The Long and Winding Road: The 180-Year History of Electric Vehicles
Have you found yourself captivated by glossy ads for sleek new electric vehicles (EVs), but assume they’re just a ultra-modern invention enabled by today’s advanced batteries? I thought the same – until I researched back and discovered EVs have been around since the 1830s!
What most people don‘t realize is that electric vehicles have an winding 180-year history filled with early Innovation as well as periods of decline when cheap oil and gas cars took over. But through this complex timeline, EVs evolved from impractical curiosity to flagship technology promising cleaner transportation.
Understanding this rich backstory helps us appreciate why EVs are surging right when they are. It also suggests an exciting electric future as battery costs keep improving and governments prioritize climate-friendly transport.
Let’s delve in to understand where EVs have been – and where they’re headed next!
The Era of Early Electric Vehicle Innovation
Within just years after crude batteries were invented in 1800, innovators began devising ideas to electrify all modes of transport.
The first electric vehicle patent came in 1835 in the UK for a locomotive design. This was soon followed by additional patents for electric trains in the US and Europe. On the road, electric tricycles and carriages appeared throughout the late 1800s, with lead-acid batteries and basic electric motors providing a clean and smooth (if painfully slow) ride.
By the early 1900s, electric vehicle technology had improved enough for a brief commercial debut. Advances like the electric starter from Charles Kettering (enabling gas cars to ignite without difficult hand cranking) and modest lead-acid battery improvements allowed companies like Studebaker, Milburn, and others to sell short-range electric cars mainly for urban use.
But while hotels used electric cars to chauffeur guests, the top speed, range, and lengthy charging times couldn’t match the dramatic cost declines in gasoline cars thanks to abundant oil and Henry Ford’s moving assembly line dropping manufacturing expenses. As this chart shows, EVs rapidly faded from market share after around 1910:
The key challenges holding electric vehicles back then included:
- Expensive Lead-Acid Batteries – Low energy density meant heavy battery packs with limited range
- Lack of Infrastructure – No widespread electrical grid or charging stations
- No Economies of Scale – Small production volumes kept costs high
- Rapid Gas Car Improvements – Falling costs and growing fuel access boosted gas popularity
So while early EVs offered a tantalizingly quiet and smooth experience, the falling costs and advancing capabilities of gasoline engines soon sealed their fate for decades…
The Era of Decline: Gas Cars Displace EVs After 1910
Like many transformative inventions originally ahead of their time, electric vehicles suffered from high costs and infrastructure barriers before performance enhancements and mass production techniques matured.
Gasoline-powered vehicles had no such issues, thanks to ample new oil supplies, steady infrastructure growth, and – most critically – Henry Ford’s moving assembly line driving exponential cost declines after 1913.
As shown below, while U.S. EV sales peaked in 1912, they were dwarfed by sales of Ford’s Model T thereafter and never recovered market share against gasoline vehicles for nearly a century:
Without major battery advancements, most car companies stopped developing electric models altogether. Besides niche applications like milk delivery vehicles with minimal range needs, EVs largely disappeared from roads and mindshare during the first half of the 20th century.
The Lost Years: EVs Fade from Focus As Gas Cars Rule (1920s-1990s)
During the long heyday of cheap oil and ubiquitous gas vehicles in America, electric transport became a fading relic of a bygone era. Developments in battery technology stalled compared to rapid advances for internal combustion engines, transmission systems, and petroleum refining.
Without viable battery options to power longer trips, most commercial interest and R&D funding went towards the booming gasoline auto industry churning out ever-larger and more powerful cars supported by a mature network of oil drilling infrastructure, pipelines, refineries and gas stations catering to postwar suburban sprawl.
Beyond enthusiasts tinkering with custom EV conversions, there was little incentive for most major industries to invest in electric transportation. After all, why divert profits and resources away from the wildly successful oil and gas vehicle complex that was only getting larger and more profitable over time?
But by the 1960s and 70s, cracks began forming in the façade of oil’s total dominance…
Sparking A Revival: Government Support and Lithium Batteries (1990s-Today)
While major private industry had little reason to support alternatives threatening the incredible boom times of oil, growing public dissatisfaction with air pollution and oil scarcity crises in the 1970s sparked new interest in the possibilities of electric transportation.
Seeing the systemic vulnerability of petroleum dependency (and the geopolitical entanglements it breeds), governments began seriously funding battery research again along with pilot programs around electric vehicles. believ
A key technology improvement powering modern EVs emerged from these early government and energy industry R&D efforts – lithium battery chemistry. Lightweight lithium cobalt oxide cathodes and graphite anodes offered much higher energy densities compared to lead-acid, allowing more storage in smaller, lighter battery packs.
When General Motors leveraged these new lithium batteries to launch the sporty, modern EV1 in 1996, public passion for sleek high-performance electric cars was reignited. Though GM ultimately abandoned their EV program, Tesla and other startups stepped in beginning in the 2008 recession to keep advancing lithium battery tech and mainstreaming EVs with ever-more affordable sticker prices and driving ranges.
Spurred by growing climate activism and more aggressive clean transport policies internationally, global investment in electrifying transport finally reached an inflection point. After over a century languishing in obscurity, the next era of innovation for electric vehicles was ready for takeoff.
Modern Applications – Passenger EVs to Electric Aviation
While most associate the idea of an electric vehicle with a passenger car or SUV, electrified powertrains are spreading into nearly every category of transport:
Buses – Shenzhen China already exclusively runs a 16,000 vehicle fleet of silent high-tech electric buses manufactured by BYD. From Colombia to Los Angeles, cities worldwide are announcing their intentions to electrify public bus fleets.
Commercial Trucks – Short range delivery vans like Ford E-Transit offer workhorse capabilities emission-free for local business owners. For long-haul trucking, Tesla’s eye-catching Semi with 500 mile range hints at the potential to overhaul diesel pollution from container transport.
Off-road Vehicles – From electrified trains to forklifts for warehouses, huge mining dump trucks to agricultural equipment, high torque battery-powered motors increasingly replace loud, high maintenance diesel engines.
Aviation – While still early days, short hop planes and air taxis are testing hybrid and full battery packs to work towards commercial electric flight. Startups like Beta Technologies are even piloting 1,500 pound payload eVTOL aircraft for cargo transport.
With lithium battery costs dropping by over 90% since 2010 and still improving steadily thanks to economies of scale, it’s clear electrification will continue spreading into diverse transportation sectors.
The Future is Electric
Considering the winding history electric vehicles have traveled – rising, falling and finally surging back thanks to policy support and lithium battery enhancements – what comes next? Here are the key factors I see driving mainstream EV adoption over the coming decade:
Continued Battery Improvements – Ongoing iterative lithium ion enhancements plus game-changing solid state batteries by 2030 expanding ranges and charging speeds.
Charging Infrastructure Investments – Expanding workplace and high-speed public charging stations to enable long trips and reduce consumer anxiety. Smarter grids handling growing electricity demand.
Clean Transport Policy Incentives – Stricter emissions mandates like the EU’s 2035 combustion engine phase-out and EV purchase incentives driving adoption.
Manufacturing Scale Effects – As legacy automakers ramp up EV production volumes on dedicated assembly lines, costs fall expanding mainstream appeal.
New Vehicle Categories Electrified – everything from electric long-haul trucks to air taxis and delivery drones scaling up electrification.
Judging by hockey stick EV adoption curves in many countries, we seem to be approaching a tipping point for mass conversion away from gasoline transport within this decade. After over 180 years of winding history with hits and misses, electric vehicles are finally entering the exponential growth part of the classic innovation S-curve.
It’s an exciting time to observe this accelerating clean transport transition! I don’t know about you, but after learning about EVs’ rich backstory of early innovations, setbacks and eventual revival, I can’t wait to see what the next chapter holds as the zero emissions mobility ecosystem develops further in the years ahead.
Where do you see the EV revolution by 2030? Which new applications are you most excited by? Let me know your thoughts!
