certificate of completion can be issued if a score of 60% or higher is obtained.

      Textbooks and References

      Munson, Okiishi, Huebsch, Rothmayer, “Fluid Mechanics, SI Version”, 7th Edition, 2013, John Wiley & Sons, Inc.

      Preview
      Course Operators
      • 김경천 교수

        부산대학교 기계공학부 교수

      • 부산대학교 K-MOOC 운영 전담부서 (T. 051-510-3843 / E-mail : pnumooc@pusan.ac.kr )

      FAQ

      Q 이수증은 어떻게 발급되나요?

      A 강좌종료 일시 전에 주차별 퀴즈와 온라인 중간고사·기말고사에 응시하여 100점 만점에 총점 60점 이상의 점수를 취득하면 이수증을 발급 받을 수 있습니다.
      강의가 종료되기 전에 이수 조건을 충족한다면 이수증을 발급 받을 수 있습니다.

      Q 강의를 듣고 있었는데 ‘수강중인 강좌’ 목록에서 듣던 강의가 사라졌어요.

      A 이수요건을 충족하거나 강의 운영 기간 이후로는 수강 중이던 강의는 [내 강의실] - [종료한 강좌 수] 탭을 클릭하면 강의실 썸네일을 확인할 수 있고,
      썸네일을 클릭하면 강의실에 입장할 수 있습니다.

      Other / Inquiries
      에듀테크센터 | 051-510-3843

      Field Engineering (Mechanical & Metallurgical Engineering)

      Difficulty intermediate

      Operating Institute Pusan National University

      Certificate Issuance

      Week 15 Week

      Learning recognition time 38Hour 00Minute (39Hour 24Minute)

      Course Registration Period 26.06.15 ~ 27.02.14

      Course Duration 26.06.22 ~ 27.02.21

      Phone Number 051-510-3843

      Subtitle language -

      Course language 한국어(ko)

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