Authors :
Kanak Sunil Patil ; Prasad Pandhareenath Desai
Volume/Issue :
Volume 9 - 2024, Issue 1 - January
Google Scholar :
http://tinyurl.com/mrzxfysu
Scribd :
http://tinyurl.com/3hsaxrjr
DOI :
https://doi.org/10.5281/zenodo.10538787
Abstract :
Regenerative braking systems have emerged as
a pivotal technology in the realm of transportation,
particularly in electric and hybrid vehicles. This
innovation transforms the conventional process of
braking by harnessing and repurposing kinetic energy
that is traditionally dissipated as heat. Through the
integration of specialized electric motors acting as
generators, the kinetic energy during deceleration is
converted into electrical energy. This surplus energy is
then stored in on-board batteries or other energy storage
systems, offering a sustainable means of enhancing
overall vehicle efficiency. This abstract provides an
overview of the fundamental principles underlying
regenerative braking systems, highlighting their role in
increasing energy efficiency, reducing brake wear, and
extending the driving range of electric vehicles. The paper
delves into the mechanics of regenerative braking,
exploring how the technology functions and its impact on
traditional braking systems. Furthermore, the abstract
underscores the environmental benefits of regenerative
braking, contributing to the broader discourse on
sustainable transportation solutions. As the automotive
industry continues to evolve towards greener practices,
regenerative braking systems stand as a key enabler in the
pursuit of energy conservation and reduced carbon
emissions.
Keywords :
Regenerative, Braking, Hybrid Vehicles, Kinetic Energy Recovery System, Flywheel, Motor, Hydraulic Power Assist (HPA)
Regenerative braking systems have emerged as
a pivotal technology in the realm of transportation,
particularly in electric and hybrid vehicles. This
innovation transforms the conventional process of
braking by harnessing and repurposing kinetic energy
that is traditionally dissipated as heat. Through the
integration of specialized electric motors acting as
generators, the kinetic energy during deceleration is
converted into electrical energy. This surplus energy is
then stored in on-board batteries or other energy storage
systems, offering a sustainable means of enhancing
overall vehicle efficiency. This abstract provides an
overview of the fundamental principles underlying
regenerative braking systems, highlighting their role in
increasing energy efficiency, reducing brake wear, and
extending the driving range of electric vehicles. The paper
delves into the mechanics of regenerative braking,
exploring how the technology functions and its impact on
traditional braking systems. Furthermore, the abstract
underscores the environmental benefits of regenerative
braking, contributing to the broader discourse on
sustainable transportation solutions. As the automotive
industry continues to evolve towards greener practices,
regenerative braking systems stand as a key enabler in the
pursuit of energy conservation and reduced carbon
emissions.
Keywords :
Regenerative, Braking, Hybrid Vehicles, Kinetic Energy Recovery System, Flywheel, Motor, Hydraulic Power Assist (HPA)