The History of Electric Cars, Robotaxis & Self-Driving Transportation

Small Experimental Electric Vehicles

Inventors in Hungary, the Netherlands, Britain, and the United States experimented with devices powered by electricity. Early demonstrations were generally small-scale and did not resemble practical passenger automobiles.

Many could not travel far, lacked suitable rechargeable batteries, or depended on laboratory-scale electrical systems.

Robert Anderson's Electric Carriage

Scottish inventor Robert Anderson is commonly associated with an early electric carriage. Historical accounts vary in their dating and technical descriptions.

Its significance lies in demonstrating electric propulsion rather than establishing a practical commercially available automobile.

Thomas Davenport and Electric Motors

American inventor Thomas Davenport experimented with battery-powered electric motors and demonstrated the possibilities of electrical mechanical motion.

These early motor developments formed part of the technological foundation later used in electric transportation.

Gaston Planté and Rechargeable Batteries

French physicist Gaston Planté developed the rechargeable lead-acid battery. This was critical because an electrically powered vehicle became much more practical when its battery could be replenished rather than discarded.

Battery weight, charging time, energy capacity, and reliability remained substantial engineering problems.

Battery Improvements and European Experiments

Camille Faure's improvements to lead-acid battery technology helped increase practical energy storage. Experimental electrically propelled vehicles were demonstrated in Europe during this era.

Andreas Flocken and the Electric Carriage

German engineer Andreas Flocken constructed an electric carriage frequently discussed among the earliest recognizable electric automobiles.

Historical sources differ in their definitions of the first electric automobile, so the designation should not be presented as an uncontested single invention.

William Morrison's Electric Vehicle in Iowa

William Morrison, a chemist based in Des Moines, Iowa, developed an electric passenger carriage widely recognized as one of the first successful American electric automobiles.

His vehicle demonstrated that battery-powered transportation could carry multiple passengers, helping attract public and commercial interest.

Electric Transportation at the Chicago World's Fair

Morrison's electric vehicle appeared at the World's Columbian Exposition in Chicago. Public exhibitions introduced American audiences to the possibilities of electric passenger transportation.

London's Early Electric Taxi Fleet

Walter Bersey developed electric cabs used in London during the 1890s. These vehicles demonstrated a possible alternative to horse-drawn taxicabs within large cities.

Limited battery endurance, maintenance requirements, operating expenses, and technical reliability presented challenges for early operators.

Electric Taxicabs Enter New York City

Historic newspaper documentation identifies an initial fleet of twelve electric taxicabs operating in New York City in 1897.

The electric taxi was attractive because it avoided the exhaust fumes and manual engine starting associated with early gasoline vehicles.

Charging, Battery Exchange, and Fleet Operations

Commercial electric transportation required dependable charging and maintenance arrangements. Operators experimented with fleet infrastructure and methods of keeping vehicles available despite limited battery range.

These practical problems anticipated many modern fleet-management concerns, including vehicle uptime, charging capacity, and energy costs.

Electric Automobiles in Urban Transportation

Electric vehicles competed with gasoline and steam-powered automobiles. They were particularly suitable for some short urban trips, where relatively limited range was less disadvantageous.

Electric taxi history is therefore an important predecessor to modern electric ridesharing, even though early cabs were entirely human-driven.

Electric Vehicles Capture a Significant Early Market

Electric vehicles represented a substantial portion of America's early automobile market. Historical estimates indicate that approximately one-third of automobiles on American roads were electric around the turn of the century.

Exact percentages depend on which years and vehicle populations historical researchers measure. They should not be interpreted as modern vehicle-registration statistics.

Thomas Edison Investigates Better Batteries

Thomas Edison explored improvements to batteries for electric vehicles, including alkaline battery technology.

Battery weight, performance, cost, and longevity were major concerns for the emerging industry.

The Early Hybrid Automobile

Ferdinand Porsche's Lohner-Porsche developments demonstrated hybrid propulsion concepts combining combustion power and electric drive.

The engineering idea of combining electricity and a fuel-powered engine therefore predates the modern Toyota Prius by many decades.

Henry Ford Introduces the Model T

Ford's Model T helped make gasoline automobiles increasingly affordable for ordinary consumers. Mass production transformed automobile pricing, availability, and manufacturing economics.

Electric automobiles remained in the marketplace, but gasoline vehicles became increasingly competitive, particularly for longer travel.

Electric Starting Reduces a Gasoline-Car Disadvantage

The practical electric starter eliminated the need for hand-cranking on equipped gasoline automobiles.

This improved the convenience of gasoline vehicles and reduced one important reason consumers had preferred electric automobiles.

Ford and Edison Explore Electric Vehicle Possibilities

Henry Ford and Thomas Edison explored the potential for more affordable electrically powered automobiles.

Such experiments show that automakers continued considering electric propulsion even as gasoline vehicles gained market share.

The Electric Automobile Faces a Changing Market

Improved highways encouraged Americans to travel farther between towns and cities. Gasoline automobiles offered practical refueling options and longer-distance flexibility.

Gasoline filling stations became increasingly common. Electric vehicles remained constrained by battery technology, charging infrastructure, and the uneven availability of electricity outside major cities.

This was particularly relevant to rural states such as Minnesota, where long travel distances and winter conditions created additional transportation challenges.

That geographic observation does not establish the presence or absence of any particular Minnesota electric automobile fleet.

Electric Passenger Cars Largely Disappear From the Market

By the middle of the 1930s, conventional gasoline-powered automobiles had become dominant in the United States.

Electric passenger cars survived in limited applications, but had lost their early mass-market position.

A Gasoline-Dominated Automobile Industry

Internal-combustion vehicles became the foundation of American passenger transportation. Electric propulsion remained relevant in certain specialized industrial and commercial applications.

Air Pollution and Energy Research Renew Interest

Urban air-quality concerns and new environmental research helped stimulate investigation of alternative transportation technology.

Electric vehicles offered the possibility of eliminating tailpipe emissions while shifting the source of vehicle energy to electricity generation.

NASA Uses Electric Vehicles on the Moon

The Apollo lunar roving vehicle demonstrated battery-powered transportation in a specialized operating environment.

Although not a consumer automobile, it illustrated the value of electric propulsion for demanding mobility applications.

The Energy Crisis

Petroleum supply disruptions and rising fuel prices increased public and government interest in reducing dependence on gasoline.

Automobile manufacturers investigated alternative propulsion technologies, including electric-drive systems.

The Sebring-Vanguard CitiCar

The small wedge-shaped CitiCar became a notable production electric automobile. More than 2,000 vehicles were produced during its period of manufacture.

Its limited performance and range demonstrated both the potential and the technical limitations of the era.

Federal Electric and Hybrid Vehicle Research Legislation

The United States adopted the Electric and Hybrid Vehicle Research, Development, and Demonstration Act.

This legislation supported federal research, development, and demonstrations concerning electric and hybrid transportation technology.

Clean-Air Regulation Influences Vehicle Development

Environmental regulation, including California's zero-emission vehicle policies, increased pressure for cleaner automotive technologies.

Automakers began developing additional electric vehicle prototypes and production programs.

Commercial Lithium-Ion Battery Technology

Commercialization of rechargeable lithium-ion battery technology helped lay the groundwork for improvements in portable energy storage.

Later battery improvements would make modern longer-range electric vehicles increasingly practical.

General Motors EV1

General Motors introduced the EV1, an electric automobile developed as a dedicated electric vehicle rather than a simple conversion of an existing gasoline-powered design.

The EV1 became an important part of modern electric-vehicle history and public debate over technology, regulation, and automotive investment.

Toyota Prius Arrives in Japan

Toyota introduced the Prius as a mass-produced hybrid electric vehicle. Its hybrid drivetrain demonstrated the commercial practicality of combining gasoline and electric propulsion.

Hybrids Enter a Broader Consumer Market

The Honda Insight arrived in the United States in 1999. Toyota expanded Prius availability internationally in 2000.

These vehicles helped renew public familiarity with electric motors as part of ordinary passenger transportation.

Hybrid Vehicles Establish a New Consumer Market

The Prius and other hybrid models demonstrated the commercial appeal of combining electric propulsion with conventional engines.

These developments also helped expand battery manufacturing expertise and electric drivetrain technology.

Tesla Motors and the Roadster

Tesla Motors was founded in 2003 and later introduced the Roadster, demonstrating the potential of modern lithium-ion battery technology in a high-performance electric automobile.

The Roadster marked an important change in public perceptions of electric vehicles, which had frequently been associated with limited range and slow performance.

Federal Investment and Research Support

Federal economic-recovery measures supported cleaner transportation, battery manufacturing, and related technology development.

Nissan LEAF and Chevrolet Volt

Nissan introduced the all-electric LEAF, while Chevrolet introduced the Volt, a plug-in vehicle using an electric drivetrain with gasoline-based extended-range capability.

These products widened the practical consumer market for plug-in automobiles.

Tesla Model S

Tesla began deliveries of the Model S, helping establish longer-range battery electric sedans as a competitive consumer vehicle category.

Broader Electric Vehicle Adoption

New models, expanded charging networks, and continued battery improvements increased electric-vehicle visibility.

Public charging infrastructure became increasingly important for intercity travel, including cold-weather states such as Minnesota.

Infrastructure Investment and Jobs Act

The federal infrastructure law established significant transportation electrification investments, including the National Electric Vehicle Infrastructure program.

The program sought to develop a more interconnected charging network along designated corridors.

Inflation Reduction Act

The Inflation Reduction Act revised federal clean-vehicle tax incentives and established eligibility rules related to vehicle characteristics, manufacturing, battery sourcing, and consumer qualifications.

Federal Clean-Vehicle Credit Changes

Federal legislation in 2025 changed clean-vehicle tax-credit availability. The previously available federal clean-vehicle purchase credits ended for vehicles acquired after September 30, 2025.

Readers should not rely on outdated articles that continue to advertise those former federal purchase credits.

Electric Vehicles and Automated Driving Continue to Evolve

Electric propulsion and automated driving are developing along related but separate technology paths. Some automated passenger fleets use battery-electric vehicles.

Others use hybrid platforms, and many conventional electric vehicles still require a licensed human driver at all times.

Next Generation Energy Act

Minnesota enacted the Next Generation Energy Act under Governor Tim Pawlenty. The law established greenhouse-gas reduction goals and formed part of the state's longer-term energy and climate policy.

This was not an autonomous vehicle law. Its significance to transportation was the broader effort to reduce emissions from energy consumption.

Electric Vehicle Charging Equipment Requirements

Minnesota enacted requirements concerning electric vehicle charging equipment, including compatibility and applicable safety standards.

Minnesota Statutes section 325F.185 is a key reference for this period.

Electric Vehicle Registration Fee Framework

Minnesota established an additional registration-fee framework for electric vehicles.

Later amendments changed how fees are calculated and applied, including vehicle-value-related provisions.

First Connected and Automated Vehicle Advisory Council

Governor Mark Dayton issued Executive Order 18-04 on March 7, 2018.

The order established an advisory council to study connected and automated vehicle technology, future transportation policy, safety, and potential legal changes.

This was a milestone for automated transportation policy, not simply electric-vehicle purchasing.

Executive Order 19-18

Governor Tim Walz issued Executive Order 19-18, establishing a successor Governor's Council on Connected and Automated Vehicles.

Its work included studying transportation safety, automated vehicle technology, and proposals for legislation and administrative policy.

Clean Cars Minnesota Rulemaking Announced

Governor Walz directed the Minnesota Pollution Control Agency to begin rulemaking concerning low-emission and zero-emission vehicle standards.

The proposal concerned the availability and emissions performance of new vehicles sold in Minnesota.

Clean Cars Minnesota Rules Adopted

The Minnesota Pollution Control Agency adopted clean-car rules covering low-emission and zero-emission vehicle standards.

These rules addressed manufacturer requirements for vehicles delivered to the Minnesota market.

They did not require every Minnesota driver to purchase an electric car.

Electric Vehicle Rebate Legislation

The Minnesota Legislature created a state electric vehicle rebate program and associated funding through 2023 legislation.

The program provided rebates of up to $2,500 for qualifying new vehicles and up to $600 for qualifying used vehicles, subject to eligibility and available funding.

Minnesota Statutes section 216C.401 documents the program.

Minnesota Electric Vehicle Rebates Open

Minnesota opened the state electric vehicle rebate application program.

Applications were considered according to program rules and available funds.

Rebate Program Application Period Ends

The Minnesota Department of Commerce reports that the state rebate program distributed more than 6,600 rebates during its application period.

The program's funding was claimed and new applications are no longer accepted.

Clean Cars Minnesota Rule Reaches the End of Its Applicable Model Years

Minnesota's Pollution Control Agency announced that the Clean Cars Minnesota rules had become obsolete following the 2025 automobile model year.

The agency subsequently began a process in 2026 to repeal obsolete portions of the regulations.

Historical adoption and reporting obligations should be distinguished from current enforceable requirements.

Electric and Plug-In Hybrid Registration Fee Changes

Minnesota's additional electric and plug-in hybrid vehicle registration fees changed under the amended statutory framework.

From January 1, 2026 through June 30, 2027, additional registration fees have stated minimums of $150 for battery electric vehicles and $75 for plug-in hybrids. Actual charges depend on applicable statutory rules.

Obsolete Clean Cars Rule Repeal Process

The Minnesota Pollution Control Agency published notice of proposed repeal of obsolete rule provisions in June 2026.

Its public-comment period ran through August 28, 2026. A proposed repeal should not be represented as final until the official rulemaking record confirms completion.

Early Automated Highway and Robotics Research

Researchers examined automated steering, road guidance, vehicle control, machine vision, and computer-controlled mobility.

Early systems were experimental and lacked the sensors and computing capacity available to contemporary automated vehicle developers.

Computer Vision and Intelligent Vehicles

Universities, government agencies, and technology researchers explored autonomous navigation, image processing, robotics, and vehicle positioning.

DARPA Grand Challenge and Urban Challenge

U.S. Defense Advanced Research Projects Agency competitions advanced research in autonomous navigation and driving.

The challenges helped demonstrate improvements in sensing, computer planning, and robotic vehicle control.

Google Self-Driving Car Project

Google began developing self-driving vehicle technology through a project that eventually became Waymo.

The project investigated automated navigation, vehicle perception, mapping, and driving in complex traffic conditions.

Waymo Becomes a Distinct Company

Google's self-driving project became Waymo, an autonomous driving technology company within Alphabet.

Commercial Robotaxi Development

Waymo began commercial autonomous ride-hailing development and operations in the Phoenix area.

Service characteristics changed over time as the company expanded driverless capabilities.

Growth of Driverless Ride-Hailing

Autonomous ride-hailing expanded into additional U.S. cities.

Public availability, safety requirements, service geography, supervision, and weather capability differed between programs.

Minnesota Becomes Part of Waymo's Expansion Research

Waymo began preparatory operations in Minneapolis in November 2025.

Minnesota's winter conditions, vehicle regulation, and local policy debate became important elements of the state's robotaxi story.

Waymo Announces Minneapolis Preparatory Operations

Waymo publicly announced that it was beginning preparatory driving operations in Minneapolis.

The company identified Jaguar I-PACE and Zeekr RT vehicles as part of its mixed fleet.

Waymo also discussed winter-weather development and testing in other snowy regions of the United States.

Minneapolis Preparatory Vehicle Operations

Waymo vehicles were observed operating in Minneapolis during the preparatory development period.

The presence of a Waymo vehicle on city streets does not establish that a member of the public can book a driverless ride.

Minneapolis Considers Additional Local Regulation

Minneapolis officials considered an ordinance that would require licensed human safety monitors in autonomous rideshare vehicles.

The debate involved road safety, transportation employment, public accessibility, and the role of state versus city regulation.

Minneapolis Council Passes Proposed Robotaxi Ordinance

The Minneapolis City Council voted 7–6 to approve a proposed ordinance regulating autonomous rideshare vehicles.

The ordinance included human-monitor requirements and was opposed by the mayor.

Mayor Frey Vetoes the Ordinance

Minneapolis Mayor Jacob Frey vetoed the City Council's proposed autonomous rideshare ordinance.

The mayor and ordinance supporters disagreed about its practical impact on autonomous transportation and the appropriate regulatory approach.

City Council Fails to Override the Veto

The City Council attempted but failed to override the mayor's veto of the ordinance.

Consequently, that particular ordinance did not become an operative city requirement through the override.

MPR News also reported that Waymo had not begun carrying customers in Minneapolis.

MnROAD Automated Shuttle Winter Testing

MnDOT evaluated an automated shuttle under controlled winter conditions near Monticello.

Research examined snow, ice, cold weather, and salt-covered pavement.

The controlled facility helped researchers examine operating problems without exposing ordinary traffic to the same experimental conditions.

Med City Mover Winter Operations

The Rochester shuttle demonstration included winter driving research.

Its findings helped transportation researchers evaluate how automated systems might interact with Minnesota streets, traffic, and weather.

goMARTI Rural Winter Transportation

The Grand Rapids initiative explored automated transportation in a northern Minnesota environment.

Rural mobility, cold-weather performance, accessible passenger transportation, and practical operations were central project research themes.

Waymo Discusses Snow and Ice Development

Waymo's Minneapolis announcement described testing and validation undertaken in Michigan's Upper Peninsula, the Sierra Nevada, and upstate New York.

The company also described sensor cleaning and sixth-generation driving-system development intended to improve performance in winter weather.

Company statements regarding progress should not be confused with independently demonstrated unrestricted autonomous operation in every winter condition.