Coursera 

Financial Engineering

Financial Engineering is a multidisciplinary field drawing from finance and economics, mathematics, statistics, engineering and computational methods. The emphasis of FE & RM Part I will be on the use of simple stochastic models to price derivative securities in various asset classes including equities, fixed income, credit and mortgage-backed securities. We will also consider the role that some of these asset classes played during the financial crisis. A notable feature of this course will be an interview module with Emanuel Derman, the renowned ``quant'' and best-selling author of "My Life as a Quant".

We hope that students who complete the course will begin to understand the "rocket science" behind financial engineering but perhaps more importantly, we hope they will also understand the limitations of this theory in practice and why financial models should always be treated with a healthy degree of skepticism. The follow-on course FE & RM Part II will continue to develop derivatives pricing models but it will also focus on asset allocation and portfolio optimization as well as other applications of financial engineering such as real options, commodity and energy derivatives and algorithmic trading.

 

Martin Haugh

Co-Director, Center for Financial Engineering

Industrial Engineering & Operations Research

Garud Iyengar

Professor

Industrial Engineering and Operations Research Department

 

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Financial Engineering 2

Financial Engineering is a multidisciplinary field involving finance and economics, mathematics, statistics, engineering and computational methods.  The emphasis of FE & RM Part II will be on the use of simple stochastic models to (i) solve portfolio optimization problems  (ii) price derivative securities in various asset classes including equities and credit and (iii) consider some advanced applications of financial engineering including algorithmic trading and the pricing of real options. We will also consider the role that financial engineering played during the financial crisis.

We hope that students who complete the course and the prerequisite course (FE & RM Part I) will have a good understanding of the "rocket science" behind financial engineering. But perhaps more importantly, we hope they will also understand the limitations of this theory in practice and why financial models should always be treated with a healthy degree of skepticism.

 

Martin Haugh

Co-Director, Center for Financial Engineering

Industrial Engineering & Operations Research

Garud Iyengar

Professor

Industrial Engineering and Operations Research Department

 

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Sustainable Development

The Age of Sustainable Development" gives students an understanding of the key challenges and pathways to sustainable development - that is, economic development that is also socially inclusive and environmentally sustainable.

Jeffrey Sachs

Director, Earth Institute; Quetelet Professor of Sustainable Development; Professor of Health Policy and Management

 

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Casual Inference

This course offers a rigorous mathematical survey of causal inference at the Master’s level.

Inferences about causation are of great importance in science, medicine, policy, and business.  This course provides an introduction to the statistical literature on causal inference that has emerged in the last 35-40 years and that has revolutionized the way in which statisticians and applied researchers in many disciplines use data to make inferences about causal relationships. 

We will study methods for collecting data to estimate causal relationships. Students will learn how to distinguish between relationships that are causal and non-causal; this is not always obvious. We shall then study and evaluate the various methods students can use — such as matching, sub-classification on the propensity score, inverse probability of treatment weighting, and machine learning — to estimate a variety of effects — such as the average treatment effect and the effect of treatment on the treated. At the end, we discuss methods for evaluating some of the assumptions we have made, and we offer a look forward to the extensions we take up in the sequel to this course.

 

Michael E. Sobel

Professor

Department of Statistics

 

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Casual Inference 2

This course offers a rigorous mathematical survey of advanced topics in causal inference at the Master’s level.

Inferences about causation are of great importance in science, medicine, policy, and business.  This course provides an introduction to the statistical literature on causal inference that has emerged in the last 35-40 years and that has revolutionized the way in which statisticians and applied researchers in many disciplines use data to make inferences about causal relationships. 

We will study advanced topics in causal inference, including mediation, principal stratification, longitudinal causal inference, regression discontinuity, interference, and fixed effects models.

 

Michael E. Sobel

Professor

Department of Statistics

 

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MOS Transistors

Learn how MOS transistors work, and how to model them. The understanding provided in this course is essential not only for device modelers, but also for designers of high-performance circuits.

Yannis Tsividis

Charles Batchelor Professor of Electrical Engineering

Fu Foundation School of Engineering and Applied Science

 

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