Mar 31, 2017

Sustainability Science - A Key Concept for Future Design

Sustainability is indispensable for the future of humankind. Sustainability science has emerged as an effort to tackle the complex problems the world is facing today. Lecturers from different disciplines provide a holistic overview of key issues in sustainability including industrial pollution, an aging society, human-nature connection, urban planning, resilience, environmental governance, and education for sustainable development. In this course, you will learn about historical and current sustainability issues that have emerged around the world, as well as some of the approaches that have been used to solve them. You will be exposed to industrial and water pollution control issues, in addition to challenges caused by an aging and shrinking population. You will also learn about the human-nature connection and initiatives that aim to create sustainable societies in harmony with nature, based on the concept of Socio-Ecological Production Landscapes and Seascapes (SEPLS). You will explore how ecosystem-based disaster risk reduction (Eco-DRR) approaches can be used to reestablish the human-nature connection through re-naturalization of damaged environments. This course will also consider an urban planning point of view by exploring the value of an urban-rural land use mixture to create new sustainable societies and resilient megacities. Finally, you will learn about environmental governance, a crucial element for progress towards a sustainable future. You will be introduced to Education for Sustainable Development (ESD) as a learning method for sustainable development and discuss international debates on ESD. Japanese perspectives are emphasized throughout the course in the hopes of providing concrete value to solving contemporary sustainability issues.

MINO Takashi (Project Professor, TOKYO COLLEGE, The University of Tokyo) TAKEUCHI Kazuhiko (Project Professor, Institute for Future Initiatives, The University of Tokyo) YOKOHARI Makoto (Professor, Graduate School of Engineering, The University of Tokyo) HORITA Masahide (Professor, Graduate School of Engineering, The University of Tokyo) and 7 member(s).

Mar 30, 2018

Basic Analytical Chemistry

Analytical chemistry takes a prominent position among all fields of experimental sciences, ranging from fundamental studies of Nature to industrial or clinical applications.Analytical chemistry covers the fundamentals of experimental and analytical methods and the role of chemistry around us. This course introduces the principles of analytical chemistry and provides how these principles are applied in chemistry and related disciplines - especially in life sciences, environmental sciences and geochemistry. This course, regardless of your background, will teach you fundamental analytical concepts and their practical applications. By the end of the course, you will deeply understand analytical methodologies in a systematic manner. Finally, this course will help you develop critical, independent reasoning that you can apply to new problems in chemistry and its related fields. This course is for anyone interested in analytical sciences.

OZAWA Takeaki (Professor, Graduate School of Science, The University of Tokyo) CHIU Liang-da (Project Assistant Professor, Graduate School of Science, The University of Tokyo)

Jun 6, 2024

The Power of Words

This course examines how words retain power amidst crises, focusing on Japanese and English literature. It explores how words aid in resilience and self-renewal. Emphasis is placed on understanding the role of form in texts and socia interactions to deepen comprehension of expression mechanisms. Students of this course can learn the history of English and Japanese literature, particularly in terms of form as well as how the forms work in written texts and human relationships.

Sep 25, 2015

From the Big Bang to Dark Energy

We have learned a lot recently about how the Universe evolved in 13.8 billion years since the Big Bang. More than 80% of matter in the Universe is mysterious Dark Matter, which made stars and galaxies to form. The newly discovered Higgs-boson became frozen into the Universe a trillionth of a second after the Big Bang and brought order to the Universe. Yet we still do not know how ordinary matter (atoms) survived against total annihilation by Anti-Matter. The expansion of the Universe started acceleration about 7 billion years ago and the Universe is being ripped apart. The culprit is Dark Energy, a mysterious energy multiplying in vacuum. I will present evidence behind these startling discoveries and discuss what we may learn in the near future.

MURAYAMA Hitoshi (Professor, Kavli IPMU, The University of Tokyo)