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講義概要

国際共同教育部門

Computational Simulations and the Finite Element Method

Recently, the computational simulations have become an extremely useful tool for solving various problems in engineering. Therefore, this course will focus on numerical methods with particular focus on the finite element method and solid body analysis. According to that the basic theoretical fundamentals will be covered. Based on practical examples different types of finite elements, importance of shape functions, boundary and initial conditions, material models and general methodology of computational analysis will be explained for the case of linear-elastic and elastic-plastic analysis of solid bodies. The lecture will conclude with computational modelling of an applicable example. Additionally, during the lecture the use of different up-to-date finite element software will be demonstrated.

Water and Wastewater Engineering:
Treatment Technologies and Environmental Management System

To provide greater fundamental understanding of the mechanisms for wastewater engineering treatment and design process, including related environmental management system and life cycle assessment approaches.

  1. Fundamentals: Wastewater Engineering Overview
    • Water Quality Measures
    • Water Quality Standards
    • Options for Wastewater treatment- Selection Criteria
  2. The Design Process
    • Project Sequence and Design Standards
    • Sources, Quantities and Characteristics of Wastewater
  3. Treatment Processes
    • Preliminary
    • Primary
    • Suspended-Growth Biological Treatment
    • Attached-Growth Biological Treatment
    • Biological Nutrient Removal and Combination of Physical-Chemical Processes
  4. Production and Treatment of Wastewater Sludge
  5. Environmental Management System and Life Cycle Analysis

Chemical Reactor Design

In this course, a general principle will be developed for analysis and design of a variety of systems for which engineering of chemical reactions is needed. First, I will introduce the basic concepts of chemical kinetics and chemical reactor design as related to simple reaction systems. Next, we will build upon the concepts developed to describe real systems that deal with complex reactions. Topics covered will include:

  1. (1) General mole balance,
  2. (2) Reactor types,
  3. (3) Conversion and reactor sizing,
  4. (4) Rate laws,
  5. (5) Stoichiometry,
  6. (6) Algorithm of isothermal reactor design with conversion,
  7. (7) Collection & analysis of rate data,
  8. (8) Parallel reactions,
  9. (9) Series reactions,
  10. (10) Non-elementary rate law with active intermediates, and
  11. (11) Industrial reactor design.

The Origins of Modern Science & Technology

Lecture 1- From Middle Ages to the Renaissance. Social and Cultural Factors
Lecture 2- Dimensions of the Scientific Revolution (16th-17th century)
Lecture 3- Science, Technology and the Enlightenment (18th century)
Lecture 4- The Darwinian Revolution (19th century)
Lecture 5- Science, Technology and the War (20th century)
Lecture 6- From the Big Science to Industrial Technoscience (20-21st century)

Aeroelasticity

The dream of travelling around the world back in one day is one the last great challenges in aeronautics. There are still many challenges that need to be addressed from understanding the aerodynamics, structural response and create viable materials. The HexaFly-Int is a project led by the European Space Agency and aims to further the understanding of the hypersonic environment by conducting scale model test of a powered and non-powered vehicle. I will present some of the work being done at the University of Sydney in support of the HexaFly-Int project on the low speed aerodynamic aspect of hypersonic vehicles and how the structure can be tailored to survive the harsh environment of hypersonic flight