The Evolution Of Plastic: An American Invention

who created plastic in the us

The creation of plastic marked a turning point in human history, with the development of synthetic materials that were not constrained by the limitations of natural resources. The word plastic is derived from the Greek word plastikos, meaning easily moulded into shape. The journey of plastic began in the mid-19th century, with pioneers like Alexander Parkes, who patented Parkesine in 1862, considered the first manufactured plastic. However, the world's first fully synthetic plastic was Bakelite, invented by Leo Baekeland in 1907. Bakelite's unique properties, including mouldability, heat resistance, and electrical insulation, revolutionised the plastics industry and paved the way for its widespread adoption.

Characteristics Values
Name of the first plastic Parkesine
Creator of the first plastic Alexander Parkes
Year of the creation of the first plastic 1855 or 1862
Country of the creator of the first plastic UK
Name of the first synthetic plastic Bakelite
Creator of the first synthetic plastic Leo Baekeland
Year of the creation of the first synthetic plastic 1907
Country of the creator of the first synthetic plastic US/Belgium
Name of the first plastic in the US Celluloid
Creator of the first plastic in the US John Wesley Hyatt
Year of the creation of the first plastic in the US 1863 or 1870

shunpoly

Leo Baekeland invented Bakelite, the first synthetic plastic

In 1907, Leo Baekeland invented Bakelite, the first fully synthetic plastic. Baekeland was a Belgian-born chemist and entrepreneur who obtained his doctorate from the University of Ghent summa cum laude at the age of 21. He taught at the same university until 1889 when he moved to the US and joined a photographic firm. In 1899, he sold his company and the rights to his invention, Velox, to American inventor George Eastman for $1,000,000. Velox was the first commercially successful photographic paper, as it could be developed under artificial light.

Baekeland's interest in chemistry continued, and in 1905, he began searching for a synthetic substitute for shellac, a natural electrical insulator, to meet the needs of the rapidly electrifying United States. Two years later, he discovered Bakelite, a condensation product of formaldehyde and phenol that is produced at high temperature and pressure. Bakelite was not only a good insulator, but it was also durable, heat-resistant, and could be moulded into various shapes. It was soon found to have many uses, especially in the rapidly growing automobile and radio industries.

Bakelite was the first synthetic plastic, meaning it contained no molecules found in nature. It was patented in 1906, and Baekeland took out more than 400 patents related to the manufacture and applications of Bakelite. He started semi-commercial production in his laboratory and, in 1910, formed a US company to manufacture and market his new material. By 1930, the Bakelite Corporation occupied a 128-acre plant in Bound Brook, New Jersey.

Bakelite was a revolutionary material that marked the start of the world's obsession with plastic. It was dubbed the ""Material of a Thousand Uses"" and was used to make a variety of products, including jewellery, telephones, radios, and billiard balls. Bakelite's success also led major chemical companies to invest in the research and development of new polymers, leading to the discovery of new plastics.

shunpoly

Alexander Parkes created Parkesine, the first manufactured plastic

Alexander Parkes, a metallurgist, chemist, and inventor from Birmingham, England, created Parkesine, the world's first plastic. Parkes was born on December 29, 1813, and was the son of a brass lock manufacturer. He patented Parkesine in 1862 as a cheap and colourful substitute for ivory or tortoiseshell. It was a plastic compound that was transparent and easily moulded when hot but retained its hardness when cold.

Parkes showcased Parkesine at the 1862 London International Exhibition, presenting kitchen items made from plastic. The public reception was positive, and he established the Parkesine Company in 1866 to manufacture plastic items on a large industrial scale. However, the business closed in 1868 due to difficulties in production and the final product's tendency to crack and burn. Despite this, Parkes' invention sparked interest in plastic, and it was later developed by others, including his former factory manager, Daniel Spill, and John Wesley Hyatt, who founded the Celluloid Manufacturing Company in the US.

Parkesine was a significant milestone in the history of plastics, and its creation led to further innovations and improvements in plastic compounds. However, the early development of plastic also contributed to the plastic pollution problem we face today. Plastic's durability and low cost have made it a popular material, but its persistence in the environment has led to the accumulation of waste in landfills and oceans, causing ecological and health issues.

While Alexander Parkes may not have achieved commercial success with Parkesine, his invention played a pivotal role in sparking innovation in the field of plastics. The development of new plastic variations and improvements in their strength and flexibility have made plastics ubiquitous in modern life, from consumer goods to healthcare applications. However, the environmental impact of plastics has prompted scientists to explore safer and more sustainable alternatives, such as bioplastics and biodegradable materials.

shunpoly

John Wesley Hyatt developed celluloid, one of the first plastics

John Wesley Hyatt, an American inventor and industrialist, is credited with developing celluloid—one of the first plastics in the world. Born in 1837 in New York, Hyatt trained as a printer before turning his attention to inventing. In the 1860s, Hyatt responded to an advertisement from a New York billiards company, which offered a $10,000 reward for anyone who could invent a satisfactory alternative to ivory billiard balls.

Hyatt began experimenting with various compositions and eventually discovered that a combination of nitrocellulose, camphor, and alcohol could be heated and pressurised to create a pliable material suitable for moulding. This new material, celluloid, was the first artificial plastic and provided an affordable substitute for ivory. Hyatt went on to establish the Celluloid Manufacturing Company in 1871, solidifying his place in the history of plastics.

Celluloid had a significant economic impact in the nineteenth and early twentieth centuries due to its versatility and affordability. It was used to create a range of products, including denture plates, knife handles, ballpoint pen bodies, collars and cuffs, toys, and most notably, photographic film. Celluloid played a crucial role in the emergence of cinema, replacing photographic plates and democratising consumer goods and culture.

Beyond celluloid, Hyatt continued to innovate, inventing and improving various industrial devices, including roller bearings, sugarcane mills, and sewing machines. He also founded several companies that utilised celluloid in their products, such as the Celluloid Brush Company and the Celluloid Waterproof Cuff and Collar Company. Hyatt's contributions to the development of plastics and their applications laid the groundwork for the plastics revolution, leading major chemical companies to invest in polymer research and development.

Liberating Life: Plastic-Free in the USA

You may want to see also

shunpoly

Petroleum and chemical industries formed companies like DuPont, major producers of plastic

The creation of plastic marked a revolution in human history, with its applications ranging from radios and telephones to plastic surgery threads. The word "plastic" comes from the Greek word "plastikos," meaning "pliable and easily shaped."

In the early 20th century, the petroleum and chemical industries formed alliances, creating companies like Dow Chemicals, ExxonMobil, DuPont, and BASF. These companies are still the major producers of raw material resins for the plastics industry. The alliances were driven by the desire to utilise waste material from processing crude oil and natural gas, such as ethylene gas.

DuPont, an American multinational chemical company, was founded in 1802 by French-American chemist and industrialist Éleuthère Irénée du Pont de Nemours. The company initially focused on gunpowder manufacturing and later expanded into explosives, dynamite, and smokeless powder. By the mid-19th century, DuPont had become the largest supplier of gunpowder to the United States military.

In the 20th century, DuPont diversified its product portfolio and played a significant role in developing various polymers. It introduced the world to Nylon, which revolutionised the clothing industry, and Teflon, which had a series of plastic successes. DuPont's scientists also developed chemicals like Freon (chlorofluorocarbons) for refrigeration and synthetic pigments and paints.

DuPont's acquisitions and mergers have contributed to its growth and expansion. In 2015, DuPont merged with Dow Chemical, forming DowDuPont, and later split into three separate companies: Corteva, Dow, and DuPont. DuPont has plants, subsidiaries, and affiliates worldwide, showcasing its prominence in the chemical industry and its significant contributions to plastic production.

shunpoly

Hermann Staudinger, father of polymer chemistry, contributed to plastic's material science

Hermann Staudinger, born on March 23, 1881, in Worms, Germany, was a German organic chemist who won the 1953 Nobel Prize in Chemistry for his work in the field of polymers. He demonstrated the existence of macromolecules, characterizing them as polymers and showing that they are long chains of short repeating molecular units linked by covalent bonds. Staudinger's groundbreaking work paved the way for the birth of polymer chemistry and contributed significantly to the development of modern plastics.

Staudinger's research on polymers began with his work for the German chemical firm BASF on the synthesis of isoprene in 1910. At the time, the prevalent belief was that rubber and other polymers were composed of small molecules held together by secondary forces. However, Staudinger proposed that polymers are giant molecules (macromolecules) held together by normal covalent bonds. This concept initially met with resistance from many authorities and colleagues, who refused to accept the idea.

Throughout the 1920s, Staudinger's research provided further evidence for his polymer hypothesis. He conducted measurements of viscosity in solution, and his work on the chemistry of rubber and other polymers such as starch, cellulose, and proteins supported his theory. Staudinger's work showed that small molecules could form long, chain-like structures (polymers) through chemical interaction. These linear molecules could be synthesized by various processes and maintain their identity even under chemical modification.

Staudinger's pioneering theories on the polymer structures of fibers and plastics formed the basis for countless modern developments in materials science. His work contributed to the rapid growth of the plastics industry and laid the foundation for its great expansion later in the 20th century. Staudinger's theories supported the development of new materials, making consumer products more affordable, attractive, and enjoyable. Additionally, his work helped engineers develop lighter and more durable structures, revolutionizing industries such as construction and clothing.

Frequently asked questions

Belgian-American chemist Leo Baekeland created Bakelite, the world's first fully synthetic plastic, in New York in 1907.

Bakelite is a smooth, heat-resistant material that can be moulded into various shapes. It was the first real synthetic, mass-produced plastic.

Plastic was originally used for long-lasting objects like radios, telephones, saucepan handles, and plug sockets. It was also used to make items like combs and billiard balls more affordable.

Plastic is lightweight, strong, flexible, and heat-resistant. It has been used to create a wide variety of products, from shopping bags to artificial hip and knee joints. It also has important medical applications and has improved fuel efficiency in vehicles.

Written by
Reviewed by

Explore related products

Share this post
Print
Did this article help you?

Leave a comment