
Meet the instructor with 16 years of automotive engineering experience and explore the motivations, definitions, models, modes of operation, energy storage, and regenerative braking in hybrid electric vehicles.
identify the key motivations for the rise of hevs, including limited petroleum resources, transport risk from oil dependence, rising car use and emissions, global warming, and tightening emission regulations.
Discover how hybrid electric vehicles pair an internal combustion engine with an electric propulsion system to improve fuel economy and performance, featuring popular models like Toyota Prius and Honda Civic.
Explore the architecture of hybrid electric vehicles, focusing on base and series configurations, energy flow from engine to generator to battery or motor, and regenerative power from braking.
Parallel hybrid vehicles use two mechanical power flows from the engine and electric motor, combined by a power-split device to drive the wheels and recharge the battery through regeneration.
Examine battle hybrids and power-split configurations with mechanical and electrical coupling. Explore plug-in hybrids, battery range, and the power split device's role in efficient engine operation.
Explore the degree of hybridisation in automotive engineering, comparing full hybrids, mild and light hybrids, and the roles of regenerative braking and integrated starter generators.
Hybrid electric vehicles balance a gasoline engine for power and an electric motor for low-speed drive and boost, with electronics managing the split and regenerative braking and five motor models.
Electric motors deliver torque at dual speeds through constant torque and constant power control via power electronics, while efficiency depends on operating conditions and losses through the inverter and motor.
Explore how a gasoline engine powers a generator to charge batteries and feed an electric motor, and how power split devices regulate sharing between internal combustion engines and electric motors.
Analyze battery storage systems for electric and hybrid vehicles, including battery packs, energy capacity, energy density, and specific energy. Examine lithium, nickel, and ultracapacitors, state of charge, and cost-weight-space trade-offs.
Learn how hybrid electric vehicles use motors as generators to enable regenerative braking, converting kinetic energy into battery energy, with high-speed recovery and city-driving emphasis.
Hybrid Electric Vehicles/Hybrid vehicles; Complete overview
Automotive Engineering; Hybrid Electric Vehicles
Hybrid Electric Vehicles/Hybrid vehicles; Complete overview
Course will begin by explaining what the Key motivations for Hybrid electric vehicles (HEV)/Hybrid Vehicles are. What is the main necessity for the hybrid models?
Course will begin by explaining what the Key motivations for Hybrid electric vehicles (HEV)/Hybrid Vehicles are. What is the main necessity for the hybrid models?
A brief history of the Hybrid vehicles. Importance of Hybrid vehicles.
Also, it will elaborate What are Hybrid electric vehicles (HEV)/Hybrid Vehicles?
World famous Hybrid electric vehicles (HEV)/ World famous Hybrid Vehicles models
Classification of the Hybrid electric vehicles (HEV)/Hybrid Vehicles based on the Architecture of Hybrid Vehicles.
Modes of operation of the Hybrid electric vehicles (HEV)/Hybrid Vehicles
Degree of Hybridization (DOH) and various classifications based on the degree of hybridization. Degree of Hybridization (DOH) and various classifications based on the degree of hybridization.
Classification of HEVs based on degree of hybridization
Key components of Hybrid Electric vehicle and the concerned architecture.
Energy storage systems of Hybrid electric vehicles (HEV)/Hybrid Vehicles
Requirements of Electric drive of Hybrid electric vehicles (HEV)/Hybrid Vehicles
Regenerative braking-An introduction to regenerate the energy from the braking
Brief introduction about the author.
A detailed discussion about various aspects of the Hybrid electric vehicles/Hybrid Vehicles/Hyrbid Architecture