マテリアル（特に結晶）の機能を電子・原子レベルから理解するために、マテリアルの諸特性の固体物理学による取り扱いを講義する。 To understand the functionalities of materials (especially crystalline ones) from the behaviors of atoms and electrons, properties of materials are explained based on solid state physics.

You will learn analyses that were actually used as input to policy during the Covid-19 crisis in Japan. You will learn what happened during the Covid-19 crisis through research papers.

This course explores topics in game theory and its related fields, with the aim of providing sufficient background to write publishable papers in this discipline.

In this course, basics of energy systems on and around nuclear energy are explained comprehensively. Environmental and economic evaluation methods associated with energy use and development are also mentioned so that the students can obtain balanced knowledge and ways of thinking of energy systems.

We all live and die in capitalist society. Capitalism seems like such an inescapable part of reality that we cannot imagine any other society. It weighs on us as if it were fate itself. Study hard, get into a good school, and land a decent job. Work hard. Make a lot of money. Even if you can't make a lot, at least make enough to buy things and support your family like the average Joe. If you can't, you are a loser. You’re responsible for your conditions. If you can't take responsibility, you deserve to be eliminated from society. Such dog-eat-dog worldview has been ingrained in us from an early age through media, education, and family. We may hear fine-sounding sentiments like “don't pick on the weak," “helping others is important," and “all people are equal.” But it is obvious from the daily news that these are nothing but lies. If you have money, you are treated well and given a free pass; if you don't, you are ridiculed and exploited. This is what Shakespeare said about the power of money: Thus much of this will make black white, foul fair, Wrong right, base noble, old young, coward valiant. Capitalist society is driven by money, which has the overwhelming power to turn reality upside down. In this class, we will trace the origins, structure, and future of this strange society through various movies and readings. Why do economic crashes and depressions, which shake the world economy, occur? How do poor children and elderly live? What does the value of labor-power mean and what is class struggle? By discussing such concrete social issues in depth, we will explore the possibility of society that can replace capitalism.

近年、数理最適化や機械学習などの計算的手法は、デザイン支援や人間とコンピュータのインタラクションの研究・実践を大きく変えつつあります。これらの研究はComputational DesignおよびComputational Interactionと呼ばれ、Computer GraphicsやHuman-Computer Interactionの分野などで発展してきました。本講義では、これらの概念の基礎を学ぶとともに、最新の研究動向を論文を通じて理解します。 講義前半では、これらの研究トピックを理解するために必要な基礎概念を、数式やコードも交えて解説します。後半では、学生が関連分野の最新論文を調査・選定し、その内容を発表・議論する輪講形式の授業を行います。これにより、急速に発展する分野の動向を主体的に把握する力を養います。 講義の目的： - 計算的手法（数理最適化・機械学習など）に基づくデザインおよびインタラクション研究の基礎を理解する。 - 最新の研究論文を読み、内容を整理して発表する能力を身につける。 - 研究分野の構造を理解し、自ら文献を探索・位置づける力を養う。 Computational methods such as mathematical optimization and machine learning have significantly transformed research and practice in design support and human-computer interaction. These research areas are often referred to as Computational Design and Computational Interaction, and have developed in fields such as Computer Graphics and Human-Computer Interaction. In this course, students will learn the fundamental concepts of these areas and understand recent research trends through reading academic papers. In the first half of the course, we introduce the basic concepts required to understand these topics, including mathematical formulations and programming codes where appropriate. In the second half, students will survey and select recent papers in related fields, and present and discuss them in a seminar-style format. Through this process, students will develop the ability to independently understand trends in this rapidly evolving field. Course objectives: - Understand the fundamentals of design and interaction research based on computational methods (e.g., mathematical optimization and machine learning). - Develop the ability to read, organize, and present recent research papers. - Acquire the ability to understand the structure of the research field and to explore and position relevant literature independently.

The objectives of this lecture are to learn the fundamental knowledge to realize bio devices such as fabrication method, design principle, and analytical method. In addition, in order to study how to apply those technologies or install the devices to real products effectively, micro chemical analysis systems, an organ on a chip, micro-reactors, medical inspection system are picked up and their challenges, solutions, pros and cons are discussed respectively.

The knowledge of biomaterials is critical for the creation of novel medical devices. The purpose of the course is to systematically study the properties and characterization of basic materials used in the conventional medical devices, including metals, ceramics and polymers. In addition, the design principles of biomaterials for applications in various advanced medical devices (artificial organ, medical diagnosis devices, drug delivery system (DDS)) will be examined.

固体の電子状態、光学応答・輸送特性、超伝導、測定手法について講義を行う。電子間相互作用の取り扱いについても解説する。バンド計算手法や素励起･集団励起などの基本的手法・概念についても解説を行う。 Subjects of the lecture are electronic states, optical responses, transport properties, superconductivity, and measurement mathods. Electron-electron interaction will also be treated as well as band calculation methods, and basic concepts of quasiparticle excitation and collective excitation.

対称性の破れがもたらす物質機能と、超伝導に関して学ぶ。 Learn the material functions related to symmetry breaking and superconductivity.