Design of Powertrain System of an EKART

In today's automotive landscape, major vehicle manufacturers are placing significant emphasis on developing and incorporating electric vehicles (EV's) into their product portfolios, and the reasons are abundantly clear. Amidst the pressing global issue of climate change, exacerbated by the widespread concern over air pollution, the automotive industry is at a critical juncture. Traditional combustion engines, notorious for emitting harmful exhaust gases, contribute significantly to air pollution, further exacerbating the problem of global warming. The proliferation of vehicles worldwide only exacerbates this issue, necessitating a shift towards more sustainable transportation solutions. The transition to electric vehicles represents a pivotal step in combating pollution and mitigating the effects of global warming. Unlike their combustion engine counterparts, EVs produce zero exhaust emissions and boast greater operational efficiency. Furthermore, the electric motors powering these vehicles possess the capability to regenerate energy through mechanisms such as back electromotive force (E.M.F), enhancing overall efficiency and reducing environmental impact. While it's true that electric vehicles may not currently match the range offered by traditional combustion engines, the trade-off is negligible when considering the broader environmental benefits. Moreover, ongoing advancements in mechanical and automotive engineering promise continued improvement in EV technology, offering a glimpse of a more sustainable future.