Design and implementation of autonomous wireless charging station for rotary-wing UAVs

2016 ◽  
Vol 54 ◽  
pp. 253-266 ◽  
Author(s):  
Ali Bin Junaid ◽  
Yunseong Lee ◽  
Yoonsoo Kim
2021 ◽  
pp. 1315-1325
Author(s):  
Kailin Wang ◽  
Yongliang Li ◽  
Junwei Ma ◽  
Zhenhua Yan ◽  
Shaoyong Guo ◽  
...  

Author(s):  
Mohammad Abdullah Al Mamun ◽  
Mohammad Abdullah Al Mamun ◽  
Mohammad Istiak ◽  
Mohammad Istiak ◽  
Khandakar Abdulla Al Mamun ◽  
...  

Author(s):  
Laura Soares ◽  
Hao Wang

Many airports are converting their ground fleets to electric vehicles to reduce greenhouse gas emissions and increase airport operation sustainability. Although this paradigm shift is relevant to the environment, it is necessary to understand the economic feasibility to justify the decision. This study used life-cycle cost analysis (LCCA) to compare the economic performance of electrified ground fleets in the airport with a conventional fossil fuel fleet. Three different charging systems (plug-in charging, stationary wireless charging, and dynamic wireless charging) for pushback tractors and inter-terminal buses at a major hub airport were considered in the analysis. Although the conventional fossil fuel options present the lowest initial cost for both fleets, they cost most in a 30-year analysis period. Among three electric charging infrastructures, the plug-in charging station shows the least accumulative cost for pushback tractors, and their cost differences are negligible for inter-terminal buses. Although the electric ground fleet is proved to show economic benefits, the most cost-effective charging infrastructure may vary depending on driving mileage and system design. The use of LCCA to analyze new systems and infrastructures for decision making at the project level is highly recommended.


Author(s):  
Semin Choi ◽  
Sungryul Huh ◽  
Sanguk Lee ◽  
Haerim Kim ◽  
Seongho Woo ◽  
...  

Author(s):  
Aqueel Ahmad ◽  
Yasser Rafat ◽  
Samir M. Shariff ◽  
Rakan Chabaan

2021 ◽  
Vol 13 (11) ◽  
pp. 5986
Author(s):  
Correa Diego ◽  
Gil Jakub ◽  
Moyano Christian

Many cities around the world encourage the transition to battery-powered vehicles to minimize the carbon footprint of the transportation sector. Deploying large-scale wireless charging infrastructures to charge electric transit buses when loading and unloading passengers have become an effective way to reduce emissions. The standard plug-in electric vehicles have a limited amount of power stored in the battery, resulting in frequent stops to refill the energy. Optimal siting of wireless charging bus stops is essential to reducing these inconveniences and enhancing the sustainability performance of a wireless charging bus fleet. Wireless charging is an innovation of transmitting power through electromagnetic induction to portable electrical devices for energy renewal. Online Electric Vehicle (OLEV) is a new technology that allows the vehicle to be charged while it is in motion, thus removing the need to stop at a charging station. Developed by the Korea Advanced Institute of Science and Technology (KAIST), OLEV picks up electricity from power transmitters buried underground. This paper aims to investigate the cost of the energy logistics for the three types of wireless charging networks: stationary wireless charging (SWC), quasi-dynamic wireless charging (QWC), and dynamic wireless charging (DWC), deployed at stops and size of battery capacity for electric buses, using OLEV technology for a bus service transit in the borough of Manhattan (MN) in New York City (NYC).


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