New Electrification Technology

Authors

  • Clark W. Gellings Fellow Electric Power Research Institute

Abstract

Reducing Co2 Emissions—Depending on the sources of electric-
ity production, the use of electricity can be a contributing factor to net
CO2 emissions. What is less obvious is the fact that the increasing use of
efficient end-use electric technologies has the potential to save energy
and decrease overall CO2 emissions substantially.
There are two main mechanisms for saving energy and reducing CO2
emissions with electric end-use technologies: (1) upgrading existing electric
technologies, pro cesses, and building energy systems; and (2) expanding
end-use applications of electricity. Upgrading existing electric end-use
technologies embodies replacing or retrofitting older equipment with
new, innovative, highly efficient technologies. It also includes improving
controls and operations and maintenance practices, as well as reducing
end-use energy needs by improving buildings and building processes. In
essence, this first mechanism is comprised of what are commonly referred
to as energy efficiency and demand-response measures.
The second mechanism, expanding end-use applications of electricity,
involves replacing less efficient fossil fuel end-use technologies (exist-
ing or planned) with more efficient electric end-use technologies. It also
encompasses developing new markets for electric end-use technologies
that result in overall energy, environmental, and economic benefits.
There are many electric end-use technologies known to be su-
perior in their performance, using much less overall (net) energy in
performing the same function as a fossil fuel technology. This benefit
of electricity use stems from several characteristics: (1) electricity is
able to apply portions of the electromagnetic spectrum to a process or
a task (e.g., microwaves to cook food or ultrasonic waves to enhance
dyes); (2) electricity uses a mix of low-carbon primary energy sources,
including nuclear, wind, solar, hydropower, etc.; and (3) electricity can
provide motive power more efficiently than fossil fuel engines.

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Author Biography

Clark W. Gellings, Fellow Electric Power Research Institute

Clark W. Gellings is a Fellow at the Electric Power Research Institute (EPRI) and is responsible for technology strategy in areas concerning energy efficiency, demand response, renewable energy resources, and other clean technologies. He joined EPRI in 1982 and has held seven vice president positions. He has received awards from the Illuminating Engineering Society, the Association of Energy Services Professionals, the South African Institute of Electrical Engineers, and CIGRE (International Council on Large Electric Systems). He is the 2010 recipient of EnergyBiz Magazine’s KITE (Knowledge, Innovation, Technology, Excellence) Lifetime Achievement Award. Gellings is a registered Professional Engineer, a Life Fellow in the Institute of Electrical and Electronics Engineers, and a Fellow in the Illuminating Engineering Society. Mr. Gellings can be reached at cgellings@epri.com.

References

The Potential to Reduce CO2 Emissions by Expanding End-Use Applications of Electricity,

EPRI, Palo Alto, CA: 2009. 1018871.

Table 1. Benefits Associated with Use of an MVR Heat Pump

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Industry Chemical/petrochemical (NAICS 325)

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End-use Separation of propylene and propane in

distillation column

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Electric Technology 50.2 MW open-cycle MVR heat pump,

COP = 8

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Electricity Requirement 50,400 MWh per hear (172,000 MMBtu

per year)

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Displaced Technology Natural gas boiler for steam generation,

% efficient

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Natural Gas Savings 1,824,000 MMBtu per year

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Net On-site Energy Savings 1,652,000 MMBtu per year (91% savings)

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Strategic Planning for Energy and the Environment

Program on Technology Innovation, Industrial Electrotechnology Development Opportunities,

EPRI, Palo Alto, CA: 2009. 1019416.

Global Energy Partners, Industrial Heat Pumps for Waste Heat Recovery, Tech Review,

Heat Pump Center, Mechanical Vapour Recompression Case Study, Pernis, the Nether-

lands, www.heatpumpcentre.org/Publications/case_permis.asp

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Published

2023-07-11

How to Cite

Gellings, C. W. . (2023). New Electrification Technology. Strategic Planning for Energy and the Environment, 31(2), 69–78. Retrieved from https://journals.riverpublishers.com/index.php/SPEE/article/view/19829

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