Environmental Management For Sustainable Development: 994297

Introduction

The electric car is a significantly new idea in the sector of automotive industry. In as much as some companies have pegged their whole model of cars about being proactive and utilizing electricity, some as well provide hybrid vehicles which work off both electricity as well as gas. An electric car for instance Nissan Leaf, Chevrolet Volt as or even Ford Focus Electric is a perfect way for not just saving money but also making significant contribution towards a stable, sustainable and health environment.

Cars generate volumes of emissions of carbon which are released into the atmosphere resulting in vulnerability to such things as greenhouse gases as well as pollution. In a bid to aid the environment is a manner that is positive; an electric car may serve as a great forward step (Matthews et al., 2017). Through acquiring an electric car, one may as well receive subsidies from the government with regard to being environmentally conscious and concerned. In as much as one may end up paying for ore for the vehicles, the benefits overrun the drawbacks. Nevertheless, there are still to phases to take into consideration as far as thinking of acquiring an electric car is concerned.

Electric cars derive their power from installed rechargeable matters within the car. Such batteries are used in powering the car as well as functioning of the wipers and lights. Electric cars tend to have more batteries in comparison with gasoline car. It is the very type of batteries which are often used when starting up the engine of a gasoline car. The only variation comes in due to the fact an electric vehicle tend to have more of the batteries that are used in powering the engine (Philipsen, Schmidt, Van Heek and Ziefle, 2016).

Benefits An Electric Car

No gas needed: Electric cars are wholly charged using electricity that is provided hence one does not need to acquire gasoline any more. The car which is based on driving fuel may burn a hole in the pocket of the owner since the fuel prices have continued to be on the rise every time. Such cost may be avoided with the electric cars as an average American uses between $2000 and $4000 on acquiring gasoline every year. In as much as the electricity used in recharging is not free, the electric car tends to be far much cheaper to operate.

Savings: Electric cars may be fuelled for very low prices and numerous new cars would provide great incentives for one to get back the money for the government for championing for going green. Electric cars may as well save money in the life of an individual.

Better to the environment: Electric cars do not have tailpipe emissions and if anything do not have an exhaust. They have relatively lower mean emissions in comparison with the conventional diesel or petrol and this may aid in enhancing the quality of air specifically in the urban regions as well as at the sides of the roads in which the quality of air may be very poor. Even with regard to the effects of producing the electricity used electric vehicles may still generate significantly lower greenhouse gases as compared with diesel or petrol cars (Halbey, Kowalewski and Ziefle, 2015). Such emissions would be lowered furthered as a country shifts to more renewable as well as nuclear electricity production. Throughout their entire life cycle, electric cars tend to have lower greenhouse emisions as compared with internal combustion engine vehicles. The manufacture of the battery may be the offset through enhanced efficiency as well as emissions saving over the car life.

Ease of charging at home: Recharging of an electric car eliminates the need of going to a petrol station over and again as the car is simply plugged in at home to get charged overnight and ready for use in the morning. The use of a dedicated home charging unit offers one of the easiest, recommended as well as safest ways of charging an electric car back at home. Such compact as well as robust units may be fitted within or without.

Tax savings & incentives: Drivers are often being encouraged to shift to electric vans and cars by the government which tends to be good news to individuals contemplating acquiring a new one. The plug-in car grant offers a discount to the tune of £3500 for deemed eligible cars while it is to the tune of £8000 for deemed eligible vans. There are as well generous grants to aid towards the cost of home, non-street charge points as well as workplace Kebriaei, Niasar and Asaei, 2015). They are relatively significant tax incentives available for shifting to electric. For the case of the company car drivers, the situation is even better since with the electric vehicles emission 50 g/km of carbon dioxide or even less, benefits in kind tax of 9% was incurred between 2017 and 2018. This may represent significant savings to the driver.

Gaining energy independence: Acquiring a conventional car ties the owner to a gas pump which is the only way when it comes to fueling the car through buying gasoline. Fueling of electric cars is attained by connecting to the electric grid and the electricity may be generated through numerous methods of generation (Volkart, Weidmann, Bauer and Hirschberg, 2017). Of importance still is that electric vehicles may allow one to attain energy independence through the installation of generation of renewable electricity for instance solar array that may be used in fueling the car. Through pairing a solar PV system using an electric vehicle, energy independence may be attained and free electricity may be produced from the sun that may in turn be used in powering the car as opposed to acquiring fuel at the gas pump.

Electric cars may have better performance: In contravention of the stereotype, electric cars tend to be fundamentally superior to internal combustion engine vehicles with regard to acceleration, power as well as torque. On entirety, they as well handle better as a result of their reduced center of gravity with the use of their heavy batteries fixed on the chassis (Bobba et al., 2018). To provide a little of detail on relatively how spectacular electric car performance may be, some of the impressive illustrations are as shown:

  • Small clips on unearthly acceleration of Tesla Roadster
  • Testa Model X overpowering Alfa Romeo 4C sports car during a drag race when towing and Alfa Romeo 4C sports car
  • Volkswagen IDR attempting to beat the Peak hill climbs electric car record of Pike and indeed setting all-powertrain all time record by more than 15 seconds (Yong et al., 2015).

Cheaper to maintain: In comparison to the diesel or petrol which tends to be a complex beast that needs numerous extra components to adequately operate including starter motors, exhaust systems, gears, radiators, oil, fuel injection systems among others, pure electric cars are made up of only three major components including the motor, inverter as well as on-board charger alongside fewer moving parts. Such results in fewer components which need maintenance hence simpler servicing all of which tend to be money saving.  Still, electric cars do not need regular servicing as a result of the fewer moving parts resulting in reduced wear and tear (Kebriaei, Niasar and Asaei, 2015).

Disadvantages Of Electric Cars

In as much as proof of positives has been vividly illustrated, there are as well some drawbacks that every person needs to take into account prior to making a decision on acquisition of electric car as the next big investment. Such include:

Short range of driving and speed: Electric cars tend to have a limited range as well as speed with most of such cars bearing a range of between 50 miles and 100 miles and thereafter call for another recharge. They cannot be used for long journeys in the current state of manufacture and design in as much as this is anticipated to be improved in the future (Lemme, Arruda and Bahiense, 2019).

Longer time of recharge: In as much as it takes just a few minutes to accomplish refuelling of gasoline powered car, to the tune of 8 hours is needed to get an electric car fully powered. Hence, there is need for dedicated power stations since the recharge time need tends to be quite long.

Cost of electricity: Failure to carefully consider the options may tend electric cars a hassle on one’s individual bills. Failing to conduct a thorough and elaborate research on the electric car one intends to acquire would land him into going for an unwise investment choice. At times, the electric cars may need a big charge to attain proper functionality which would be a poor reflection on the electricity bill every month (Heinberg and Fridley, 2016).

How Electric Cars May Help In Sustainability And Development Of Better Environment

Electric cars are greener

Electric cars tend to be greener in comparison with the internal combustion engine vehicles through some key measures excluding carbon intensity of the process of manufacture.

Energy efficiency: Electric cars tends to be highly energy efficient with an efficiency range of between 85 and 90% as compared with the internal combustion engine cars whose efficiencies range between 17 and 21% insinuating they utilize limited energy in moving from one place to another. Less energy translates to reduced carbon generated which in turn translates to less emissions of carbon dioxide generated by non-renewable sources of energy and the wider supply chain of energy (Taljegard, 2017).

Source of energy

Nevertheless claims are often made by sceptics that electric cars just relocate the pollution to power stations, it is termed the long tailpipe theory. To some degree this may be true even though it does not take note that significantly almost all power stations tend to be greener as compared to internal combustion engines with regard to efficiency of energy and carbon. The mix of power generation that is used which is inclusive of solar and wind alongside the power stations is greener in comparison with the internal combustion engines and attaining more greenery all the time (Bobba et al., 2018).

Emissions of Exhaust

Electric cars are associated with zero exhaust emission insinuating they at no point emit exhaust gases which may be of harm to the environment as well as human life as well as soot in regions that are densely populated. Similarly, minimal air pollution is released from the current power generation even as coal tends to become a small aspect of the power mix.

On the contrary, exhaust emisions from the vehicles having internal combustion engines serve to be an important source of carbon dioxide which contribution to worldwide climate change as well as air pollutants which are harmful to human health at the local levels.

Conclusion

An electric vehicle is an extraordinary path for user, as a purchaser, to spare ton of cash on gas. Be that as it may, there are such large numbers of various reasons why you ought to put resources into an electric vehicle in present day of innovation. Despite the fact that proof of positives has turned out to be clear, there are additionally few drawbacks that every individual needs to consider before they choose to make an electric vehicle their next huge investment.

References

Valenzuela, A., Montalvo, I. and Barrera-Singaña, C., 2017, September. Electrical vehicle: Facing future challenges in quito. In 2017 IEEE PES Innovative Smart Grid Technologies Conference-Latin America (ISGT Latin America) (pp. 1-6). IEEE

Matthews, L., Lynes, J., Riemer, M., Del Matto, T. and Cloet, N., 2017. Do we have a car for you? Encouraging the uptake of electric vehicles at point of sale. Energy Policy100, pp.79-88

Philipsen, R., Schmidt, T., Van Heek, J. and Ziefle, M., 2016. Fast-charging station here, please! User criteria for electric vehicle fast-charging locations. Transportation research part F: traffic psychology and behaviour40, pp.119-129

Taljegard, M., 2017. The impact of an Electrification of Road Transportation on the Electricity system in Scandinavia(Doctoral dissertation, Department of Space, Earth and Environment, Chalmers University of Technology)

Bobba, S., Mathieux, F., Ardente, F., Blengini, G.A., Cusenza, M.A., Podias, A. and Pfrang, A., 2018. Life Cycle Assessment of repurposed electric vehicle batteries: an adapted method based on modelling energy flows. Journal of Energy Storage19, pp.213-225

Yong, J.Y., Ramachandaramurthy, V.K., Tan, K.M. and Mithulananthan, N., 2015. A review on the state-of-the-art technologies of electric vehicle, its impacts and prospects. Renewable and Sustainable Energy Reviews49, pp.365-385

Heinberg, R. and Fridley, D., 2016. Renewable electricity: falling costs, variability, and scaling challenges. In Our Renewable Future (pp. 47-80). Island Press, Washington, DC

Lemme, R.F., Arruda, E.F. and Bahiense, L., 2019. Optimization model to assess electric vehicles as an alternative for fleet composition in station-based car sharing systems. Transportation Research Part D: Transport and Environment67, pp.173-196

Volkart, K., Weidmann, N., Bauer, C. and Hirschberg, S., 2017. Multi-criteria decision analysis of energy system transformation pathways: A case study for Switzerland. Energy Policy106, pp.155-168

Halbey, J., Kowalewski, S. and Ziefle, M., 2015, August. Going on a road-trip with my electric car: Acceptance criteria for long-distance-use of electric vehicles. In International Conference of Design, User Experience, and Usability (pp. 473-484). Springer, Cham

Kebriaei, M., Niasar, A.H. and Asaei, B., 2015, October. Hybrid electric vehicles: An overview. In 2015 International Conference on Connected Vehicles and Expo (ICCVE) (pp. 299-305). IEEE