Date of Award
1-1-2017
Document Type
Masters Thesis
Degree Name
M.S.
Organizational Unit
Daniel Felix Ritchie School of Engineering and Computer Science, Electrical and Computer Engineering
First Advisor
Amin Khodaei, Ph.D.
Second Advisor
Andrew Goetz
Third Advisor
Mohammad Matin
Keywords
Demand response, Energy efficiency
Abstract
The purpose of this thesis is to analyze the costs, feasibility and benefits of implementing energy efficient devices and demand response programs to a residential consumer environment. Energy efficiency and demand response are important for many reasons, including grid stabilization. With energy demand increasing, as the years' pass, the drain on the grid is going up. There are two key solutions to this problem, increasing supply by building more power plants and decreasing demand during peak periods, by increasing participation in demand response programs and by upgrading residential and commercial customers to energy efficient devices, to lower demand throughout the day. This thesis focuses on utilizing demand response methods and energy efficient device to reduce demand. Four simulations were created to analyze these methods. These simulations show the importance of energy efficiency and demand response participation to help stabilize the grid, integrate more alternative energy resources, and reduce emissions from fossil fuel generating facilities. The results of these numerical analyses show that demand response and energy efficiency can be beneficial to consumers and utilities. With demand response being the most beneficial to the utility and energy efficiency, specifically LED lighting, providing the most benefits to the consumer.
Publication Statement
Copyright is held by the author. User is responsible for all copyright compliance.
Rights Holder
Christopher John Wellons II
Provenance
Received from ProQuest
File Format
application/pdf
Language
en
File Size
119 p.
Recommended Citation
Wellons II, Christopher John, "Energy Efficiency and Demand Response for Residential Applications" (2017). Electronic Theses and Dissertations. 1360.
https://digitalcommons.du.edu/etd/1360
Copyright date
2017
Discipline
Electrical engineering, Energy