The History of Automobiles: From Steam Carriages to Modern Vehicles

On a dawn morning in August 1888, a woman in Mannheim, Germany quietly rolled a three-wheeled machine out of a workshop that resembled a stable, without waking her sleeping husband. Her name was Bertha Benz. Setting off with her two sons toward her mother’s house 106 kilometers away, this journey became the first historical event in which a human being traveled a long distance overland aboard a powered machine.^[1] When the fuel ran out in the Benz Patent-Motorwagen that her husband Karl had built, she obtained petroleum from a pharmacy. When the engine struggled on an uphill slope, her sons pushed from behind. A clogged fuel line was cleared with a hairpin. This trip was not merely a test run of a machine. It was the first declaration to the world that the automobile could be a practical means of transportation.

Before the Automobile: The Challenge of Steam Power

The history of the automobile begins a full century before the internal combustion engine. In 1769, French military engineer Nicolas-Joseph Cugnot built the world’s first self-propelled mechanical vehicle — the Fardier à vapeur, or steam carriage.^[2] Originally developed at the request of the French army to transport cannons, this three-wheeled vehicle had a distinctive design in which the front wheel handled both steering and propulsion simultaneously.

However, Cugnot’s steam carriage had critical limitations. Its weight distribution was dangerously unbalanced, making it extremely difficult to steer, and the low boiler capacity meant steam had to be replenished every 15 minutes.^[2] Historical records indicate that during a test run on the streets of Paris, the vehicle actually collided with a wall. King Louis XV granted a pension to honor this remarkable invention, and the vehicle is now preserved at the Conservatoire National des Arts et Métiers in Paris.^[3]

Throughout the 19th century, steam-powered automobiles were continuously developed across Britain and Europe. But the practical limitations — heavy, slow, and requiring a constant supply of water and coal — were never fully overcome. The true revolution came from elsewhere.

The Birth of the Internal Combustion Engine: Karl Benz and Gottlieb Daimler

The year 1886 is a watershed in automotive history. Two German inventors, who had never met each other, completed the first practical internal combustion engine automobiles almost simultaneously.^[4]

Karl Benz and the Patent-Motorwagen

Karl Benz (1844–1929) completed the Benz Patent-Motorwagen in Mannheim in 1885 and obtained the patent (DRP 37435) on January 29, 1886.^[4] This vehicle is recognized as the first practical and modern automobile, and later became the first automobile to be mass-produced. Benz’s design incorporated a crankshaft, an electric ignition system, and a water-cooled cooling system — the fundamental components of today’s internal combustion engines.^[5]

And as described at the opening, Bertha Benz’s 1888 long-distance journey played a decisive role in bringing her husband’s invention to the world’s attention. The need for an additional gear she identified on uphill sections led to the development of the transmission, while the sediment clogging the fuel line led to improvements in fuel filters. Bertha’s journey was not merely a publicity stunt — it was genuine technical validation.^[1]

Gottlieb Daimler and the High-Speed Engine

At the same time, in Stuttgart, Gottlieb Daimler (1834–1900) was working with Wilhelm Maybach to develop a high-speed liquid petroleum fuel engine.^[4] In 1885, they mounted this engine on a two-wheeled vehicle to create the world’s first internal combustion motorcycle, and the following year they fitted it to a four-wheeled carriage to complete the first gasoline-powered automobile.

Benz and Daimler never met during their lifetimes, yet their legacies were ultimately united. In June 1926, Daimler-Motoren-Gesellschaft (DMG) and Benz & Cie merged to form Daimler-Benz AG — the origin of today’s Mercedes-Benz.^[4]

Mass Adoption: Henry Ford and the Assembly Line Revolution

Even after the automobile was invented, it remained a luxury item affordable only to the wealthy. The man who broke down that barrier was America’s Henry Ford.

The Ford Model T, launched in 1908, was designed from the outset as “a car for the masses.”^[6] But the true innovation lay not in the vehicle itself but in the method of building it. In October 1913, Ford introduced the moving assembly line at his Highland Park plant in Michigan.^[6] Combining interchangeable parts, subdivided tasks, and a continuous flow of materials, this system cut the time to assemble a single car from 12.5 hours to just 93 minutes.^[6]

The explosion in productivity translated directly into a price revolution. The Model T cost $780 in 1910; by 1924 the price had fallen to $290.^[6] At its peak in 1925, the Ford factory was producing roughly 10,000 cars per day — around two million per year.

However, this revolution had a darker side. Assembly line workers, whose tasks had been broken down into simple, repetitive motions, experienced profound alienation, and by the end of 1913 the annual turnover rate at Ford’s plant had reached 380 percent.^[7] In response, Ford announced in January 1914 that he would pay workers five dollars a day — nearly double the prevailing wage. This unprecedented pay rise for unskilled labor was intended simply to reduce turnover, but it ultimately became the prototype of a model of consumer capitalism in which workers could afford to buy the very products they made.^[7]

The Rise, Fall, and Revival of the Electric Car

Many people think of the electric car as a 21st-century innovation, but it was in fact a competitor from the very beginning of automotive history. In 1884, Britain’s Thomas Parker built a practical electric vehicle, and around 1900, 38 percent of all automobiles in the United States were electrically powered, followed by steam at 40 percent and gasoline at 22 percent.^[8] Early electric vehicles were in many respects more convenient than their gasoline counterparts — quieter, odorless, and requiring no gear changes.

However, the discovery of massive oil fields in Texas and the Middle East in the early 20th century caused petroleum prices to collapse. As mass production of the Ford Model T drove down the cost of gasoline-powered cars, electric vehicles remained hampered by expensive batteries and limited range. By around 1935, electric cars had effectively vanished from the market.^[8]

The reversal came at the end of the 20th century. The oil shocks of the 1970s, and then the climate crisis debates of the 21st century, both spurred the revival of the electric vehicle. Since the 2000s, dramatic advances in battery technology combined with carbon-neutrality policies adopted by governments worldwide have brought the electric vehicle back to the center of the automotive market.^[8]

The Cities and Societies the Automobile Remade

A question often overlooked in the history of the automobile: beyond simply moving people faster, how did this machine reorganize the world?

Until the early 20th century, most cities were designed around walking, horses, and streetcars. The spread of the automobile overturned all of that. Roads were widened, traffic lights appeared at intersections, and highways stretched out to the urban periphery. Suburbanization after World War II, in particular, would have been impossible without the automobile. The distance between workplaces and residences grew to tens of kilometers, and urban center populations dispersed to the periphery.^[9]

This transformation reshaped not only the physical form of cities but also their spatial vocabulary. New types of places emerged: parking lots, shopping malls, drive-throughs, and motels. Suburban neighborhoods were designed for cars rather than pedestrians, creating a structure of daily life in which existence without a vehicle was impossible.^[9]

The costs were immense. It is estimated that approximately 60 million people were killed in traffic accidents during the 20th century — a figure comparable to the total death toll of World War II.^[10] Air pollution, greenhouse gas emissions, the hollowing-out of city centers, and the decline of public transit were among the social costs paid by automotive civilization.^[10] In lower-income countries in particular, rapid motorization outpaced the development of road infrastructure and traffic safety systems, resulting in traffic fatality rates far higher than those in high-income countries.^[10]

The Diesel Engine and the Diversification of Automotive Technology

While the gasoline engine dominated the market, Germany’s Rudolf Diesel (1858–1913) was developing an entirely different kind of internal combustion engine. His compression-ignition engine, announced in 1893, ignited fuel not with a direct spark but through the heat generated by compressing air to an extreme degree.^[11] Early models demonstrated a theoretical efficiency of 75 percent — a dramatic contrast with the roughly 10 percent efficiency of steam engines of the time.^[11] The first diesel passenger car, the Mercedes-Benz 260 D, was launched in 1936, and the diesel engine subsequently spread across heavy transport: trucks, ships, and trains.

Throughout the 20th century, automotive technology advanced continuously on both the safety and convenience fronts. Seat belts became standard equipment in the 1950s and 1960s, airbags spread in the 1970s, and ABS in the 1980s. These safety features are estimated to have saved millions of lives.^[12]

The Globalization of the Automotive Industry

The automobile was invented in Europe, but it was the United States that established the system of mass production. From the mid-20th century onward, however, the landscape of the automotive industry shifted dramatically. Japan’s annual vehicle production had been just 18,000 units before World War II, but the country grew rapidly by leveraging the Korean War boom and postwar economic reconstruction in the 1950s and 1960s as a springboard. The oil shock of 1973 proved to be a turning point. Japanese manufacturers, leading with fuel-efficient compact cars, began competing with America’s Big Three on the world stage, and by the 1980s Japan had become the world’s largest automobile producer.^[13] In the 21st century, China surged to the fore, accounting for more than 22 percent of global automobile production as of 2009.^[13]

This trajectory demonstrates that the automobile is not the product of any single civilization, but a global technology that has been reinterpreted and reinvented according to the economic needs and industrial strategies of each region.

The Paradox of Movement

More than 250 years have passed since Cugnot’s steam carriage collided with a wall on the streets of Paris. In that time, the automobile has evolved from a simple machine into the physical backbone of modern civilization. The shape of cities, the logic of economies, the nature of labor, the very spaces where people live — the automobile has penetrated deep into the ways in which we construct our world.

Yet at the same time, the convenience and freedom it created have demanded a corresponding price: traffic deaths and air pollution, the distortion of urban space, dependence on fossil fuels. The current shift of automobiles toward electric power and autonomous driving is therefore not a simple technology swap. Just as the automobile once reorganized society, this transition may be the beginning of a second reorganization — one that compels us to rethink cities, mobility, and energy from the ground up.