Cenizo Journal Spring 2019 | Page 9

mid-nineteenth century. In the case of rubber, the Olmecs developed different formulas for using rubber as far back as 1600 B.C., but Charles Goodyear brought the vul- canization process – a chemical process used to harden rubber – into the coming Industrial Age, patenting it in 1844. This discovery led to a revolution in combs, of all things. Next came celluloid, which was con- sidered the first thermoplastic. It was pliable at higher heat, and because it solidified upon cooling, it was useful for many applications. Celluloid was first patented as Parkesine in 1862 by Alexander Parkes and from there, mor- phed through a few different phases. The introduction of Parkesine to the planet is generally regarded as the birth of the plastics industry. In 1863, a New York billiards suppli- er offered a $10,000 prize – in gold, as the story goes – to anyone who could come up with an alternative for using ivory to make billiard balls. Upper-class society in Europe and the U.S. had developed a taste for billiards and every mansion and estate had a table. It was also becoming popular in growing urban areas. A concern was growing that this desire for billiards would hasten the extinction of the elephant, as up to one million pounds of ivory were consumed every year, much of which was used in billiard balls. 1869, John Wesley Hyatt, inspired by the contest to find a substi- tute for ivory in the billiard balls (and having acquired the patent from Parkes), came up with a usable substance and called it celluloid. Although celluloid didn’t work for the billiard ball, it did work for combs. Celluloid enabled items to be formed and colored to look like marble, tor- toiseshell, semi-precious stones, or rich colors like ebony black and lapis lazuli. Hyatt’s pamphlet stated that “celluloid [has] given the elephant, the tortoise, and the coral insect a respite in their native haunts; and it will no longer be necessary to ransack the earth in pursuit of substances which are constantly grow- ing scarcer.” Celluloid was a small but significant turning point for plastic, because it began to level the playing field in consumer goods, democratizing “a host of goods for an expanding consump- tion-oriented middle class,” as historian Jeffrey Meikle pointed out in his cultur- al history,  American Plastic. However, because celluloid was chemically unstable – factories were fraught with fire – and labor-intensive, its popularity was short-lived and technology advanced to combat the problem. Bakelite was next in the plastic fami- ly tree. Patented in 1909, it was the first on, scientists…sought “to rearrange nature in new and imaginative ways”.” Plastic’s place in the world was set and its growth was exponential. Cellulose acetate, polystyrene, nylon, polyethyl- ene, and later Teflon and Kevlar are Tierra G rande Master Naturalist highway cleanup wholly synthetic plastic, and had game- changing characteristics of electrical nonconductivity and heat resistant properties, making its use practical and far-reaching throughout industries. It also had the ability to be precisely mold- ed into almost anything, of any size, including, of course, combs. “The creation of Bakelite marked a shift in the development of new plas- tics,” says Susan Freinkel in her book Plastic: A Toxic Love Story. “From then some of the offspring of Bakelite. Just before World War II, a pair of British chemists wrote a piece about how plastics would offer salvation from the uneven distribution of wealth due to their inexpensive mass-production: “Let us try to imagine a dweller in the ‘Plastic Age,’” Victor Yarsley and Edward Couzens wrote. “This ‘Plastic Man’ will come into a world of colour and bright shining surfaces...a world in which man, like a magician, makes what he wants for almost every need.” They envisioned him growing up and growing old surrounded by unbreakable toys, rounded corners, unscuffable walls, warpless windows, dirt- proof fabrics, and lightweight cars and planes and boats. The indignities of old age would be lessened with plastic glasses and dentures until death carried the plastic man away, at which point he would be buried “hygienically enclosed in a plastic coffin.” Although the chemists’ vision of a material utopia was delayed by war, afterwards the factories used for plastics in war production turned to making plastic conveniences for the masses, which democratized consumer goods; a middle-class and consumer age was formed. Fast forward to present day: We are now citizens of a “Plastic Age,” although maybe not what those chemists had in mind. Plastic is everywhere. In our homes, in our cars, in the ever-growing landfills, in the woods, on the moun- tains, it fills the oceans, our food is pack- aged in it, rumor has it plastic is in our food now via the nano-plastics in the food chain…. But wait – this is depressing, isn’t it? Why do we write of such things in the Cenizo Journal, a literary magazine that contains the beauty and quirkiness of the Big Bend region between its pages? Because although the Big Bend area is vast and remote, we’re still citizens of the Plastic Age. We cannot escape. We’re all consumers, and plastic is the base for convenient living. Dwellers and visitors to these sparse islands of civilization may be even more dependent upon plastic for transport and packaging than city- dwellers. Really, how could we live Out Here without plastic? We didn’t invent plastic, and we may not have many choices about the make- up of goods, and there’s no reason to demean the situation we’re in, nor cast away our love of plastic amenities. But what can we do about it? Well for one, we could NOT LITTER. For another, we do have choices of how to dispose of things. It’s called RECYCLING. Without sunlight and air, even news- papers won’t degrade. All those things that you put into your plastic kitchen garbage bag…. Well, they’ll still be around in some form when a future continued on page 10 Cenizo Second Quarter 2019 9