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The internal combustion engine. It's what started it all. Today, thanks to technological advancements, it's more fuel-efficient than ever.
How a
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A highly efficient, gasoline-powered engine is the main source of power for a hybrid electric vehicle. This is what kicks in when driving conditions call for more performance than the electric motor can efficiently provide.
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This is the alternative source of power used for driving in a hybrid electric vehicle. When you're driving in the city or at low speeds, it provides the power. And because it's powered by a high-voltage battery rather than gasoline, a hybrid electric vehicle is remarkably fuel-efficient.
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When you apply the brakes in a conventional vehicle, kinetic energy is lost. During braking in the Fusion Hybrid, the Regenerative Braking System captures over 90 percent of that energy and stores it for later use. Not only does regenerative braking improve braking efficiency, it also helps minimize wear on the brake pads, which may lower the cost of maintenance.
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This is what stores and supplies power to the electric motor. Ford designs its hybrid electric vehicles with a high-voltage nickel-metal-hydride battery. The gasoline engine and the Regenerative Braking System charge the battery automatically during operation.
How a
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A highly efficient gasoline-powered engine will be the main source of power for a plug-in hybrid electric vehicle. This is what will kick in when driving conditions call for more performance than the electric motor can efficiently provide.
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This is what will provide the alternative source of power in a plug-in hybrid electric vehicle. When you're driving in the city or at low speeds, it is designed to generate all the power. And because it will be powered by a high-voltage battery rather than gasoline, a plug-in hybrid electric vehicle is remarkably fuel-efficient.
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When you apply the brakes in a conventional vehicle, kinetic energy is lost. The Regenerative Braking System in the plug-in hybrid electric vehicle captures over 90 percent of that energy and stores it for later use. Not only does regenerative braking improve braking efficiency, it also helps minimize wear on the brake pads, which may lower the cost of maintenance.
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This is what will enable the high-voltage lithium-ion battery to draw and store power from your local electric grid. To charge the battery, you'll plug into a 120-volt outlet or into a 240-volt outlet upgraded with electric vehicle supply equipment.
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This is what stores and supplies the power for the electric motor. The plug-in hybrid electric vehicle features a high-voltage lithium-ion battery, charged by the gasoline engine and the Regenerative Braking System. When not in operation, the battery can be charged by plugging in to a 120-volt outlet or 240-volt outlet upgraded with electric vehicle supply equipment.
How an
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The sole source of power for driving in an all-electric vehicle. It gets its power, in turn, from a high-voltage lithium-ion battery, which is charged by plugging in to a 120-volt outlet or a 240-volt outlet upgraded with electric vehicle supply equipment.
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When you apply the brakes in a conventional vehicle, kinetic energy is lost to heat due to friction. The Regenerative Braking System in an all-electric vehicle will be designed to capture over 90 percent of the energy normally lost and send it back to the battery pack to be stored for later use. Not only does regenerative braking improve braking efficiency, it also helps minimize wear on the brake pads, which may lower the cost of maintenance.
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This is what enables the high-voltage lithium-ion battery to draw and store power from your local electric grid. To charge the battery, plug into a 120-volt outlet or a 240-volt outlet upgraded with electric vehicle supply equipment.
gas engine
electric motor
NiMH Battery
lithium battery
emissions
fills up
plugs in
It's called a hybrid because it's part gasoline engine, part electric motor. Thanks to the electric motor, the gasoline engine does not have to run all the time. And when a Ford hybrid is being powered by electricity, it's not burning gasoline. Good for fuel efficiency. Good for the planet. In most instances at low speeds and for short distances, Ford hybrids run exclusively on electricity. At higher speeds, and when you need more power, the gasoline engine kicks in. Ford hybrids also feature a Regenerative Braking System. Unlike a traditional gasoline engine where the energy generated by braking is lost, this innovative technology enables Ford hybrids to capture braking energy and store it for later use.
gas engine
electric motor
NiMH Battery
lithium battery
emissions
fills up
plugs in
The plug-in hybrid* electric vehicle provides maximum fuel efficiency by pairing a unique high-voltage battery and electric motor with a gasoline engine. This means the gasoline engine does not have to run all the time. That's better for gas mileage. And better for the planet. The plug-in capability allows you to charge the battery using either a 120-volt or a 240-volt outlet upgraded with electric vehicle supply equipment. By doing so, you extend the distance this vehicle can travel in all-electric mode. Its high-voltage lithium-ion battery provides enough power to operate in all-electric mode for short commutes. The plug-in hybrid electric vehicle also features a Regenerative Braking System, which enables it to capture braking energy and store it for later use.
*Developing technology. Specifications subject to change with actual production vehicle.
gas engine
electric motor
NiMH Battery
lithium battery
emissions
fills up
plugs in
*Developing technology. Specifications subject to change with actual production vehicle.
** Compared to Ford hybrid electric and plug-in hybrid electric vehicle batteries.
gas engine
electric motor
NiMH Battery
lithium battery
emissions
fills up
plugs in