%0 Report
%K energy efficiency
%K energy use
%K motor system
%K supply curve
%K CO2 emissions
%A Aimee T McKane
%A Ali Hasanbeigi
%C Vienna, Austria  
%D 2010
%I the United Nations Industrial Development Organization
%T Motor Systems Efficiency Supply Curves
%U http://www.unido.org/fileadmin/user_media/Services/Energy_and_Climate_Change/Energy_Efficiency/CCS/UNIDO%20-%20UN-Energy%20-%202010%20-%20Motor%20Systems%20Efficiency%20Supply%20Curves%20%282%29.pdf
%8 12/2010
%X <p>Motor-driven equipment accounts for approximately 60% of manufacturing final electricity use worldwide. A major barrier to effective policymaking, and to more global acceptance of the energy efficiency potential in industrial motor systems, is the lack of a transparent methodology for quantifying the magnitude and cost-effectiveness of these energy savings. This paper presents the results of original analyses conducted for five countries and one region to begin to address this barrier. Using a combination of expert opinion and available data from the United States, Canada, the European Union, Thailand, Vietnam, and Brazil, bottom-up energy efficiency supply curve models were constructed to estimate the cost-effective electricity efficiency potentials and CO<sub>2</sub> emission reduction for three types of motor systems (compressed air, pumping, and fan) in industry for the selected countries/region. Based on these analyses, the share of cost-effective electricity saving potential of these systems as compared to the total motor system energy use in the base year varies between 27% and 49% for pumping, 21% and 47% for compressed air, and 14% and 46% for fan systems. The total technical saving potential varies between 43% and 57% for pumping, 29% and 56% for compressed air, and 27% and 46% for fan systems.</p>