GUIDE TO D ECENTRALIZED ENERGY TECHNOLOGIES

Authors

  • Michael Brown World Alliance for Decentralized Energy
  • Thomas R. Casten Primary Energy, LLC

DOI:

https://doi.org/10.13052/dgaej2156-3306.1921

Abstract

The World Alliance for Decentralized Energy (WADE) was formed
by energy professionals from all over the world who believe the ruling
central generation paradigm is no longer optimal, and that moving to
decentralized generation will improve standards of living and reduce
environmental damage. This Introductory guide has therefore been pro-
duced to provide a standard source of information about DE technolo-
gies, both commercial and pre-commercial, which form the basis of de-
centralized energy development around the world today. Much of the
material will be familiar to established DE practitioners and developers,
but for others, it is hoped that the guide will serve as a valuable resource.

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Author Biographies

Michael Brown, World Alliance for Decentralized Energy

Michael Brown is the director of the World Alliance for Decentral-
ized Energy (WADE), an umbrella organization of CHP and distributed
energy associations, equipment vendors, government agencies and foun-
dations that promote distribute generation to optimize the world’s
power systems. He is also the editor of Cogeneration and On-Site Power
Production.

Thomas R. Casten, Primary Energy, LLC

Thomas R. Casten is the chairman of WADE. He is also the chair-
man and CEO of Primary Energy, LLC., an Illinois-based firm specializ-
ing in recycling energy. Mr. Casten is a nationally recognized expert on
energy and environmental issues. He also serves on the board of direc-
tors/advisory boards of FuelCell Energy, the American Council for an
Energy Efficient Economy (ACEEE), the Carnegie Mellon Electric Indus-
try Center, the Oregon Climate Trust, and the Center for Inquiry.

References

i Based on typical cogeneration values. Levelized costs based on a coal

price of 0.5 ¢/kWh, maintenance costs of 0.4 ¢/kWh, a discount rate

of 8% with a ten year payback period, an electrical efficiency of 15%

and an overall efficiency of 75%.

ii The European Association for the Promotion of Cogeneration, A Guide

to Cogeneration, June 2001 available at http://www.cogen.org/

publications/reports_and_studies.htm

iii Based on typical cogeneration values. Levelized costs based on a gaprice of 1.88 ¢/kWh, maintenance costs of 0.55 ¢/kWh, a discount rate

of 8% with a ten year payback period, an electrical efficiency of 35%

and an overall efficiency of 80%.

iv Energy Nexus Group, Technology Characterization Gas Turbines,

February 2002

v Financial Times Energy—Decentralized Energy

vi See note (ii)

vii Based on typical cogeneration values. Levelized costs based on a gas

price of 1.88 ¢/kWh, maintenance costs of 1.25 ¢/kWh, a discount rate

of 8% with a ten year payback period, an electrical efficiency of 45%

and an overall efficiency of 85%.

viii See note (v)

ix Based on typical values. Levelized costs based on a gas price of 1.88

¢/kWh, maintenance costs of 1 ¢/kWh, a discount rate of 8% with a

ten year payback period, an electrical efficiency of 20% and an overall

efficiency of 90%.

x Based on typical values. Levelized costs based on a gas price of 1.88

¢/kWh, maintenance costs of 1 ¢/kWh (projected value), a discount

rate of 8% with a ten year payback period, an electrical efficiency of

% and an overall efficiency of 80%.

xi Global Equity Research, An Introduction to Fuel Cells, November 2000

Energy Research Centre of the Netherlands, Fuel Cell Technology,

available on-line at http://www.ecn.nl/bct/products/pemfc/

principle.en.html

California Energy Commission, Distributed Energy Resource Guide,

available at http://www.energy.ca.gov/distgen/index.html

xii Levelized costs based on a gas price of 1.88 ¢/kWh, maintenance costs

of 2 ¢/kWh, a discount rate of 8% with a ten year payback period, an

electrical efficiency of 50% and an overall efficiency of 80%.

xiii Tom Casten and Martin Collins, Primary Energy Inc., http://

www.primaryenergy.com/

xiv IEA Statistics, Electricity Information 2002

xv Peter Frankel, Flowing too slowly—Performance and potential of small

hydro-power, Renewable Energy World, March 1999

xvi Based on typical values. Levelized costs based on a maintenance cost

of 0.7 ¢/kWh and a discount rate of 8% with a ten year payback

period.

xvii See note (v)

xviii Solar Access, Solar Energy Basics, available at http://

www.solaraccess.com/education/solar.jsp?id=pv

xix See note (v)

xx Based on typical values. Levelized costs based on maintenance costs of

% of the initial capital investment per annum and a discount rate of

% with a ten year payback period.

xxi Renewable Energy World, Adapted from Germany’s PV financing

schemes and the market by Ingrid Weiss and Peter Sprau, Jan-Feb 2002

xxii see note (ii)

The European Distributed Energy Service, The Real Costs of Emerging

Distributed Energy Technologies, June 2002

California Energy Commission, Distributed Energy Resource Guide, available

at http://www.energy.ca.gov/distgen/index.html

US Environmental Protection Agency, Introduction to CHP technologies,

available at http://www.epa.gov/CHP/pdf/

Intro%20to%20Cat%20of%20Tech.pdf

Navigant Consulting Inc. The Challenging Face of Renewable Energy, United

Nations Environment Programme (UNEP), Energy Technology

Factsheet, Small Scale Hydro

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Published

2004-03-18

How to Cite

Brown, M. ., & Casten, T. R. . (2004). GUIDE TO D ECENTRALIZED ENERGY TECHNOLOGIES. Distributed Generation &Amp; Alternative Energy Journal, 19(2), 6–45. https://doi.org/10.13052/dgaej2156-3306.1921

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