Electric Vehicle Penetration Model Considering Policy Subsidy and Fuel Price Uncertainty

Author(s):  
D. Yamashita ◽  
Y. Daisho ◽  
D. Satoya ◽  
H. Takamori ◽  
R. Yokoyama
2012 ◽  
Vol 165 ◽  
pp. 38-42
Author(s):  
M. Rezal ◽  
Dahaman Ishak

Due to the increasing of fuel price, a new approach for the vehicle propulsion system needs to be developed. One of the approaches is by applying an electric motor in the vehicle propulsion unit. A new in-wheel electric motor is designed using finite element software Opera2D. This electric motor is intended to be applied for a small electric vehicle with a maximum speed up to 60 km/h. The electric motor is directly connected to the wheel of the electric vehicle. The total mass of electric vehicle is about 200 kg and the electrical power is fully supplied by rechargeable batteries. The proposed motor is based on the radial technology and one types of motor are developed i.e. Permanent Magnet Synchronous Motor (PMSM) with different value of motor parameters. The better motor design will be implemented in the small electric vehicle. The torque, speed, and power of the developed electric motor are simulated using Opera2D after the actual electric motor dimension is created in the Opera2D. After the simulated results are obtained, then the next phase is to fabricate the actual motor using laminated steel iron, permanent magnet, and coils.


Author(s):  
Danilo J. Santini ◽  
Philip D. Patterson ◽  
Anant D. Vyas

Toyota’s introduction of a hybrid electric vehicle (HEV) named “Prius” in Japan and Honda’s proposed introduction of an HEV in the United States have generated considerable interest in the long-term viability of such fuel-efficient vehicles. A performance and cost projection model developed entirely at Argonne National Laboratory (ANL) is used to estimate costs. ANL staff developed fuel economy estimates by extending conventional vehicle modeling done primarily under the National Cooperative Highway Research Program. Together, these estimates are employed to analyze dollar costs versus benefits of two of many possible HEV technologies. Incremental costs and fuel savings are projected for a Prius-type low-performance hybrid (14.3-s 0 to 60 mph acceleration, Z60 time) and a higher-performance “mild” hybrid vehicle (11-s Z60 time). Each HEV is compared with a U.S. Toyota Corolla with automatic transmission (11-s Z60 time). The base incremental retail price range, projected a decade hence, is $3,200–$3,750, before considering battery replacement cost. Historical data are analyzed to evaluate the effect of fuel price on consumer preferences for vehicle fuel economy, performance, and size. The relationship among fuel price, the level of change in fuel price, and consumer attitude toward higher fuel efficiency also is evaluated. A recent survey on the value of higher fuel efficiency is presented and U.S. commercial viability of the hybrids is evaluated using discount rates of 20 percent and 8 percent. The analysis, with its current HEV cost estimates and current fuel savings estimates, implies that the U.S. market for such HEVs would be quite limited.


2021 ◽  
Author(s):  
Izaak L. Geursen ◽  
Bruno F. Santos ◽  
Neil Yorke-Smith

Author(s):  
Vaidehi Hoshing ◽  
Ashish Vora ◽  
Tridib Saha ◽  
Xing Jin ◽  
Gregory Shaver ◽  
...  

This article performs a novel comparison of the life-cycle costs of the series and parallel architectures for plug-in hybrid electric vehicles. Economic viability is defined as having a payback period less than 2 years and number of battery replacements less than or equal to three over a vehicle life of 12 years along-with drivability and gradability constraints. Economic viability is compared for two plug-in hybrid electric vehicle applications (Medium-duty Truck and Transit Bus) using series and parallel architectures over multiple drivecycles, for three economic scenarios (viz. 2020, 2025 and 2030 where the fuel price, battery price and motor price are varied such that latter scenarios are more favorable for hybridization). One battery overnight recharge is assumed. The results demonstrate that by 2020 the plug-in hybrid electric vehicle transit buses are viable for the duty cycles Manhattan, Orange County, and China (Normal and Aggressive). By 2025, plug-in hybrid electric vehicle Class 6 trucks are viable for all duty cycles considered (Pick-up and delivery, Refuse and New York Composite). The parallel architectures generally require less than 50% of the initial cost of the series architecture, due to smaller motor sizes, driving earlier viability for parallel architectures. The transit bus scenarios generally achieve payback sooner than the medium-duty truck due to higher fuel cost savings, driving earlier viability for transit bus applications.


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