Facts About Electric Cars

Electric cars have been around for more than a century, and today’s models offer technology, performance, and driving range that make them practical for many everyday drivers. Fully electric vehicles run on rechargeable batteries instead of gasoline, produce no tailpipe emissions, and generally need fewer routine powertrain maintenance services than traditional gas-powered cars.

But there’s more to electric vehicles than simply plugging them in. EVs have an interesting history, come in a variety of shapes and sizes, and use technologies that can make driving more efficient. Their battery range, charging requirements, and ownership costs also vary significantly by model.

For Nebraska drivers considering an EV, understanding these differences can help make the transition easier. A daily commute around Omaha or Lincoln may be relatively simple to manage with home charging, while longer trips through rural communities require more planning.

Here are some interesting facts about electric cars, along with practical information to consider before buying one. You can also explore Sid Dillon’s electric vehicle research and ownership guides for additional information.

1. Electric Cars Have Been Around Since the 1800s

Electric vehicles are much older than many people realize. Early experiments with electrically powered transportation date back to the 19th century, decades before modern battery-electric cars became available.

Inventors developed experimental electric vehicles during the 1830s and later decades, although the technology was limited by early battery designs. As rechargeable batteries improved, electric vehicles became more practical.

British inventor Thomas Parker is often recognized for developing an early practical electric automobile in the 1880s, commonly associated with 1884. However, he wasn’t the first person to experiment with electric-powered road vehicles.

By the early 1900s, electric cars were competing with gasoline and steam-powered vehicles. They were particularly appealing for some urban applications because they were relatively quiet and didn’t require hand-cranking an engine to start.

Gasoline-powered vehicles eventually became dominant as mass production, fuel availability, and internal combustion technology improved. Electric cars returned to greater prominence as modern battery technology and charging infrastructure developed.

Today’s EVs are considerably more advanced than their early predecessors, but the basic concept remains familiar: using stored electrical energy to power a vehicle’s wheels.

2. Electric Vehicles Include Cars, SUVs, Trucks, and Buses

Electric vehicles aren’t limited to small cars or compact hatchbacks. Battery-electric technology is now used in passenger cars, SUVs, pickup trucks, commercial delivery vans, transit buses, and certain heavy-duty vehicles.

For everyday drivers, electric SUVs and pickups have expanded the range of available EV options. Manufacturers such as Chevrolet, Ford, Hyundai, Genesis, and Nissan have developed electric vehicles for different driving needs and budgets.

Are Electric Trucks as Capable as Gas or Diesel Trucks?

Electric pickups can provide substantial towing capability and strong acceleration, but they have different operating considerations than gasoline or diesel trucks. Electric motors deliver torque quickly, making them well suited for moving heavy loads under appropriate conditions.

However, towing a trailer can significantly reduce electric driving range. Trailer weight, aerodynamics, highway speed, terrain, and outside temperature all affect energy consumption.

Electric trucks may be practical for local work or predictable routes with dependable charging. For frequent long-distance towing, gas and diesel pickups can offer greater refueling convenience.

For a detailed comparison, read our diesel vs. gas vs. electric trucks guide.

3. Some Electric Cars Can Travel More Than 300 Miles on One Charge

Modern electric vehicles offer a wide range of battery capacities and EPA-estimated driving ranges. Some shorter-range EVs are designed for commuting and city driving, while certain longer-range models can travel more than 300 or even 400 miles on a full charge under EPA testing.

An EV’s advertised range depends on the specific model, trim, drivetrain, wheels, and battery configuration. All-wheel drive, larger wheels, performance-oriented equipment, and other features can affect efficiency.

It’s important to remember that EPA-estimated range is a standardized comparison figure, not a guarantee of actual driving distance. Cold temperatures, high speeds, hills, vehicle loading, and climate control use can reduce the distance traveled between charges.

Why Does Electric Car Range Change?

Electric vehicles use energy differently depending on driving conditions. Just as gasoline vehicles consume more fuel under certain circumstances, EVs use more battery energy when traveling at sustained highway speeds, accelerating aggressively, or heating the cabin during cold weather.

Nebraska drivers should pay particular attention to winter temperatures and longer highway trips. A vehicle with sufficient range for everyday travel around Fremont or Omaha may require additional charging stops during an extended winter road trip.

If you’re concerned about running out of battery power, understanding your vehicle’s real-world range and planning charging stops can help reduce EV range anxiety.

4. Electric Cars Can Be Charged at Home or at Public Stations

One of the most convenient features of owning an electric vehicle is the ability to recharge at home. Drivers with suitable electrical equipment can charge while their vehicle is parked, reducing the need for separate fueling stops during everyday travel.

However, electric vehicles cannot simply recharge at every parking location. Charging requires an appropriate power source, compatible charging equipment, and access to an approved charging connection.

Three Common Electric Vehicle Charging Levels

Charging speed varies by vehicle, battery size, equipment power, battery temperature, and state of charge. Not every EV supports the same maximum charging rate.

Public charging availability also varies by location. Drivers should check that a station supports their vehicle’s charging connector and has an appropriate charging speed before relying on it for a trip.

For Nebraska drivers considering home charging, our guide on how to prepare your home for an electric vehicle explains important installation and electrical considerations.

5. Electric Cars Use Regenerative Braking to Recover Energy

Regenerative braking allows an electric vehicle to recover some of the energy that would otherwise be lost as heat during braking. When the vehicle slows down, its electric motor can act as a generator and return energy to the battery.

This technology is particularly useful during stop-and-go driving because the vehicle repeatedly slows down and accelerates. It can improve efficiency and reduce wear on conventional friction brakes under certain conditions.

Some EVs also offer one-pedal driving. This feature allows drivers to control much of the vehicle’s acceleration and deceleration using the accelerator pedal, although the brake pedal remains necessary for additional stopping power and certain driving situations.

Regenerative braking doesn’t create free energy or eliminate conventional brakes. The amount of energy recovered depends on vehicle design, battery conditions, speed, and the amount of braking required.

6. Electric Vehicles Generally Need Less Routine Powertrain Maintenance

Battery-electric vehicles typically require less routine powertrain maintenance than gasoline-powered cars because they don’t have internal combustion engines, conventional exhaust systems, or many related mechanical components.

Fully electric cars do not need engine oil changes, spark plug replacements, or engine air filter changes. Regenerative braking may also reduce friction brake wear.

However, electric vehicles are not maintenance-free. They still need services such as:

• Tire Maintenance: Tire pressure checks, rotations, alignment inspections, and replacements when necessary.
• Brake Inspections: Brake pads, rotors, hydraulic systems, and brake fluid still require attention.
• Cabin Air Filters: Replacement according to the manufacturer’s recommendations.
• Cooling Systems: Some EV battery and drive systems use liquid coolant that requires inspections or scheduled service.
• Charging Equipment: Cables, connectors, and charging ports should be inspected for damage or operating problems.
• Suspension and Steering: Regular inspections remain important, especially on Nebraska roads affected by potholes and winter conditions.

The exact maintenance schedule depends on the manufacturer and model. Review our eight common electric car service questions for more information about oil changes, transmissions, fluids, and EV service needs.

7. Electric Car Batteries Are Designed for Long-Term Use

Electric vehicle batteries are designed to operate for many years, and most gradually lose some energy-storage capacity as they age. Battery degradation is different from complete battery failure.

Many manufacturers provide high-voltage battery warranty coverage for at least eight years or 100,000 miles, whichever comes first. Actual coverage depends on the manufacturer, model year, battery components, and applicable warranty terms.

Battery health can be affected by age, charging habits, extreme temperatures, and the vehicle’s thermal management system. Modern EVs use electronic controls to regulate charging and help protect their batteries.

For example, cold weather may temporarily reduce available EV range without causing permanent battery deterioration. Prolonged exposure to high temperatures can be a greater concern for long-term lithium-ion battery degradation.

If you’re shopping for a used EV, consider reviewing its battery warranty, service history, and available battery health information. Our electric car battery life guide explains these considerations in more detail.

8. Not Every Electrified Vehicle Is Fully Electric

Hybrid vehicles, plug-in hybrids, and battery-electric vehicles all use electric motors, but they don’t operate the same way. Understanding these differences is important when comparing vehicles.

• Hybrid Electric Vehicles (HEVs): Combine gasoline engines with electric motors to improve efficiency. Conventional hybrids don’t need to be plugged in.
• Plug-In Hybrid Electric Vehicles (PHEVs): Have rechargeable batteries and gasoline engines. They can drive a model-dependent distance using electricity and continue traveling with gasoline power.
• Battery Electric Vehicles (BEVs): Operate entirely on electricity stored in rechargeable batteries and do not have gasoline engines.
• Fuel Cell Electric Vehicles (FCEVs): Use hydrogen to generate electricity onboard. They generally refuel at specialized hydrogen stations rather than conventional EV charging stations.

Some manufacturers also use terms such as extended-range electric vehicle to describe particular drivetrain designs. These systems may use an onboard gasoline engine as a generator, but their operation and classification depend on the specific model.

Neighborhood electric vehicles are another specialized category, generally consisting of lower-speed vehicles intended for restricted road environments. They are not equivalent to conventional highway-capable EVs.

For a more detailed explanation of each powertrain, read our guide to the different types of electric vehicles.

9. Electric Vehicles Can Reduce Energy Costs, But Savings Vary

Electric vehicles can cost less to power than comparable gasoline vehicles, especially when owners charge primarily at home using favorable electricity rates. However, actual operating savings depend on the vehicle, local energy prices, driving habits, and charging equipment.

Electric motors are generally more efficient at converting stored energy into vehicle movement than internal combustion engines. That efficiency can help reduce the energy needed for everyday driving.

However, public DC fast charging can be more expensive than home charging. Insurance, tire replacement, purchase price, depreciation, and repairs also affect total ownership costs.

Before purchasing an EV, compare your expected electricity costs with the fuel consumption of a comparable gasoline or hybrid vehicle. A driver with access to inexpensive home charging may have a very different ownership experience than someone who relies almost entirely on public charging stations.

For more information about ownership advantages and expenses, visit our benefits of buying an electric car article.

10. Nebraska Driving Conditions Can Affect EV Ownership

Electric vehicles can be practical in Nebraska, but winter temperatures, driving distances, and charging availability deserve consideration. Choosing a vehicle with sufficient range and suitable charging access is particularly important for drivers who regularly travel outside larger communities.

A few factors to consider include:

• Cold Weather Range: Freezing temperatures can temporarily reduce battery performance, while cabin heating uses additional energy.
• Highway Travel: Sustained interstate speeds can increase energy consumption compared with lower-speed driving.
• Home Charging: Reliable access to Level 2 charging can make daily EV ownership more convenient.
• Public Charging: Drivers traveling between communities should verify charging station availability, connector compatibility, and charging speed before longer trips.
• Winter Tires and Maintenance: Appropriate tires, properly functioning brakes, and routine maintenance remain essential regardless of powertrain.

For drivers around Omaha, Lincoln, Fremont, and surrounding communities, a dependable home charging routine can cover many daily driving needs. Longer trips may require more planning, especially during winter or when traveling through areas with fewer charging stations.

Learn more in our article about electric vehicle reliability in Nebraska.

What Should You Know Before Buying an Electric Car?

Before buying an electric car, make sure its range, charging capabilities, passenger space, and ownership costs fit your daily needs. A vehicle’s maximum EPA-estimated range is important, but it shouldn’t be the only factor in your decision.

Consider these questions when comparing electric vehicles:

• How far do you drive each day? Compare your average mileage and occasional longer trips with the vehicle’s realistic driving range.
• Can you charge at home? Home charging can simplify ownership and reduce reliance on public charging networks.
• What charging connectors does the vehicle use? Confirm compatibility with public stations you expect to use.
• How will winter affect your driving? Plan for reduced range and potentially slower charging during cold Nebraska weather.
• What warranty coverage is included? Review the battery warranty, vehicle warranty, and maintenance requirements.
• What are the total ownership costs? Include insurance, electricity, charging equipment, tires, financing, and anticipated maintenance.

Researching these details before purchasing can help you choose an electric vehicle that meets your needs without unnecessary surprises.

Learn More About Electric Cars at Sid Dillon

Electric cars offer a different approach to everyday transportation, with rechargeable batteries, efficient motors, and a growing selection of vehicle types. Understanding their history, charging requirements, driving range, and ownership costs can help you decide whether an EV makes sense for your lifestyle.

Sid Dillon helps drivers throughout Nebraska explore electric and hybrid vehicles, with dealership locations serving Lincoln, Fremont, Blair, Crete, Wahoo, and the surrounding Omaha metro area.

Browse our new electric and hybrid vehicles to compare available models. You can also check our electric vehicle specials, review EV ownership information, or schedule a test drive.

Inventory and model availability vary by dealership. If you have questions about a particular EV, including range, equipment, charging, or availability, contact Sid Dillon for more information.