Lead was outlawed as an automotive gasoline additive in this country in 1986–more than sixty years after its introduction–to enable the use of emissions-reducing catalytic converters in cars (which are contaminated and rendered useless by lead) and to address the myriad health and safety concerns that have shadowed the toxic additive from its first, tentative appearance on US roads in the twenties, through a period of international ubiquity only recently ending. Since the virtual disappearance of leaded gas in the United States (it’s still sold for use in propeller airplanes), the mean blood-lead level of the American population has declined more than 75 percent. A 1985 EPA study estimated that as many as 5,000 Americans died annually from lead-related heart disease prior to the country’s lead phaseout. According to a 1988 report to Congress on childhood lead poisoning in America by the government’s Agency for Toxic Substances and Disease Registry, one can estimate that the blood-lead levels of up to 2 million children were reduced every year to below toxic levels between 1970 and 1987 as leaded gasoline use was reduced. From that report and elsewhere, one can conservatively estimate that a total of about 68 million young children had toxic exposures to lead from gasoline from 1927 to 1987.
How did lead get into gasoline in the first place? And why is leaded gas still being sold in the Third World, Eastern Europe and elsewhere? Recently uncovered documents from the archives of the aforementioned industrial behemoths and the US government, a new skein of academic research and a careful reading of that long-ago period’s historical record, as well as dozens of interviews conducted by The Nation, tell the true story of leaded gasoline, a sad and sordid commercial venture that would tiptoe its way quietly into the black hole of history if the captains of industry were to have their way. But the story must be recounted now. The leaded gas adventurers have profitably polluted the world on a grand scale and, in the process, have provided a model for the asbestos, tobacco, pesticide and nuclear power industries, and other twentieth-century corporate bad actors, for evading clear evidence that their products are harmful by hiding behind the mantle of scientific uncertainty.
This is not just a textbook example of unnecessary environmental degradation, however. Nor is this history important solely as a cautionary retort to those who would doubt the need for aggressive regulation of industry, when commercial interests ask us to sanction genetically modified food on the basis of their own scientific assurances, just as the merchants of lead once did. The leaded gasoline story must also be read as a call to action, for the lead menace lives.
§ the severe health hazards of leaded gasoline were known to its makers and clearly identified by the US public health community more than seventy-five years ago, but were steadfastly denied by the makers, because they couldn’t be immediately quantified;
§ other, safer antiknock additives–used to increase gasoline octane and counter engine “knock”–were known and available to oil companies and the makers of lead antiknocks before the lead additive was discovered, but they were covered up and denied, then fought, suppressed and unfairly maligned for decades to follow;
§ the US government was fully apprised of leaded gasoline’s potentially hazardous effects and was aware of available alternatives, yet was complicit in the cover-up and even actively assisted the profiteers in spreading the use of leaded gasoline to foreign countries;
§ the benefits of lead antiknock additives were wildly and knowingly overstated in the beginning, and continue to be. Lead is not only bad for the planet and all its life forms, it is actually bad for cars and always was;
§ for more than four decades, all scientific research regarding the health implications of leaded gasoline was underwritten and controlled by the original lead cabal–Du Pont, GM and Standard Oil; such research invariably favored the industry’s pro-lead views, but was from the outset fatally flawed; independent scientists who would finally catch up with the earlier work’s infirmities and debunk them were–and continue to be–threatened and defamed by the lead interests and their hired hands;
§ confronted in recent years with declining sales in their biggest Western markets, owing to lead phaseouts imposed in the United States and, more recently, Europe, the current sellers of lead additives have successfully stepped up efforts to market their wares in the less-developed world, efforts that persist and have resulted in some countries today placing more lead in their gasoline, per gallon, than was typically used in the West, extra lead that serves no purpose other than profit;
§ faced with lead’s demise and their inevitable days of reckoning, these firms have used the extraordinary financial returns that lead additive sales afford to hurriedly fund diversification into less risky, more conventional businesses, while taking a page from the tobacco companies’ playbook and simultaneously moving to reorganize their corporate structures to shield ownership and management from liability for blanketing the earth with a deadly heavy metal.
You can choose whether to smoke, but you can’t pick the air you breathe, even if it is contaminated by lead particles from automobile exhaust. Seventy-five years ago, well-known industrialists like GM’s Alfred Sloan and Charles Kettering (remembered today for having founded the prestigious Memorial Sloan-Kettering Cancer Center) and the powerful brothers Pierre and Irénée du Pont added to their substantial fortunes and did the planet very dirty by disregarding the common-sense truth that no good can come from burning a long-known poison in internal-combustion engines.
The steady emergence of improved methodology and finer, more sensitive measuring equipment has allowed scientists to prove lead’s tragic toll with increasing precision. The audacity of today’s lead-additive makers’ conduct mounts with each new study weighing in against them. Because lead particles in automobile exhaust travel in wind, rain and snow, which know no national boundaries, lead makers and refiners who peddle leaded gasoline knowingly injure not only the local populations using their product but men, mice and fish tens of thousands of miles distant.
GM and Standard Oil sold their leaded gasoline subsidiary, the Ethyl Gasoline Corporation, to Albemarle Paper in 1962, while Du Pont only cleaned up its act recently, but all hope to leave their leaded gasoline paternity a hushed footnote to their inglorious pasts. The principal maker of lead additive today the Associated Octel Company of Ellesmere Port, England) and its foremost salesmen (Octel and the Ethyl corporation of Richmond, Virginia) acknowledge what they see as a political reality: Their product will one day be run out of business. But they plan to keep on selling it in the Third World profitably until they can sell it no longer. They continue to deny lead’s dangers while overrating its virtues, reprising the central tenets of the lead mythology chartered by GM, Du Pont and Standard lifetimes ago.
These mighty corporations should pay Ethyl and Octel for keeping their old lies alive. They’ll need them, in their most up-to-the-minute and media-friendly fashion: Because of the harm caused by leaded gasoline they have been joined to a class-action suit brought in a circuit court in Maryland against the makers of that other product of lead’s excruciating toxic reign: lead paint. Along with the makers of lead paint and the lead trade organizations with whom they both once worked in close concert, suppliers and champions of lead gasoline additives–Ethyl, Du Pont and PPG–have been named as defendants in the suit.
Though the number of cases of lead poisoning has been falling nationwide, the lead dust in exhaust spewed by automobiles in the past century will continue to haunt us in this one, coating our roads, buildings and soil, subtly but indefinitely contaminating our homes, belongings and food.
The Problem With Lead
Lead is poison, a potent neurotoxin whose sickening and deadly effects have been known for nearly 3,000 years and written about by historical figures from the Greek poet and physician Nikander and the Roman architect Vitruvius to Benjamin Franklin. Odorless, colorless and tasteless, lead can be detected only through chemical analysis. Unlike such carcinogens and killers as pesticides, most chemicals, waste oils and even radioactive materials, lead does not break down over time. It does not vaporize, and it never disappears.
For this reason, most of the estimated 7 million tons of lead burned in gasoline in the United States in the twentieth century remains–in the soil, air and water and in the bodies of living organisms. Worldwide, it is estimated that modern man’s lead exposure is 300 to 500 times greater than background or natural levels. Indeed, a 1983 report by Britain’s Royal Commission on Environmental Pollution concluded that lead was dispersed so widely by man in the twentieth century that “it is doubtful whether any part of the earth’s surface or any form of life remains uncontaminated by anthropogenic [man-made] lead.” While lead from mining, paint, smelting and other sources is still a serious environmental problem, a recent report by the government’s Agency for Toxic Substances and Disease Registry estimated that the burning of gasoline has accounted for 90 percent of lead placed in the atmosphere since the 1920s. (The magnitude of this fact is placed in relief when one considers the estimate of the US Public Health Service that the associated health costs from a parallel problem–the remaining lead paint in America’s older housing–total in the multibillions.)
Classical acute lead poisoning occurs at high levels of exposure, and its symptoms–blindness, brain damage, kidney disease, convulsions and cancer–often leading, of course, to death, are not hard to identify. The effects of pervasive exposure to lower levels of lead are more easily miscredited; lead poisoning has been called an “aping disease” because its symptoms are so frequently those of other known ailments. Children are the first and worst victims of leaded gas; because of their immaturity, they are most susceptible to systemic and neurological injury, including lowered IQs, reading and learning disabilities, impaired hearing, reduced attention span, hyperactivity, behavioral problems and interference with growth. Because they often go undetected for some time, such maladies are particularly insidious. In adults, elevated blood-lead levels are related to hypertension and cardiovascular disease, particularly strokes, heart attacks and premature deaths. Lead exposure before or during pregnancy is especially serious, harming the mother’s own body, affecting fetal development and frequently leading to miscarriage. In the eighties the EPA estimated that the health damages from airborne lead cost American society billions each year. In Venezuela, where the state oil company sold only leaded gasoline until 1999, a recent report found 63 percent of newborn children with blood-lead levels in excess of the so-called safe levels promulgated by the US government.
The Search for an Antiknock
On December 9, 1921, a young engineer named Thomas Midgley Jr., working in the laboratory of the General Motors Research Corporation in Dayton, Ohio, reported to his boss, Charles Kettering, that he’d discovered that tetraethyl lead–a little-known compound of metallic lead and one of the alkyl series, also referred to as lead tetraethyl or TEL–worked to reduce “knock” or “pinging” in internal-combustion engines.
Tetraethyl lead was first discovered by a German chemist in 1854. A technical curiosity, it was not used commercially on account of “its known deadliness.” It is highly poisonous, and even casual cumulative contact with it was known to cause hallucinations, difficulty in breathing and, in the worst cases, madness, spasms, palsies, asphyxiation and death. Still unused in 1921, sixty-seven years after its invention, it was not an obvious choice as a gasoline additive.
In the laboratories of Charles Kettering, however, the search for a gasoline additive to cure “knock” had been going on for some years prior to Midgley’s rediscovery of TEL. In 1911 Kettering had invented the electric self-starter–a landmark development in automotive history that eliminated dangerous hand-cranking and enabled many Americans (particularly women) to drive for the first time, arguably killing steam and electric cars in the process. This invention would make “Boss” Kettering rich, famous and beloved to a nation falling in love with its wheels. Thanks to the starter, the folksy inventor’s new firm, Dayton Engineering Laboratories Company, or DELCO, received its first big order, for $10 million, from the upstart General Motors Corporation, founded only three years earlier by William Crapo Durant.
GM’s 1912 Cadillac was equipped with DELCO’s self-starter and battery ignition. When customers reported that the engine of this luxury automobile had an alarming tendency to knock–a sharp, metallic sound hinting at damage being done inside the engine–critics blamed Kettering’s electrical components.
Kettering was convinced, rightly, that knocking was a function of an engine’s fuel rather than ignition problems. When Kettering and his partners sold DELCO to Durant’s GM and its new partner–Alfred Sloan’s Hyatt Roller Bearings–in 1916, his lab was already engaged in a search for the cure. Following the sale, this work was transferred to his new firm, the Dayton Research Laboratories, where a newly hired assistant, Thomas Midgley, was assigned to study the problem of engine knock.
Stabbing in the dark, Midgley got lucky quickly when he added iodine to the fuel, stopping knock in a test engine and establishing for all time that the malady–premature combustion of the fuel/air mixture–was connected to the explosive qualities of the fuel, what would later be called “octane.” Iodine raised octane and cured knock; however, it was corrosive and prohibitively expensive. Inspired by the fundamental breakthrough, Midgley nonetheless carried on with fuel research, testing every substance he could find for antiknock properties, “from melted butter and camphor to ethyl acetate and aluminum chloride.” Unfortunately, “most of them had no more effect than spitting in the Great Lakes.”
The Antiknock That Got Away
Automotive engineers knew by this time that engines that didn’t knock would not only operate more smoothly. They could also be designed to run with higher compression in the cylinders, which would allow more efficient operation, resulting in greater fuel economy, greater power or some harmonious combination of the two. The key was finding a fuel with higher octane. Though octane sufficient for use in high-compression engines had been achievable since 1913 through a process called thermal cracking, the process required added expenditures on plant and equipment, which tightfisted oil refiners didn’t relish. The nation’s fuel supply remained resolutely low grade, a situation that troubled Kettering.
By limiting allowable compression, low-octane fuel meant cars would be burning more gasoline. Like many visionary engineers, Kettering was enamored of conservation as a first principle. As a businessman, he also shared persistent fears at the time that world oil supplies were running out. Low octane and low compression meant lower gas mileage and more rapid exhaustion of a dwindling fuel supply. Inevitably, demand for new automobiles would fade.
By 1917 Kettering and his staff had trained their octane-boosting sights on ethyl alcohol, also known as grain alcohol (the kind you drink), power alcohol or ethanol. In tests supervised by Kettering and Midgley for the Army Air Corps at Wright Field in Dayton, Ohio, researchers concluded that alcohols were among the best antiknock fuels but were not ideal for aircraft engines unless used as an additive, in a blend with gasoline. This undoubtedly led Kettering to concur with an April 13, 1918, Scientific American report: “It is now definitely established that alcohol can be blended with gasoline to produce a suitable motor fuel.”
The story of TEL’s rise, then, is very much the story of the oil companies’ and lead interests’ war against ethanol as an octane-boosting additive that could be mixed with gasoline or, in their worst nightmare, burned straight as a replacement for gasoline. For more than a hundred years, Big Oil has reckoned ethanol to be fundamentally inimical to its interest, and, viewing its interest narrowly, Big Oil might not be wrong. By contrast, GM’s subsequent antipathy to alcohol was a profit-motivated attitude adjustment. Alcohol initially held much fascination for the company, for good reason. Ethanol is always plentiful and easy to make, with a long history in America, not just as a fuel additive but as a pure fuel. The first prototype internal-combustion engine in 1826 used alcohol and turpentine. Prior to the Civil War alcohol was the most widely used illuminating fuel in the country. Indeed, alcohol powered the first engine by the German inventor Nicholas August Otto, father of the four-stroke internal-combustion engines powering our cars today. More important, by the time of Kettering’s antiknock inquiry, alcohol was a proven automotive fuel.
As the automobile era picked up speed, scientific journals were filled with references to alcohol. Tests in 1906 by the Department of Agriculture underscored its power and economy benefits. In 1907 and 1908 the US Geological Survey and the Navy performed 2,000 tests on alcohol and gasoline engines in Norfolk, Virginia, and St. Louis, concluding that higher engine compression could be achieved with alcohol than with gasoline. They noted a complete absence of smoke and disagreeable odors.
Despite many attempts by Big Oil to stifle its home-grown competitor (one time-honored gambit: lobbying legislators to pass punitive taxation thwarting alcohol’s economic viability), power alcohol would number among its adherents several highly regarded inventors and scientists, including Thomas Edison and Alexander Graham Bell. Henry Ford built his very first car to run on what he called farm alcohol. As late as 1925, after the advent of TEL, the high priest of American industry would predict in an interview with the Christian Science Monitor that ethanol–“fuel from vegetation”–would be the “fuel of the future.” Four years later, early examples of his Model A car would be equipped with a dashboard knob to adjust its carburetor to run on gasoline or alcohol.
Ethanol made a lot of sense to a practical Ohio farm boy like Kettering. It was renewable, made from surplus crops and crop waste, and nontoxic. It delivered higher octane than gasoline (though it contained less power per gallon), and it burned more cleanly. By 1920, as Kettering was aware, a US Naval Committee had concluded that alcohol-gasoline blends “withstand high compression without producing knock.”
Higher compression was, after all, what the GM men were after. In February 1920, shortly after joining General Motors’ employ, Thomas Midgley filed a patent application for a blend of alcohol and cracked (olefin) gasoline, as an antiknock fuel. Later that month K.W. Zimmerschied of GM’s New York headquarters wrote Kettering, observing that foreign use of alcohol fuel “is getting more serious every day in connection with export cars, and anything we can do toward building our carburetors so they can be easily adapted to alcohol will be appreciated by all.” Kettering assured him that adaptation for alcohol fuel “is a thing which is very readily taken care of” by exchanging metal carburetor floats for lacquered cork ones. GM was concerned (albeit temporarily) about an imminent disruption in oil supply, and alcohol-powered cars could keep its factories open. An internal GM report that year stated ominously, “This year will see the maximum production of petroleum that this country will ever know.”
Ethanol on the March
In October 1921, less than two months before he hatched leaded gasoline, Thomas Midgley drove a high-compression-engined car from Dayton to a meeting of the Society of Automotive Engineers in Indianapolis, using a gasoline-ethanol blended fuel containing 30 percent alcohol. “Alcohol,” he told the assembled engineers, “has tremendous advantages and minor disadvantages.” The benefits included “clean burning and freedom from any carbon deposit…[and] tremendously high compression under which alcohol will operate without knocking…. Because of the possible high compression, the available horsepower is much greater with alcohol than with gasoline.”
After four years’ study, GM researchers had proved it: Ethanol was the additive of choice. Their estimation would be confirmed by others. In the thirties, after leaded gasoline was introduced to the United States but before it dominated in Europe, two successful English brands of gas–Cleveland Discoll and Kool Motor–contained 30 percent and 16 percent alcohol, respectively. As it happened, Cleveland Discoll was part-owned by Ethyl’s half-owner, Standard Oil of New Jersey (Kool Motor was owned by the US oil company Cities Service, today Citgo). While their US colleagues were slandering alcohol fuels before Congressional committees in the thirties, Standard Oil’s men in England would claim, in advertising pamphlets, that ethanol-laced, lead-free petrol offered “the most perfect motor fuel the world has ever known,” providing “extra power, extra economy, and extra efficiency.”
For a change, the oil companies spoke the truth. Today, in the postlead era, ethanol is routinely blended into gasoline to raise octane and as an emissions-reducing oxygenate. Race cars often run on pure ethanol. DaimlerChrysler and Ford earn credits allowing them to sell additional gas-guzzling sport utility vehicles by engineering so-called flex-vehicles that will run on clean-burning E85, an 85 percent ethanol/gasoline blend. GM helped underwrite the 1999 Ethanol Vehicle Challenge, which saw college engineering students easily converting standard GM pickup trucks to run on E85, producing hundreds of bonus horsepower. Ethanol’s technical difficulties have been surmounted and its cost–as an octane-boosting additive rather than a pure fuel–is competitive with the industry’s preferred octane-boosting oxygenate, MTBE, a petroleum-derived suspected carcinogen with an affinity for groundwater that was recently outlawed in California. With MTBE’s fall from grace, many refiners–including Getty, which took out a full-page ad in the New York Timescongratulating itself for doing so–returned to ethanol long after it was first developed as a clean-burning octane booster.
Enter Du Pont
No longer the shambling, anarchic outfit it had been under the inveterate risk-taker W.C. Durant, GM was now to be run in the militarily precise mold of E.I. du Pont de Nemours & Company of Wilmington, Delaware. Awash in a sea of gunpowder profits from World War I, the du Pont family had been increasing its stake in GM since 1914. By 1920 it controlled more than 35 percent of GM shares and moved to pack the board, installing professional management, with the du Pont faction taking control of the corporation’s all-powerful finance committee.
Caught short by a margin call in the recession of 1920, Durant, GM’s colorful founder, lost his stake and was forced by the du Pont family to walk the plank (he would spend his final days running a bowling alley). One of the clan’s craftiest patriarchs, Pierre du Pont, was coaxed from retirement and named GM’s interim president; Alfred Sloan, who had demonstrated the coldhearted allegiance to the bottom line the du Ponts revered, became executive vice president preparatory to assuming the top slot. The pressure on all concerned, including Kettering and his research division, was to make money and to make it fast.
Lest there be any misunderstanding, Sloan wrote to Kettering in September of 1920, alerting him to the du Ponts’ new math: “Although [the Research Corporation] is not a productive unit and a unit that is supposed to make a profit, nevertheless the more tangible result we get from it the stronger its position will be…. It may be inferred at some future time…that we are spending too much money down there [in Dayton] and being in a position to show what benefits had accrued to the corporation would strengthen our position materially.”
That time would come soon enough for Kettering to deliver. An air-cooled engine he’d championed–copper-cooled, he called it–would soon prove a costly disaster for GM. Fortunately for him, immediately after joining GM he had given his trusted assistant Midgley two weeks to find something to ignite the new management’s interest in funding continued fuel research. Though it would take somewhat longer than two weeks to fire their masters’ enthusiasm, “Midge” succeeded.
And the Winner Is…
The effect of this sudden time constraint was striking. As GM researcher and Kettering biographer T.A. Boyd noted in an unpublished history written in 1943, Midgley’s main research in 1919-20 had been to make alcohols out of olefins found in petroleum through reactions with sulfuric acid. (Farm alcohol was one thing, but a patentable process for production of petroleum-derived alcohol–a possible money-maker–was quite another, one of considerably greater interest to the corporation.) “But in view of the verdict setting a time limit on how much further the research for an antiknock compound might continue,” Boyd said, “work was resumed at once in making engine tests of whatever further compounds happened to be available on the shelf of the lab…or which could be gotten readily.”
As noted earlier, Midgley tested many compounds before isolating tetraethyl lead in December 1921. In the early days, he would attribute the discovery of TEL’s antiknock properties to “luck and religion, as well as the application of science.” In a 1925 magazine article, he would recall false trails with iodine, aniline, selenium and tellurium before hitting upon lead. Curiously, his article omitted any reference to the alcohol-gasoline blend he’d patented just five years earlier.
Another oddity: The exact number of compounds tested prior to TEL’s discovery varies dramatically in different accounts. As Professor William Kovarik of Radford University has observed, confusion reigns in part because the lab’s day-to-day test diaries have never been released to the public by the General Motors Institute (GMI) archive. In the words of one archivist there, GM’s lead archives have been “sanitized.” One 1925 article in the Literary Digest put the number at 2,500 compounds tested, while The Story of Ethyl Gasoline, a 1927 pamphlet released by a company Midgley would help found, states that 33,000 were studied. Another time, he claimed 14,991 elements were examined, while a 1980 Ethyl corporation statement set the number at 144. This question is important because GM’s discovery of lead’s antiknock properties, which initially caused little internal excitement, would be hailed in popular media and later cited in polytechnical texts as a model of rational, orderly scientific inquiry that sought the single best answer to the knock question. A more realistic view of events is that TEL’s re-emergence in the twenties was the result of a crude empirical potshot that was understood to promise a landslide of earnings over time.
Apprised of Midgley’s discovery that one part TEL could be used to fortify 1,000 parts of gasoline, Kettering proposed the name “Ethyl” for the new antiknock fluid, a mild irony in light of both men’s longtime–and soon to fade–interest in ethyl alcohol. At researcher Boyd’s suggestion Ethyl was dyed red. There was as yet, however, no plan to market Ethyl. Indeed, in July 1922, seven months after TEL’s discovery, J.W. Morrison of the GM Patent Department would encourage Midgley to “see if the U.S. Industrial Alcohol Co. have opened a valuable line of research. Mr. Clements [the lab manager at GM] stated some time ago that it might be worth our while to carry our investigations further on the problem of utilizing alcohols in motors. I think he mentioned specifically combinations of alcohol and gasoline.”
From the corporation’s perspective, however, the problems with ethyl alcohol were ultimately insurmountable and rather basic. GM couldn’t dictate an infrastructure that could supply ethanol in the volumes that might be required. Equally troubling, any idiot with a still could make it at home, and in those days, many did. And ethanol, unlike TEL, couldn’t be patented; it offered no profits for GM. Moreover, the oil companies hated it, a powerful disincentive for the fledgling GM, which was loath to jeopardize relations with these mighty power brokers. Surely the du Pont family’s growing interest in oil and oil fields, as it branched out from its gunpowder roots into the oil-dependent chemical business, weighed on many GM directors’ minds.
In March 1922, Pierre du Pont wrote to his brother Irénée du Pont, Du Pont company chairman, that TEL is “a colorless liquid of sweetish odor, very poisonous if absorbed through the skin, resulting in lead poisoning almost immediately.” This statement of early factual knowledge of TEL’s supreme deadliness is noteworthy, for it is knowledge that will be denied repeatedly by the principals in coming years as well as in the Ethyl Corporation’s authorized history, released almost sixty years later. Underscoring the deep and implicit coziness between GM and Du Pont at this time, Pierre informed Irénée about TEL before GM had even filed its patent application for it.
The Rise of Tetraethyl Lead
With the application filed, the groundwork was laid for manufacture of TEL. An October 1922 agreement contracted Du Pont to supply GM. Signing for GM was Pierre du Pont; signing for Du Pont: his brother Irénée. Manufacturing began in 1923 with a small operation in Dayton, Ohio, that made 160 gallons of tetraethyl lead a day and shipped it out in one-liter bottles, each of which would treat 300 gallons of gasoline.
In February 1923 the world’s first tankful of leaded gasoline was pumped at Refiners Oil Company, at the corner of Sixth and Main streets, in Dayton, Ohio, from a station owned by Kettering’s friend Willard Talbott. But four months earlier, an agitated William Mansfield Clark, a lab director in the US Public Health Service, had written A.M. Stimson, assistant Surgeon General at the PHS, warning that Du Pont was preparing to manufacture TEL at its plant in Deepwater, New Jersey. It constituted a “serious menace to public health” he stated, with reports already emerging from the plant that “several very serious cases of lead poisoning have resulted” in pilot production.
Clark additionally speculated that widespread use of TEL would mean “on busy thoroughfares it is highly probable that the lead oxide dust will remain in the lower stratum.” Estimating that each gallon of gasoline burned would emit four grams of lead oxide, he worried that this would build up to dangerous levels along heavily traveled roads and in tunnels.
Stimson was troubled enough by Clark’s letter to request that the PHS’s Division of Pharmacology conduct investigations; unfortunately, the division’s director responded, such trials would be too time-consuming. He suggested that the PHS rely upon industry to supply the relevant data, a spectacularly poor plan that would amount to government policy for the next forty years.
Perhaps spurred by Clark’s missive and Stimson’s concern, in December 1922 the US Surgeon General, H.S. Cumming, wrote Pierre du Pont: “Inasmuch as it is understood that when employed in gasoline engines, this substance will add a finely divided and nondiffusible form of lead to exhaust gases, and furthermore, since lead poisoning in human beings is of the cumulative type resulting frequently from the daily intake of minute quantities, it seems pertinent to inquire whether there might not be a decided health hazard associated with the extensive use of lead tetraethyl in engines.”
But the Good News Is…
The year 1923 did not begin well, then, for supporters of tetraethyl lead. In January, on account of lead poisoning, Thomas Midgley was forced to decline speaking engagements at three regional panels of the American Chemical Society, which had awarded him a medal for his discovery. “After about a year’s work in organic lead,” he wrote, “I find that my lungs have been affected and that it is necessary to drop all work and get a large supply of fresh air.” He repaired to Miami.
Before leaving town, Midgley penned a reply to Cumming’s letter, which had been passed on to him by Pierre du Pont. Although the question “had been given very serious consideration,” he wrote, “…no actual experimental data has been taken.” Even so, Midgley assured the Surgeon General, GM and Du Pont believed that “the average street will probably be so free from lead that it will be impossible to detect it or its absorption.” In other words, TEL, the deadly chemical curiosity, was being brought to market without any thought or study as to its public health implications, but rather on the hopeful hunch of a clever mechanical engineer who had just been poisoned by lead.
Around this time, Midgley had also begun to receive letters expressing grave concern over TEL from well-known public health and medical authorities at leading universities, including Robert Wilson of MIT, Reid Hunt of Harvard, Yandell Henderson of Yale (America’s foremost expert on poison gases and automotive exhaust) and Dr. Erik Krause of the Institute of Technology, Potsdam, Germany. Krause called TEL “a creeping and malicious poison,” and he told Midgley it had killed a member of his dissertation committee. Charles Kettering may have been concerned by this growing chorus of TEL critics, but the early months of 1923 saw his mind preoccupied with another matter. In May of that year, after four costly years of development, Kettering’s beloved copper-cooled engine was abandoned as a production program, a high-profile embarrassment within the company and the larger automotive community. “It was then,” wrote Kettering’s research assistant and biographer, T.A. Boyd, some years later, “that his spirits reached the lowest point in his research career.”
The abject failure of the copper-cooled engine led the fiercely proud Kettering to believe his personal capital in the company had been terminally depleted. “Since this thing with the Copper-Cooled Car has come up,” he wrote Alfred Sloan (who became GM’s president in 1923), “the Laboratory has been practically isolated from Corporation activities.” Kettering’s shame was so enormous that he tendered his resignation in a letter to Sloan. “I regret very much that this situation has developed. I have been extremely unhappy and know that I have made you and Mr. du Pont equally unhappy…. work here at the Laboratory, I realize, has been almost 100% failure, but not because of the fundamental principles involved. Enough may come out of the Laboratory to have paid for their existence but no one will care to continue in Research activities as the situation now stands.”
‘My Dear Boss’
Sloan declined to let Kettering go. But America’s most famous automotive engineer after Henry Ford emerged with a renewed sensitivity to the profit-making needs of his corporation. In this regard, TEL held out an immediate lifeline. Writing Kettering from Florida in March 1923, Midgley related a mad brainstorm whose relevance had now become fully clear to Kettering. “My dear boss,” he began, “The way I feel about the Ethyl Gas situation is about as follows: It looks as though we could count on a minimum of 20 percent of the gas sold in the country if we advertise and go after the business–this at three cent gross to us from each gallon sold. I think we ought to go after it as soon as we can without being too hasty.”
Midgley barely scratched the surface of the wealth to come. With a legal monopoly based on patents that would provide a royalty on practically every gallon of gasoline sold for the life of its patent, Ethyl promised to make GM shareholders–among whom the du Ponts, Alfred Sloan and Charles Kettering were the largest–very rich. Profit-free ethanol, indeed. As Kovarik has calculated: “With gasoline sales [in 1923] around six billion gallons per year, 20 percent would come to about 1.2 billion gallons, and three cents gross would represent $36 million. With the cost of production and distribution running less than one cent per gallon of treated gasoline, more than two thirds of the $36 million would be annual gross profit. Of course, within a decade 80 percent of the then 12 billion gallon market used Ethyl, for an annual gross of almost $300 million.”
The fears of excessive hastiness expressed in Midgley’s letter were evidently allayed. In April 1923, one month after he’d performed his riveting calculations, the General Motors Chemical Company was established to produce TEL, with Charles Kettering as president and Thomas Midgley as vice president.
Octane, the Motorist’s Friend
Beginning in 1921, GM’s executive committee began to articulate the first principles that would come to be known as Sloanism–that is, planned obsolescence and product differentiation through speed, power, style and color; “a car for every purse and purpose,” as Sloan was fond of saying.
Between 1922 and the end of the decade, Sloan and his GM associates would devise marketing strategies that would see GM overtake Ford as the world’s largest automobile manufacturer and set the tone for the next fifty years of American automotive consumption. Central to this growth would be an awareness that consumers were no longer looking merely for basic transportation, which was the stock in trade of Ford’s beloved Model T. In addition to consumer financing (which Ford opposed), Sloan was convinced that style, snob appeal and speed would help GM steal its customers away. He was right.
Following the failure of his copper-cooled engine, Kettering rejigged his arguments for TEL for internal–definitely not public–consumption. As it happened, the new additive could be fitted neatly into the Sloanist equation. For while it was initially seen by Kettering and his staff as a way to cure knock and to husband fossil-fuel supplies, the high compression it enabled in motors was just as easily exploited to make cars faster and more powerful, thus easier to sell. Alan Loeb, a former EPA attorney and lead historian who has examined the period closely, has neatly summed up Kettering’s conversion: “By 1923…it was clear that Kettering’s original purpose for the antiknock research had given way to GM’s desire to improve auto performance without regard for its effect on fuel economy…. Kettering did not give up on efficiency and conservation as his own ideals, but ever after he knew better than to try to push a product that would not sell. In later years, even as Kettering’s advocacy of conservation became more and more public, it represented GM’s true motive less and less.”
Tellingly, Ethyl’s earliest advertisements dealt solely with speed and power and invariably neglected to mention its active ingredient: lead. Boasted a September 1927 ad that ran in National Geographic: “As an Ethyl user, you have the benefits of greatly increased speed, more power on hills and heavy roads. Quicker acceleration and complete elimination of ‘knock.’ But the real high compression automobile is here at last! Ethyl gasoline has made it possible! Ride with Ethyl in a high compression motor and get the thrill of a lifetime.”
With the advent of the Depression in the thirties, Ethyl’s advertising nodded to the economic realities of the day but still focused on power. An ad that ran in February 1933 contains a Norman Rockwell-esque portrait of a small boy who is complaining to his embarrassed father, “Gee, Pop–they’re all passing you.” The accompanying text rubs it in. “They didn’t pass you when your car was bright and new–and you still don’t like to be left behind. So just remember this: the next best thing to a brand new car is your present car with Ethyl.”
With the formation of the GM Chemical Company, work on a large-scale Du Pont TEL plant began immediately. Irénée du Pont hailed his company’s technical director, W.F. Harrington: “It is essential that we treat this undertaking like a war order so far as making speed and producing the output, not only in order to fulfill the terms of the contract as to time but because every day saved means one day advantage over possible competition.”
Significantly, GM’s patent on TEL would have covered any threat from competing makers of lead additive. Thus, as Kovarik has reasoned, the competition referred to must have been from those who would have offered a different kind of antiknock. GM, Du Pont and TEL’s other backers would long publicly claim there were no conceivable alternatives to the lead antiknock additive. But the facts were otherwise. Ethanol was still out there. And GM negotiated throughout the twenties with Germany’s I.G. Farben over an additive it made from iron carbonyl. Then, in August 1925, Kettering himself joyously announced “Synthol,” a blended automotive fuel of benzene and alcohol that promised to “double gas mileage.” There was, as we shall see, an unexpected–and momentary–business need for Synthol. The point is, there were alternatives.
In a public relations coup, Ethyl leaded gasoline fueled the top three finishers at the Indianapolis 500 motor race on Memorial Day, 1923. With demand skyrocketing, Kettering signed exclusive contracts with Standard Oil of New Jersey (now Exxon), Standard Oil of Indiana (later Amoco, more lately merged with BP) and Gulf Oil (owned by the Mellon interests) for East Coast, Midwest and Southern distribution, respectively, of leaded gasoline.
In August, Du Pont’s TEL plant opened at Deepwater, New Jersey, across the Delaware River from Wilmington. Less than thirty days would pass before the first of several TEL poisoning deaths of workers there would occur. Not surprisingly, given Du Pont’s stranglehold on all local media within its domain along the Delaware, the deaths went unreported.
Even so, news of these and similar deaths would inevitably come out. Realizing that its own medical research would be less than credible then, and having been turned down by reputable academics and the Public Health Service in its search for consultants to help “refute any false propaganda,” GM hurriedly contracted the US Bureau of Mines in September 1923 to explore the dangers of TEL. Even by the lax standards of its day, the bureau was a docile corporate servant, with not an adversarial bone in its body. It saw itself as in the mining promotion business, with much of its scientific work undertaken in collaboration with industry. The bureau’s presumptive harmlessness notwithstanding, to its written agreement with GM was nonetheless added a remarkable proviso, that the bureau “refrain from giving out the usual press and progress reports during the course of the work, as [GM] feels that the newspapers are apt to give scare headlines and false impressions before we definitely know what the influence of the material will be.”
Indicative of the bureau leadership’s fundamental outlook was an exchange between the superintendent of its Pittsburgh field station, where the TEL investigation was being conducted, and the bureau’s chief chemist, S.C. Lind. By letter, Lind had objected to the use of the trade name “Ethyl” when referring to tetraethyl lead gasoline.
“Of course their [GM officials] object in doing so is fairly clear, and among other things they are not particularly desirous of having the name ‘lead’ appear in this case. That is alright from the standpoint of the General Motors Company but it is quite a question in my mind as to whether the Bureau of Mines would be justified in adopting this name so early in the game.”
The superintendent replied that omission of “the use of the word ‘lead’ in the interbureau correspondence” was intentional to prevent leaks to the papers. “If it should happen to get some publicity accidentally, it would not be so bad if the word ‘lead’ were omitted as this term is apt to prejudice somewhat against its use.”
Indeed, lead had acquired a bad name by 1920, as scientific and public awareness of its supreme deadliness as an occupational and pediatric hazard was increasing. Then, in April 1924, two GM employees engaged in the manufacture of TEL at a pilot plant in Dayton also died of lead poisoning. Large numbers of nonfatal poisonings were noted at this time. Thomas Midgley was said to be “depressed to the point of considering giving up the whole tetraethyl lead program.” But Kettering, emerging from his copper-cooled funk, wouldn’t slow down. Two months later, he would urge Du Pont to step up production. At the same time, seeking even greater control over Bureau of Mines test results, GM stipulated that “all manuscripts, before publication, will be submitted to the Company for comment and criticism.
By any measure, the TEL constituency had experienced a run of rum luck, and in June 1924 GM president Sloan, “gravely concerned about the poison hazard” and deaths at TEL plants in Dayton and Deepwater, approved the formation of a medical committee, with J. Gilman Thompson, consulting physician to Standard Oil of New Jersey (which had been marketing Ethyl and dabbling in its manufacture), as chairman. Summing up the gloomy feeling all around at this time, Du Pont chairman Irénée du Pont wrote Sloan at GM that TEL “may be killed by a better substitute or because of its poisonous character or because of its [destructive] action on the engine.”
Following its investigation, GM’s medical committee delivered what was apparently a negative and highly cautionary report on TEL. But Irénée du Pont, having undergone some sort of conversion or, possibly, having remembered his family’s lifelong devotion to profit at any cost, wrote Sloan on August 29, 1924, and told him not to worry: “I have read the doctors’ report and am not disturbed by the severity of the findings.” Another product his firm made–nitroglycerin–was even more hazardous to make, du Pont added breezily, while lead dust from car exhaust was but nothing compared to erosion from lead paint. Years later, this would become a major plank of TEL supporters’ defense.
For some unknown reason, the report of Sloan’s blue-ribbon medical committee, like many original documents referenced in GM reports on TEL, is not available in the company’s public archives.
Meanwhile, Standard Oil of New Jersey had developed a faster, cheaper method of synthesizing TEL. In August 1924 production began in a makeshift works at its Bayway plant in Elizabeth, New Jersey. GM still held the TEL patent, but Standard now had the better manufacturing technology and a patent of its own to prove it.
To the apparent surprise of some at Du Pont, which had not been producing the fluid fast enough for GM’s liking, the oil company (one of twenty-seven companies formed by the 1911 breakup of Rockefeller’s Standard Oil Trust) and the automobile company formed a joint venture, which they called the Ethyl Gasoline Corporation. Why, one wonders, would GM deign to form Ethyl, a new company, with Standard? “In the first place,” Sloan would testify in a 1952 antitrust suit, “I recognized that General Motors’ organization had no competence whatsoever in chemical manufacture. We were mechanical people dealing in metal processing.” The deaths at Dayton would certainly support this modest assessment. Sloan would also later record his view that management should not get sidetracked on noncore businesses. But there were clearly bushels of money to be made. Sloan had by now fully cottoned to an essential fact about his company’s new lead additive patent. As the management expert P.F. Drucker described it many years later, “GM, in effect, made money on almost every gallon of gasoline sold, by anyone.”
In one of its first official acts, the newly formed Ethyl Gasoline Corporation evinced renewed sensitivity to spin (not to mention a justifiably elevated level of paranoia) by insisting that its contract with the Bureau of Mines be modified yet again, to reflect that “before publication of any papers or articles by your Bureau, they should be submitted to them [Ethyl] for comment, criticism, and approval.” Thus, as the public health historians David Rosner and Gerald Markowitz have observed, the newly formed Ethyl Corporation was given “veto power over the research of the United States government.”
Death by Loony Gas
Du Pont would supply most of Ethyl’s TEL requirements for years to come, but, according to a letter written by Alfred Sloan to Irénée du Pont in the fall of 1924, in an accommodation to Standard Oil that firm had been permitted to maintain a small “semiworks” at its Bayway refinery. Later, Du Pont engineers would express serious reservations about the safety of Standard’s facility. An internal 1936 Du Pont history would recount that the company was “greatly shocked at the manifest danger of the equipment and methods [and] at the inadequate safety precautions” at the Standard facility, but their suggestions were “waved aside.” Unfortunate it was.
On October 26, 1924, the first of five workers who would die in quick succession at Standard Oil’s Bayway TEL works perished, after wrenching fits of violent insanity; thirty-five other workers would experience tremors, hallucinations, severe palsies and other serious neurological symptoms of organic lead poisoning. In total, more than 80 percent of the Bayway staff would die or suffer severe poisoning. News of these deaths was the first that many Americans heard of leaded gasoline–although it would take a few days, as the New York City papers and wire services rushed to cover a mysterious industrial disaster that Standard stonewalled and GM declined to delve into.
Confusion and panic marked the headlines, with reporters forced to travel to New Jersey to track a story they’d probably have noted in a lightly rewritten press release if Standard had appeared more forthcoming. On October 30, days after the first Bayway death, the press was at last invited to Standard’s New York City headquarters for an afternoon session of long-overdue, professionally crafted spin control. Thomas Midgley had been rushed to 26 Broadway from Dayton and would address the corps. But first, Standard’s medical consultant, J. Gilman Thompson, presented them with a typewritten statement, supplying the company’s most sculpted telling of recent history yet:
[TEL’s] recently discovered use for greatly promoting the efficiency of gasoline engines has led to its manufacture on a commercial scale through processes still more or less in a stage of development. This has occasioned unforeseen accidents…. One of these has been the sudden escape of fumes from large retorts, and the inhalation of such fumes gives rise to acute symptoms, particularly congestion of the brain, producing a condition not unlike delirium tremens. Although there is lead in the compound, these acute symptoms are wholly unlike those of chronic lead poisoning such as painters often have.
“There is no obscurity whatever about the effects of the poison and characterizing the substance as ‘mystery gas’ or ‘insanity gas’ is grossly misleading.
Asked to assess their liability to families of men who said they were not warned of the dangers, Standard Oil officials said “the rejection of many men as physically unfit to engage in the work of the Bayway plant, daily physical examinations, constant admonitions as to wearing rubber gloves and using gas masks and not wearing away from the plant clothing worn during work hours should have been sufficient indication to every man in the plant that he was engaged ‘in a man’s undertaking.’”
The falsity and cruelty of Standard’s position were manifest, the ironies rife. First, Standard wasn’t in experimental production. It was making TEL to sell. Second, its stony silence alone had led to stories in the press about a “mystery” gas, because reporters learned that TEL had been dubbed “loony gas” from Bayway workers whom they interviewed after being brushed off by the company brass. Finally, the escapes of gas weren’t sudden, as claimed, but ongoing, the poisoning cumulative. The doctors at Reconstruction Hospital had told the Herald Tribune that violent insanity was “brought on by the gradual infiltration of lead in their systems.”
The day’s true highlight, however, would be Midgley’s presentation. The celebrated engineer and Ethyl VP, who had only recently been forced to leave work to recover from lead poisoning, proposed to demonstrate that TEL was not dangerous in small quantities, by rubbing some of it on his hands. Midgley was fond of this exhibition and would repeat it elsewhere, washing his hands thoroughly in the fluid and drying them on his handkerchief. “‘I’m not taking any chance whatever,’ he said. ‘Nor would I take any chance doing that every day.’” The New York World cited unbelievable dispatches from Detroit claiming that Midgley “frequently bathed” in TEL to prove its safety to skeptics within the industry.
The response of local governments and public health officials to the Bayway disaster was swift and stern. The day of Midgley’s peculiar demonstration, the New York City Board of Health banned the sale of TEL-enhanced gasoline, saying that “such mixtures of gasoline, containing lead or other deleterious substances, may be liable to prove detrimental and dangerous to the health and lives of the community, particularly when released as exhaust from motor vehicles.” Within a matter of days Philadelphia, Pittsburgh and the State of New Jersey would ban gasoline containing the lead additive. Ethyl would continue to be sold in the Midwest, but elsewhere on the East Coast its use was unofficially discouraged by authorities.
In early November 1924, after the fifth Bayway worker died, the Bureau of Mines study on TEL was released (remember that GM and then Ethyl had reserved for themselves the right to approve the timing of its release). Not surprisingly, the bureau’s report, based on limited animal testing it had conducted, gave the substance a clean bill of health. The New York Times, which had decided as editorial policy to support the use of TEL, served up just the sort of front-page headline Ethyl hoped for: “No Peril to Public Seen in Ethyl Gas/Bureau of Mines Reports after Long Experiments with Motor Exhausts/More Deaths Unlikely.”
Yandell Henderson of Yale and others assailed the Bureau of Mines study as a hopelessly shoddy investigation financed by an interested party, Ethyl, and bemoaned Washington’s antiregulatory climate. The bureau had “investigated the danger to the public of acute lead poisoning,” he noted derisively,
and had failed even to take into account the possibility that the atmosphere might be polluted to such an extent along automobile thoroughfares that those who worked or lived along such streets would gradually absorb lead in sufficient quantities to poison them in the course of months….
Perhaps if leaded gasoline kills enough people soon enough to impress the public, we may get from Congress a much-needed law and appropriation for the control of harmful substances other than foods. But it seems more likely that the conditions will grow worse so gradually and the development of lead poisoning will come on so insidiously (for this is the nature of the disease) that leaded gasoline will be in nearly universal use and large numbers of cars will have been sold that can run only on that fuel before the public and the Government awaken to the situation….
This is probably the greatest single question in the field of public health that has ever faced the American public. It is the question whether scientific experts are to be consulted, and the action of Government guided by their advice, or whether, on the contrary, commercial interests are to be allowed to subordinate every other consideration to that of profit.
Echoing the fears of PHS lab director William Clark more than two years earlier, Henderson had clearly isolated the greatest threat of leaded gasoline–not the severe cases of industrial poisoning that had grabbed the headlines but the slow, unrelenting low-level exposure that was sure to occur as the use of leaded gasoline spread. As we shall see, the industry would use this dichotomy–accidental deaths at the plant versus insidious poisoning–to its advantage. The former risk could be acknowledged because it could be prevented, while the latter was doubted, denied and endlessly debated.
In years to come, the federal government would do much to help the lead interests actively across a variety of fields, but the greatest assistance offered was an act of omission: a signal failure to arrange for independent examination of the effects of automotive lead emissions on the public health. By 1924 the government’s allegiance and probity were already in question. As C.W. Deppé, owner of the Lilliputian Deppé Motors, put it in a letter to the Secretary of the Interior, Hubert Work: “May I be pardoned if I ask you frankly now, does the Bureau of Mines exist for the benefit of Ford and the G.M. Corporation and the Standard Oil Co. of New Jersey, and other oil companies parties to the distribution of the Ethyl Lead Dopes, or is the Bureau supposed to be for the public benefit and in protection of life and health?”
Enter the Surgeon General
Three months after the Bayway disaster, a grand jury acquitted Standard Oil of criminal responsibility for the tragedy despite the fact that, as the New York Timesstated in summarizing the grand jury’s findings: “The report found that the deaths were directly due to poisoning…[and] recommended that before it resumes operations the company try to perfect some machinery by which ethyl gas can be manufactured without endangering life.”
This was good news for Ethyl’s backers, but strangely at variance with the views of Standard’s own partners. As Du Pont’s internal history of 1936 concluded: “Notwithstanding…foreknowledge at the peril, the precautions taken in the small manufacturing operation at Bayway were grossly inadequate.” And GM took a dim view of the Standard operation as well. Ferris Hurd, a GM attorney testifying in the government’s 1953 antitrust suit against Du Pont, summarized events:
[Standard] put up a plant that lasted two months and killed five people and practically wiped out the rest of the plant. The disaster was so bad that the state of New Jersey entered the picture and issued an order that Standard could never go back into the manufacture of [tetraethyl lead] without the permission of the state of New Jersey. In fact, the furor over it was so great that the newspapers took it up, and they misrepresented it, and instead of realizing that the danger was in the manufacture, they got to thinking that the danger was exposure of the public in the use of it, and the criticism of its use was so great that it was banned in many cities and they had to close down the manufacture and sale of Ethyl.
Of course, there was a danger to the public in the use of Ethyl, but the public wouldn’t know it for decades, thanks in large part to the institutional inability and temperamental disinclination of the federal government at this time to do anything more than smile upon new technologies and corporate incursions into new and lucrative markets. The wave of publicity surrounding the Bayway disaster had left Ethyl on the defensive, however. The company knew it would be up to government to set matters right.
A Gift of God?
Today business school students carefully analyze the corporate response to the scare caused by a small batch of tainted Tylenol and widely hail it as a work of genius. Yet it was nothing compared with Ethyl’s road back from disaster, skillfully negotiated with a product that was a deadly poison from the get-go. Ethyl, to use the modern argot, had an aggressive plan and made it stick. You might say it was one of the most brilliant exercises in co-branded damage control ever.
For on Christmas Eve, 1924, Charles Kettering, Frank Howard of Standard and Du Pont chief engineer W.F. Harrington paid a private visit to Surgeon General Hugh Cumming to request that the Public Health Service hold public hearings on TEL. Cumming readily agreed. As Du Pont’s private history of 1936 would note, “In the prevailing state of strong prejudice and excited fears, the new industry was fortunate in having the question of the health risk in the use of tetraethyl lead actively taken up…by the US Public Health Service.”
On May 4, 1925, in an act exquisitely timed and brilliantly crafted to the right tone of seriousness for the proceedings, Ethyl publicly withdrew its product from the market. On May 20 eighty-seven participants convened in the Butler Building at Third and B Streets, in Washington, DC, along with a dozen reporters, for the Surgeon General’s conference. Conspicuously absent was Treasury Secretary Andrew Mellon, whose agency was charged with oversight of the PHS. Nowhere was it reported that Mellon family interests controlled Gulf Oil, which had recently acquired an exclusive Ethyl distributorship.
At the hearing, Standard’s Frank Howard (soon to be an Ethyl director) uttered the memorable pronouncement that TEL was “a gift of God” that conscience and the march of human progress compelled GM to exploit.
Our problem is not that simple. We cannot quite act on a remote probability. We are engaged in the General Motors Corporation in the manufacture of automobiles, and in the Standard Oil Company in the manufacture and refining of oil. On these things our present industrial civilization is supposed to depend. I might refer to the comment made at the end of the war–that the Allies floated to victory on a sea of oil–which is probably true….
Now as a result of some 10 years’ [sic] research on the part of The General Motors Corporation and 5 years’ research by the Standard Oil Co., or a little bit more, we have this apparent gift of God–of 3 cubic centimeters of tetraethyl lead–which will permit that gallon of gasoline…to go perhaps 50 percent further…
What is our duty under the circumstances? Should we throw this thing aside? Should we say, ‘No, we will not use it,’ in spite of the efforts of the government and the General Motors Corporation and the Standard Oil Co. toward developing this very thing, which is a certain means of saving petroleum? Because some animals die and some do not die in some experiments, shall we give this thing up entirely?
Frankly, it is a problem that we do not know how to meet. We cannot justify ourselves in our consciences if we abandon the thing. I think it would be an unheard-of blunder if we should abandon a thing of this kind merely because of our fears. Possibilities cannot be allowed to influence us to such an extent as that in this matter.
(Many years later, Howard would be forced to relinquish his Standard post by the Federal Trade Commission for collaborating with Nazi Germany, but he would retain his seat at Ethyl.)
Ethyl sales manager A.S. Maxwell got even more carried away, telling a reporter that engines would run so efficiently with leaded gas that GM was developing an engine that “will triple the best mileage a gallon of gasoline will give today.” Actually, while the high compression Ethyl permitted–like ethanol or any octane booster–might have offered fuel-economy benefits, average fuel economy in the United States fell steadily from 1925, the year of Ethyl’s introduction, through the seventies, when cars shrank and unleaded fuel became the standard. In 1974 GM’s corporate average fuel economy had fallen to a near-comical 12.2 miles per gallon. By 1987, after unleaded became predominant and catalytic converters a standard, the sales/registered-fleet average for cars sold in the United States had climbed to 27.3 miles per gallon. Yet TEL defenders to this day cite conservation as its key benefit.
The Conference Adjourns
America’s automotive population was multiplying exponentially, yet the Surgeon General’s conference spent six hours and forty-five minutes deliberating on what Yandell Henderson had prophetically called “probably the greatest single question in the field of public health that has ever faced the American public” and reached no conclusion. Instead, it voted unanimously on a motion by Dr. Matthias Nicoll, New York State Commissioner of Health, to place the question of tetraethyl lead in the hands of Cumming and a seven-member committee of experts to be appointed by him, with orders to report back by January 1, 1926. And it commended Ethyl for withdrawing its product while the question of its effect on the public health was still unsettled.
Awkwardly for Ethyl, soon after the conference ended but months before the Surgeon General’s newly impaneled committee could complete its study, details emerged about eight more TEL-related deaths and more than 300 injuries at Du Pont’s sinister Deepwater plant. Six square miles that lit up the sky at night, Deepwater was one of the country’s most active ports, yet it was nowhere to be found on nautical maps. Often referred to publicly by Du Pont as a dye works, it was rather a complex of poison-gas works, producing phosgene and chlorine gases as well as the lethal benzol series. Deepwater had no legal government–just Du Pont and its private police force. Dismissing the deaths, a Du Pont spokesman said at the time, “It is a fact that we have a great deal of trouble inducing the men to be cautious. We have to protect them against themselves.” (You can still see Deepwater today at the southern end of the New Jersey Turnpike, but it stopped producing TEL in the nineties.)
Happily for the du Ponts and the other lead interests, on January 19, 1926, the special committee appointed by Surgeon General Cumming found “no good grounds” for prohibiting the sale of Ethyl gasoline: “So far as the committee could ascertain all the reported cases of fatalities and serious injuries in connection with the use of tetraethyl lead have occurred either in the process of manufacture of this substance or in the procedures of blending and ethylizing.”
The committee reviewed the evidence of studies it had conducted in Ohio on 252 workers exposed to lead in their occupations as chauffeurs and garage men. While the committee noted “a greater storage of lead in the bodies of those exposed to ethyl gasoline” and lead in the dust of garages dispensing ethyl, nothing conclusive could be established in the short time given to it. So, although the newspapers would miss the distinction–the New York Times, for instance, headlined it “Report: No Danger in Ethyl Gasoline”–the committee had merely concluded that TEL could be manufactured without the loss of life. It did not give tetraethyl lead a clean bill of health or settle the question of its effect on the public health. In fact, it cautioned:
It remains possible that if the use of leaded gasolines becomes widespread, conditions may arise very different from those studied by us which would render its use more of a hazard than would appear to be the case from this investigation. Longer experience may show that even such slight storage of lead…may lead eventually in susceptible individuals to recognizable or to chronic degenerative diseases of a less obvious character….
In view of such possibilities the committee feels that the investigation begun under their direction must not be allowed to lapse…. The vast increase in the number of automobiles throughout the country makes the study of all such questions a matter of real importance from the standpoint of public health, and the committee urges strongly that a suitable appropriation be requested from Congress for the continuance of these investigations under the supervision of the Surgeon General of the Public Health Service.
While proposing that the sale of leaded gasoline should go forward, regulated by the Surgeon General, the committee passed a resolution calling on the Public Health Service to conduct further studies. Separately, the president of the Society of Automotive Engineers called for additional investigations concerning lead’s possible relation to sterility. And the American Chemical Society, which might have been supposed a lockstep supporter of Ethyl, proposed around this time that increased governmental regulation over chemicals “is a subject worthy of further discussion.”
Thus, even the industry’s paid scientists were uneasy about the use of lead in gasoline. Yet none of these calls for further government action were ever acted upon, and it was this failure that gave Ethyl its opening. The PHS never conducted the studies, the Surgeon General never lobbied Congress to pay for them and, for the next forty years, all research on TEL’s health impact would be underwritten by GM, Standard Oil, Du Pont, Ethyl and lead-industry trade associations. With the credulity-stretching statement of an Ethyl spokesman that the only purpose of GM and Standard Oil–“two of the largest units in the automobile and oil industry”–was “to conserve a vital natural resource,” the company welcomed the committee’s report as total vindication. “We plan to resume operations,” Ethyl announced without delay the day of the report’s release. In May 1926, one year after the sale of TEL-laced gasoline was suspended, signs appeared in gas stations: “Ethyl is back.”
But There Is No Alternative
Misrepresenting the Surgeon General’s committee report findings and glossing over its call for further study, Ethyl medical consultant Robert Kehoe recalled in a 1928 article the government’s abdication of its charge: “As it appeared from [the committee’s] investigation that there was no evidence of immediate danger to the public health, it was thought that these necessarily expensive studies should not be repeated at present, at public expense, but that they should be continued at the expense of the industry most concerned, subject, however, to the supervision of the Public Health Service.” His own study, Kehoe wrote unsurprisingly, failed to “show any evidence for the existence of such hazards.”
Others were less sanguine about the committee’s report and Kehoe’s summary of the evidence. Committee member Dr. David Edsall, dean of Harvard’s School of Public Health, called the report incomplete and “half-baked.” C.E.A. Winslow of Yale recommended that “the search for an investigation of antiknock compounds be continued intensively with the object of securing effective agents containing less poisonous metals (such as iron, nickel, tin, etc.) or no metals at all.” Winslow unsuccessfully sought to have the committee mention alternatives to TEL in its final report, forwarding this recommendation to the PHS, along with correspondence from the Ford Motor Company. One letter to Winslow, which is missing from the PHS files in the National Archive but present in his Yale University archive, dated August 15, 1925, reads:
Alcohols for motor fuel
Further to my letter of June 19th:
You may probably have observed the production of synthetic alcohol as brought by the Badische Anilin and Soda Fabrik [BASF of I.G. Farben], now being produced in Germany at the rate of 60,000 gallons per month. Such alcohol is reported to be produced for between 10 cents and 20 cents per gallon and has much promise as a mixture with hydrocarbon [gasoline] fuels to eliminate knocking and carbonization.
[signed] Wm. H. Smith, Ford Motor Co.
Surgeon General Cumming was not interested in alternatives to lead, even though proof of their existence ought to have immediately thrown the veracity of all Ethyl utterances into question. Speaking in August 1925, for instance, Thomas Midgley had told a meeting of scientists, “So far as science knows at the present time, tetraethyl lead is the only material available which can bring about these [antiknock] results, which are of vital importance to the continued economic use by the general public of all automotive equipment, and unless a grave and inescapable hazard rests in the manufacture of tetraethyl lead, its abandonment cannot be justified.”
Midgley had conveniently overlooked his earlier, high-profile endorsement of ethanol, as would Kettering and the entire US press corps. Kettering was also forgetting Synthol, the octane-boosting alternative he had publicized just months earlier when it looked like Ethyl might be forced to close shop. With the government’s de facto seal of approval in hand for TEL, Kettering never again mentioned Synthol. Summarizing his remarks before the Surgeon General’s committee, the New York Times reported: “The experience of the company does not offer any promise that any such cheap and efficient anti-knock can be discovered to replace the lead.”
Uncle Sam Lends a Hand
Far from heeding his committee’s call for the initiation of further studies on the effects of widespread use of tetraethyl lead, the Surgeon General thrust himself quickly into the role of international cheerleader for Ethyl’s lead gasoline additive. In 1928 England’s Daily Mail quoted British scientists voicing fear over the potential public health hazard posed by TEL, which was soon to be introduced to the British market by the Anglo-American oil company brand Pratt’s. Ethyl’s new president, Earle Webb, apprised Surgeon General Cumming of this development and received a warm, familiar response. “Your courtesy in keeping us informed of such developments is helpful and I am grateful for its continuance,” Cumming replied, before contacting the British ministry.
Soon thereafter, England’s Ministry of Health would give TEL a clean bill of health, referring to American findings. This would be hard to jibe with a soon-to-be-published report in the British Medical Journal on “the slow, subtle, insidious saturation of the system by infinitesimal doses of lead extending over a long period of time,” but Cumming wasn’t through yet.
Foreshadowing years of sterling service on behalf of Ethyl, the Surgeon General, the nation’s highest-ranking medical officer, would put pen to paper again in 1928, encouraging New York City sanitary officials to lift the city’s ban on the use of TEL-laced gasoline. “There are no good grounds” for the ban, he implored them. In 1931 Cumming would further assist Ethyl’s overseas marketing efforts. Cabling the PHS offices from an international conference in Paris, the Surgeon General directed his minions to send the Swiss minister of health favorable reports on Ethyl.
In 1932 the du Pont family would temporarily shift party allegiance and support to Franklin Delano Roosevelt’s presidential bid with a sizable contribution to his campaign fund. The Democratic Administration was swift to return the favor. A year after FDR’s inauguration, the Surgeon General would busy himself writing letters of introduction for Ethyl officials to public health counterparts in foreign countries.
“This will introduce you to Mr. E.W. Webb, President of the Ethyl Gasoline Corp.” the letters began. Cumming helpfully assured recipients that Webb had consulted with the PHS and that the PHS had found Ethyl an excellent product and given it a clean bill of health. He also fired off missives advancing Ethyl’s cause with pesky state legislatures and public health authorities in the United States who were erecting regulatory hurdles.
By 1936 Ethyl fluid would be added to 90 percent of gasoline sold in America–a resounding commercial success. But even this would not be enough. Responding to a complaint lodged by Ethyl that year, the Federal Trade Commission issued a restraining order preventing competitors from criticizing leaded gasoline in the commercial marketplace. Ethyl gasoline, the FTC order read, “is entirely safe to the health of motorists and the public…and is not a narcotic in its effect, a poisonous dope, or dangerous to the life or health of a customer, purchaser, user or the general public.” The FTC’s action on Ethyl’s behalf came in the wake of an ad by the makers of unleaded Cushing Gasoline, who meekly proposed, “It stands on its own merits and needs no dangerous chemicals–hence you can offer it to your customers without doubt or fear.”
Dr. Robert Kehoe of the University of Cincinnati, Ethyl’s chief medical consultant, would express the opinion following the inconclusive 1926 report of the Surgeon General’s committee (of which he was a member) that there was no basis for concluding that leaded fuels posed any health threat whatsoever. And while it is true that tetraethyl lead’s opponents could point in 1924 to no exact scientific test of leaded gasoline emissions as incontrovertible proof of their hazards, there was a large body of evidence, dating back 3,000 years, that lead is poison.
Though the principals must surely have been aware of this historical evidence, it will suffice to recap merely a few of the contemporaneous scientific descriptions of lead’s poisonous effects. In 1910, for instance, Alice Hamilton completed a ground-breaking and widely reported study of the lead industries for the State of Illinois, finding pervasive worker poisoning and conditions markedly worse than in European industry. In 1914 Americans Henry Thomas and Kenneth Blackfan detailed pediatric lead-poisoning death in the case of a boy who ate white-lead paint bitten off a crib railing. By 1921, the year of Midgley’s discovery of TEL as an octane-boosting gasoline additive, the weight of the evidence was such that America’s National Lead Company, sworn enemy of the antilead movement, was forced to admit grudgingly that its product was indeed a poison, in all its many forms (e.g., carbonate of lead, lead oxides and sulfate and sulfide of lead). The following year, the League of Nations would recommend banning white-lead paints for interior use on health grounds, as many European countries had already done. Establishing a pattern of tolerance for this most dangerous element, the United States declined to adopt the league’s resolution.
The bankruptcy of TEL supporters’ medical opinion was exposed at the time byYandell Henderson and others. Harvard’s Dr. Edsall testified at the Surgeon General’s conference:
For 100 years and more observations have been made as to the effect of having a noteworthy amount of lead dust around in any occupation…. It is not a question, then, whether there is or is not a hazard…. I am disposed to believe that the hazard is a noteworthy one. How severe I am not prepared to say. The only way in which one can determine how serious it is would be through a very large number of extremely carefully carried-out observations as to what the effects are upon a large number of human beings.
By 1928, emboldened by a refreshingly compliant government and TEL’s effective victory before the Surgeon General, National Lead and St. Joseph’s Lead would form the Lead Industries Association to take back the ground ceded with National Lead’s 1921 admission. “Of late the lead industries have been receiving much undesirable publicity,” LIA reminded its members, as if it had forgotten in the intervening years that its product was a deadly poison. For years to come, the LIA, on whose board Du Pont and Ethyl officers served, would carefully gather, fund, support and disseminate propaganda supporting its pro-lead views, fighting all who would stand in its way. This disinformation, along with the lack of an adequate regulatory framework and the expense and difficulty of scientifically proving lead’s insidious impact–bought manufacturers of lead paint and lead gasoline more than fifty years of unjust deserts.
The Kehoe Rule
Ethyl president Earle Webb once listed Robert Kehoe as one of three men without whom Ethyl could not have done what it did, and surely this must be so. Hired by Kettering in 1924 on behalf of GM to study hazards of TEL manufacturing plants, the young toxicologist quickly demonstrated the unerring instinct for pleasing one’s masters that guarantees one employment of a more lasting nature. In 1925 he was appointed chief medical consultant of the Ethyl Corporation and remained in the post until his retirement in 1958. But it was in Kehoe’s day job, as the outspoken director of the Kettering Laboratory–founded with an initial $130,000 gift from GM, Du Pont and Ethyl at the University of Cincinnati, where the lead industry paid Kehoe’s salary for half a century–that he really rose to the challenge of promoting TEL. Against Kehoe’s lab and decades of its pseudo-science, the general and unfunded concerns of the public health community were doomed for close to fifty years.
As Kehoe told a Senate committee with rare accuracy in 1966, “at present, this [Kettering] Laboratory is the only source of new information on this subject [occupational and public health standards for lead] and its conclusions have a wide influence in this country and abroad in shaping the point of view and the activities, with respect to this question, of those who are responsible for industrial and public hygiene.” Working on Ethyl’s behalf and as a consultant to the lead industry until shortly before his death in 1992, at 99, Kehoe put in exceptionally good innings. (His lab would also certify the safety of the refrigerant Freon, subject of another environmentally insensitive GM patent that would earn hundreds of millions before it was outlawed.)
Summing up the findings of a lifetime, Kehoe told Congress that he and his colleagues “had been looking for 30 years for evidence of bad effects from leaded gasoline in the general population and had found none.” The credibility of his research had already been undercut and would soon be destroyed. But for many years, Kehoe’s findings had been vouched for by semi-private organizations, including the American Public Health Association and the American Medical Association. Although they never undertook to investigate or independently verify his findings, their lap-dog approvals served to bulk up the scholarship in a field that was sparsely scholared.
Kehoe’s central belief–criticized by medical authorities from Yale, Harvard and Columbia at the Surgeon General’s original 1925 conference and thoroughly discredited today, though still embraced by the lead-additive industry–was that lead appeared naturally in the human body; that the high blood-lead levels his test subjects exhibited were normal and healthy. In fact, independent researchers later realized, Kehoe’s control patients–the ones who wouldn’t be exposed to leaded gas in his studies–were invariably already saturated with lead, which had the effect of making exposed persons’ high lead load appear less worrisome. Such later findings confirmed the assertions of Yandell Henderson and others who criticized Kehoe’s methodology in 1925 before the Surgeon General’s conference. Harvard’s Dr. Edsall had reminded the Surgeon General, “In spite of what Dr. Kehoe has just said, I think that his work will have to be neglected for the reason that the finding of lead in such a large proportion of control people means that however carefully these observations were made there was something wrong technically.”
Late in his career, Kehoe contended that lead levels in gasoline could–and should–be raised.
In recent years, a new generation of academics has singled out Robert Kehoe as the father of a rule, or paradigm, of profound importance, one that was to govern American industry and its parade of hazardous products for much of the twentieth century. By relying on what Jerome Nriagu of the University of Michigan has called the cascading uncertainty rule (“There is always uncertainty to be found in a world of imperfect information”), the lead industry and makers and marketers of TEL gasoline additives were able to argue in 1925: “You say it’s dangerous. We say it’s not. Prove us wrong.” (Or, as Nriagu prefers, “Show me the data.”) They still do.
As a result, Ethyl had its cake and ate it, several times. If the company’s substance checked out as safe, then it would have been shown to have behaved responsibly. If not, it would take an eternity to prove, during which time the company could keep challenging test results and calling for more data. “Both possible outcomes,” the historian Alan Loeb has written, “accommodated Ethyl. The general public was dealt all the risk and Ethyl and its owners were insulated from responsibility. To the extent that there was a health consequence, the Kehoe rule placed the burden upon the public.”
In the past fifty years, nuclear power, tobacco, chemical, asbestos, coal, pesticide and automobile interests have adopted strategies similar to the one developed by Kehoe. Clutching most of the technology and all of the research capital in their own hands, they’ll say “Prove us wrong, and we’ll change.” But confronted with damning evidence, they’ll repeatedly challenge the methodology of the studies or the bias of researchers. All of which takes time. When these defenses fail, the whole notion of extrapolating from test results on animals might be questioned. As Professor Herbert Needleman of the University of Pittsburgh has observed, because toxins are not tested on humans, this effectively means that no agent can ever be demonstrated as toxic to industry’s satisfaction.
Today, application of the Kehoe Rule has special meaning, as multinational corporations seek to introduce myriad genetically engineered crops and products prior to rigorous independent scientific testing. Once again, the burden of proof is being subtly shifted to the doubters, with the entire world cast in the role of guinea pig. In 1925 Haven Emerson, a Columbia professor of public health and former New York health commissioner, said of the TEL experience, “Up to the present time we have almost invariably got our first inkling of a new industrial chemical hazard by some human catastrophe… it seems rather pitiable in a country of such wealth in means and knowledge that we had to wait for a series of human catastrophes to develop the demand for a series of animal experiments.”
Lead Paint vs. Lead Gas
Working alongside Kehoe at first was the Lead Industries Association. Formed primarily to fight restrictions on the use of lead paint, the LIA was also ready to serve as a sort of all-purpose lead-issue obfuscator. Though it wouldn’t fund much actual research, the LIA would underwrite the original studies at Harvard in the twenties that isolated a new pseudo-psychological malady named “pica,” the so-called unnatural impulse of some small children, mostly nonwhite, to stick lead paint chips in their mouths.
Much to LIA’s chagrin, Kehoe would break ranks with them on the subject of lead paint, judging their product indefensible in light of all small children’s tendency to put things in their mouths. Coming from the lead-happy Kehoe, this was a grim diagnosis indeed. Happily for the doctor, in 1958 LIA and the former American Zinc Institute founded another industry advocacy group, the International Lead Zinc Research Organization, with an eye to promoting global use of the lead additive in fuel and protecting makers of cadmium, the toxic zinc relation often found in batteries. Kehoe and Ethyl would find a happier home at ILZRO, which would fund the occasional scientific study. Dr. Paul Mushak, visiting professor of pediatric toxicology at Albert Einstein College of Medicine, told The Nation that the industry has tended to underwrite research toward the margins of relevant issues, so as to avoid discovering something it might not like.
Kehoe’s split with LIA and the lead-paint camp was, oddly, beneficial for both parties. Ever since, the lead-paint and lead-gasoline interests have been able to point the finger at one another when assessing their own responsibility for the global lead-pollution problem, buying more time to sell their products and more time to distance themselves from potential liability.
Ethyl Changes Hand
By the late thirties Ethyl had sewed up the US market, as noted, and was making major inroads in Europe. After World War II, Third World markets would begin to be opened. On the surface things looked pretty good for the company, which by now had blanketed the earth with its “gift of God.” As “The Ethyl Story,” an insert in the Ethyl corporation’s annual report for 1963, observed with enthusiasm, “today, lead alkyl antiknock compounds are used in more than 98 percent of all gasoline sold in the United States and in billions of gallons more sold in the rest of the world. Leaded gasoline is available at 200,000 service stations in this country and thousands of others around the globe.”
Strange it was, then, that in 1962 GM and Standard suddenly dumped the Ethyl Corporation on the market. Even more surprising to many was the buyer, the tiny Albermarle Paper Manufacturing Company of Richmond, Virginia, and the structure of the deal: It was the modern world’s first recorded leveraged buyout. Albemarle, owned by the Gottwald family, had acquired Ethyl, eighteen times its size, with $200 million of borrowed money, making the front page of the New York Times. “It was like a Mom and Pop grocery buying the A&P!” remarked an incredulous Monroe Jackson Rathbone, Standard Oil of New Jersey’s president, after presumably taking a back seat in the negotiations.
No one who’s talking knows why GM wanted out of Ethyl in 1962. Ethyl’s official historian notes dryly that profits were flat in the late fifties. The company’s TEL patents had expired in 1947, and this allowed Nalco, PPG and Houston Chemical to get into the TEL game on the back of Ethyl’s yeoman work. But Ethyl was still the 800-pound gorilla in the tetraethyl arena; overall, profits were pleasingly plump and Ethyl’s annual reports were upbeat. A more important factor may have been the sense that antitrust was in the air, with the du Pont family being ordered by the government during this period to divest billions in GM shares. Ethyl’s incestuous paternity and its unseemly relations with Nazi Germany during World War II were reasons to avoid closer scrutiny by a nosy government. And, just perhaps, GM might have known something heavy was coming.
Ethyl’s new owners would, in fact, soon find themselves staring at more worrisome smoke signals than a patch of duff profits. In July 1943 the Los Angeles Times reported the city’s first major smog episode. In 1950 Dr. Arie Haagen-Smit reported that the interaction of hydrocarbons (HC) and oxides of nitrogen (NOX) caused smog in Los Angeles. By 1953 automobiles would be identified as the region’s largest source of hydrocarbons. Though they may or may not have known it in 1962, the makers of TEL would soon be staring down the barrel of a gun–the anti-air pollution movement.
American auto makers saw the threat that air pollution posed to their business. In the mid-fifties they’d concluded a formal but secret agreement among themselves to license pollution-control technologies jointly and not publicize discoveries in the area without prior approval of all the signatories, a pre-emptive strike against those who would pressure them to install costly emissions controls. The effect of their pact would be to stifle the development of these much-needed devices and technologies. When their agreement came to the Justice Department’s attention in 1969, the fallout from the exposure of their perfidy and mounting awareness of the nation’s out-of-control smog problem would guarantee passage of air-pollution laws that would eventually put lead out of business in America. By this time, the legislative mood had changed as it pertained to the automobile, fueled in large measure by the work–and persecution, by GM–of a young lawyer and Congressional aide named Ralph Nader, who, after raising serious questions about auto safety, had been followed and harassed by GM’s private detectives.
Crucially, too, by 1969 the entire Kehoe view of natural human lead burdens had been knocked out–with one punch–by Dr. Clair Patterson, a California Institute of Technology geochemist. A onetime member of the Manhattan Project, Patterson is widely credited with giving us our most accurate estimate of the earth’s age–4.55 billion years. With the publication in 1965 of his seminal work, “Contaminated and Natural Lead Environments of Man,” in the Archives of Environmental Health, the scientific world had its hardest proof ever that high background lead levels in industrial lands were man-made and endemic. Noticing heavy planetary lead contamination in the process of establishing the age of the planet, Patterson detailed how industrial man had raised his lead burden 100 times and levels of atmospheric lead 1,000 times. Kehoe’s rule of error ended in a flash.
Kehoe held his head high in his remarks to Edmund Muskie’s Congressional clean air subcommittee in 1966, but Patterson had turned him into an academic train wreck. Unlike Kehoe, Patterson utilized state-of-the-art methods to avoid subject contamination with background lead. Analyzing the 1,600-year-old bones of pre-Columbian humans, he showed that the twentieth-century human lead burden was seriously elevated. Though Patterson’s work was widely hailed by the scientific community (it was the reason Kehoe was humored, rather than respected, by the Muskie committee), the paper earned the professor a visit from representatives of the Ethyl corporation, who, in Patterson’s words, tried to “buy me out through research support that would yield results favorable to their cause.”
Instead of joining forces with Ethyl, Patterson delivered a lecture assailing the company’s activities and predicting the demise of their TEL operation. Following these events, his longstanding contract with the Public Health Service was not renewed, nor was a substantial contract with the American Petroleum Institute. Members of the board of trustees at Cal Tech leaned on the chairman of his department to fire him. Others have alleged that Ethyl offered to endow a chair at Cal Tech if Patterson was sent packing.
In January 1969 the four major US auto companies and their trade association–along with seven manufacturers of trucks and cabs, listed as co-conspirators–were accused by the Justice Department of conspiracy to delay development and use of devices to control air pollution from cars, based on their secret agreement. Though they would settle the government’s suit in September by agreeing to terminate their compact as well as all joint research, publicity or lobbying on emissions issues, Detroit’s position vis-à-vis air pollution had been severely compromised. Ethyl was on its own now, and it was fair and easy game to take the fall.
On January 14, 1970, GM president Ed Cole announced to a flabbergasted audience the company’s intention to meet pending clean-air laws with catalytic converters beginning in 1974. Attached to automotive exhaust systems, these devices trap many harmful emissions. However, the catalysts’ active element, platinum, is expensive, a real problem when it is rendered instantly inoperative (and the car undrivable) by the lead in “ethylized” gasoline. Farewell, then, leaded gasoline.
Ethyl was livid. As an authorized corporate biographer wrote some years later, “Here was General Motors, which had fathered the additive, calling for its demise! And it struck some people as incongruous–not to use a harsher word–for General Motors to sell half of what was essentially a lead additive firm for many millions and then to advocate annihilation of the lead antiknock business.”
“‘Get the lead out’ has become a slogan in every household,” Lawrence Blanchard Jr., an Ethyl exec, complained. “I still stay awake some nights trying to figure out how we got into this mess.”
Big Lead Fights Back
Tetraethyl lead was no longer GM’s concern. Nor was it the concern of other auto makers, who followed suit announcing that they too would adopt the catalyst to meet ever-tightening federal emissions standards. Du Pont and Ethyl, on the other hand–along with a ragtag bunch of cheapskate oilmen who hoped to avoid upgrading their refineries to produce unleaded gasoline of sufficiently high octane–still cared a lot about American sales of TEL. When the EPA launched the first of several halfhearted attempts to begin removing lead from gasoline, lead’s corporate affinity group fought back with a ferocity that bespoke major arrogance and even greater desperation. No sooner had the EPA announced a scheduled phaseout, setting a reduced lead content standard for gasoline in 1974, than it was sued by Ethyl and Du Pont, who claimed they had been deprived of property rights. In that same year, a panel of the US Court of Appeals for the District of Columbia Circuit set aside the EPA’s lead regulations as “arbitrary and capricious.”
Ethyl had argued that “actual harm” must be shown, not just “significant risk,” before their product could be outlawed, and the panel agreed. That Ethyl could make the argument at all was a troubling reminder that the executive and legislative branches of the United States government had signally failed to heed the Surgeon General’s committee’s original request for funding in 1926 for more independent research, leaving the driving, scientifically speaking, to Robert Kehoe.
In 1976 the full United States Court of Appeals for the DC Circuit overturned the decision against the EPA, finding that “significant risk” was adequate foundation for the agency’s action against lead and within its authority. Supreme Court Justice Lewis Powell, a longtime Ethyl director when he was a Virginia corporate lawyer, didn’t need to recuse himself, as the Court refused to hear an appeal brought by TEL makers Ethyl, Du Pont, Nalco and PPG, as well as the National Petroleum Refiners Association and four oil companies. Ethyl’s excitable Blanchard lashed out, “The whole proceeding against an industry that has made invaluable contributions to the American economy for more than fifty years is the worst example of fanaticism since the New England witch hunts in the Seventeenth Century.”
Fighting on the beaches and fighting on the seas, an impassioned Ethyl wasn’t going to go down easy, urging a reprieve for leaded fuel at a 1979 meeting of the Petrochemical Energy Group. Soon after, the company’s oil industry amigos would sound the alarm for a mysterious “octane crisis” on account of an alleged increase in competition for aromatics, crude oil components that are mainstays of the plastics and synthetics businesses, as well as unleaded gasoline octane boosters. To combat the crisis, they requested an EPA slowdown on the gradual phaseout of lead. The petrochemical industry–led by Du Pont, Monsanto and Dow–would simultaneously launch an intensive lobbying campaign to delay the scheduled lead phaseout, charging, in a reminiscent tack, that the newly discovered dearth of aromatics “threatens the jobs of the 14 million Americans directly dependent and the 29 million Americans indirectly dependent on the petrochemical industry for employment.”
The ever-hopeful lead cabal’s dreams were cruelly dashed in early 1982, after word leaked out of Vice President George Bush’s Task Force on Regulatory Relief that the newly elected Reagan Administration planned to relax or eliminate the US lead phaseout. Recognizing its cue, Du Pont formally called upon the EPA to rescind all lead regulations. EPA Administrator Ann Gorsuch was only too pleased to comply, but she unwittingly launched a firestorm of bad publicity in advance of an announcement by telling a visiting refiner with a big mouth that she would not enforce violations of current lead limits because the regulations would soon be repealed. When Gorsuch’s remarks appeared in the newspapers (and were lampooned in the comic strip Doonesbury), Reagan’s EPA would, under heavy political pressure, strike a compromise that effectively sped up the phaseout. Once again, Ethyl had been let down by old friends.
The New Science of Lead
Ethyl and Octel continued to whine, but by 1984 the health benefits of America’s lead phaseout had become too remarkable to ignore, and it was this fact that ultimately ended lead’s reign in America. The harmful effects of lead at lower and lower concentrations had been shown by independent studies in the late seventies and early eighties, and by now PHS was at long last settling in with the antilead camp. EPA economist Joel Schwartz, assigned by his Reaganaut superiors to examine the impact of the lead phaseout on small refiners preparatory to phasing lead back in, went rogue and reported back instead on the impact of the phaseout’s early years on American blood-lead levels, which the federal Centers for Disease Control in Atlanta had been independently compiling. The CDC’s findings were startling, contradicting everything leadheads of the Kehoe school held dear.
Between 1976 and 1980 the EPA would report, the amount of lead consumed in gasoline dropped 50 percent. Over the same period, blood-lead levels dropped 37 percent. The EPA estimated that the public benefits of the phaseout, which included reduced medical costs and lower maintenance for cars, had already exceeded costs by $700 million. Between 1975 and 1984 lead for gasoline consumption dropped 73 percent, while ambient air lead decreased 71 percent [see graph in printed issue].
The Lead Industries Association was so angry with the data the EPA had corralled that in June 1984 it sued the CDC, which had impaneled its lead experts to prepare an updated statement on childhood lead poisoning for the nation’s medical and public health community (the suit was dismissed on jurisdictional grounds). Schwartz told The Nation that the collection of lead data was hindered by the Reagan Administration, which, early in its term, prohibited the CDC from requiring lead-screening programs to report results to it, figures that it would then publish each quarter in the scientific journal Morbidity & Mortality Weekly Reports. Subsequently, the CDC was prohibited from even inquiring about lead-screening program results.
As more impartial studies were funded, however, the common-sense objections to leaded gas raised by public health campaigners in the twenties only seemed more prescient. Yandell Henderson, Alice Hamilton, David Edsall and numerous other eminent public health scholars had precisely predicted the problem sixty years earlier, before it became a global condition. Sadly, they were ignored. Dispersed into the air in automobile exhaust, lead dust would be no more healthy than it was when lead smelting was identified as a poisonous pastime 3,000 years ago. Moreover, as with many industrial toxins, the perceived acceptable level of exposure fell as further studies were finally carried out.
In the fifties and sixties, blood-lead levels of less than 60 micrograms (a microgram is a millionth of a gram) per deciliter (one-tenth of a liter) of blood (mcg/dl) were considered acceptable by America’s medical establishment, not requiring intervention, because overt symptoms of lead poisoning, such as convulsions, do not typically occur below this level. Prior to that, dating back to the twenties, lead poisoning usually had to be severe enough to cause death or severe brain damage to be considered a diagnosed poisoning event. A corresponding blood-lead level of 80-100 mcg/dl or possibly higher might be imputed. In the intervening years, the acceptable level has dropped steadily from 40 mcg/dl to 30 to 25 and now to 10 or below.
Though the lead industry advocacy groups cling to the old numbers, the CDC, the American Academy of Pediatrics, the EPA and the National Academy of Sciences have agreed that the ill-health effects beginning at 10 mcg/dl are established fact, “an unprecedented coherence of opinion in the field of neurotoxicology.” In 1994 a letter to the editors of the medical journal Pediatrics, several prominent lead research doctors addressing industry naysayers wrote, “If this massive database is not persuasive for lead, then no other chemical can be considered to have been demonstrated to be toxic.”
Completing a sequence familiar to pollution watchers, a recent review of scientific research by the National Research Council has led it to conclude, “There is growing evidence that there is no effective threshold for some of the adverse effects of lead.” Children are especially at risk. Summarizing its study of the relevant science, the Department of Housing and Urban Development wrote, “There does not yet appear to be a discernible threshold for the adverse effects of lead on the young.”
In a 90,000-word 1997 review of all scientific evidence on the subject, Erik Millstone of the Science and Technology Policy Research Unit at Sussex University concluded that children suffer ill effects from lead at especially low exposures–much lower than was thought even recently–including reduced IQ, behavioral and learning difficulties and hyperactivity. Children are 4-5 times more susceptible to the effects of lead than adults. According to the CDC this is because children’s digestive systems absorb more lead than adults–40-50 percent of that ingested versus 10-15 percent. In addition to breathing it in, children will ingest large quantities of airborne lead when it settles on soil, dust, food and playthings, which eventually contact their mouths. Based on research linking the two, in 1998 the Justice Department began studying the impact of childhood lead exposure on juvenile delinquent behavior.
Perhaps the only encouraging news in any discussion of leaded gasoline is how readily blood-lead levels fall when its use is trimmed or eliminated. The US phaseout of lead began in 1975 and was largely complete by 1986. Based on data collected in more than sixty US cities by the CDC, the Department of Health and Human Services reported that blood-lead levels in Americans aged 1-74 had declined 78 percent between 1978 and 1991.
For children aged 1-5, blood-lead levels decreased 76 percent, from 15.0 to 3.6 mcg/dl. The percent of children with blood-lead levels greater than or equal to 10 micrograms declined from 88 percent to 9 percent. The British Medical Journalreported three years ago that since Britain’s lead phaseout began, blood-lead levels there had fallen by two-thirds. In New York City, where the war against tetraethyl lead can be said to have first begun with its ban in 1925, Dr. Sergio Piomelli, a hematologist at Columbia University’s Children’s Hospital, has reported that before the US lead phaseout began, 30,000 out of 100,000 New York City children tested had elevated lead levels; after the phaseout was complete, 1,500 of 100,000 had similarly high levels. In 2000, he told The Nation, the affected population is even smaller.
Still, one of the most telling measures of the extent of human lead contamination–careful measurement of lead levels in the bones of our preindustrial ancestors–argues against too much backslapping. A 1992 article in The New England Journal of Medicine revealed that pre-Columbian inhabitants of North America had average blood-lead levels 625 times lower than the current “safe” level of 10 mcg/dl.
Foreign custom kept Ethyl in business, and it put Octel on the map. In the seventies, with the auto industry embracing catalytic converters and talk of a lead phaseout circulating, the US market seemed certain to shrink, making foreign profits increasingly important to the lead giants. Casting back over 1972 in its annual report for that year, Ethyl reminded shareholders, “Continued penetration of expanding world markets would lessen any…impact on Ethyl’s total antiknock sales.” The following year, noting growing reservations about the American market, it went on to recall: “Sales of antiknock compounds continued to increase in all overseas markets in 1973. To promote this growth, Ethyl International added antiknock bulk terminals in the Far East, Middle East and South America. Construction of other terminals in various areas of the world is planned in 1974 and 1975.”
Ethyl further elaborated its foreign strategy in 1974: “Most foreign countries have recognized the importance of the role lead antiknocks play in conserving crude oil in this period of shortages…. we believe antiknocks will continue to constitute a major product of the Company for years to come whether or not there is a domestic reduction in use of lead in gasoline.”
By 1979 the company would observe, “It is worth noting that during the second half of 1979, for the first time, Ethyl’s foreign sales of lead antiknock compounds exceeded domestic sales.” Ethyl and Octel both were additionally fortunate in being able to manipulate their prices to keep profit levels high. As Octel reported in a 1998 SEC filing, “From 1989 to 1995, the Company was able to substantially offset the financial effects of the declining demand for TEL through higher TEL pricing. The magnitude of these price increases reflected the cost effectiveness of TEL as an octane enhancer as well as the high cost of converting refineries to produce higher octane grades of fuel.” In other words, they had their customers over a barrel.
Lead for the Poor
The sad, bitter fruit of Ethyl’s and Octel’s missionary work on behalf of leaded gasoline lies in its prevalence in the Third World today. Given the current state of knowledge regarding the hazards of lead, this constitutes a particularly egregious example of environmental racism. While more than 80 percent of the heaviest lead-using countries today are low income, 70 percent of low lead users (those that have phased out lead or allow only very low levels) are high income. While Americans cruise their freeways burning exclusively unleaded gasoline, as of 1996, 93 percent of all gasoline sold in Africa contained lead, 94 percent in the Middle East, 30 percent in Asia and 35 percent in Latin America.
According to the World Bank, 1.7 billion urbanites in developing nations are in danger of lead poisoning, including neurological damage, high blood pressure and heart disease from airborne lead, 90 percent of which is attributable to leaded gasoline. Excessive exposure to lead causes 200,000-500,000 cases of hypertension in the Third World, with 400 deaths per year attributable to lead exposure in the late eighties. In Mexico City, one of the world’s most polluted (and populous) cities, 4 million cars pump an estimated 32 tons of lead each day into the air. In Jakarta, one and a half tons enters the atmosphere every twenty-four hours. A research scientist with the Canadian National Water Research Institute performed roadside-dust analyses in Nigeria that revealed as much as 6,000 parts per million of lead. In the United States, lead dust is considered hazardous to children at 600 ppm [see chart in printed issue].
In Alexandria, Egypt, where gas is heavily leaded, concentrations of TEL and air-lead levels are often double the European Union’s recommended level, and traffic controllers have been found to suffer central nervous system dysfunction. In Cairo more than 800 infants die annually because of maternal exposure to lead. Daytime air-lead levels in Buenos Aires have been measured at 3.9 grams per cubic meter versus the twenty-four-hour EU limit of 1 gram per cubic meter.
The continued use of TEL is especially troubling in light of the fact that the Third World’s car population is multiplying rapidly, a situation that will only intensify if multinational automobile manufacturers have their way. Although the Chinese government has recently expressed its intention to remove lead from its fuel, other nations that haven’t are already seeing vehicular population explosions like that predicted for China.
Prodded by Western lead manufacturers, some countries have even allowed the lead content in their gasoline to be increased. Although it has since moved toward deleading its gasoline, India, for instance, more than doubled the amount of lead permitted in its gasoline (from 0.22 to 0.56 grams per liter) during the seventies and eighties; in Uganda, the number soared from 0.58 to 0.84 grams per liter, higher than was ever typical in the West. Never known for their philanthropy, refiners in poorer nations are disinclined to upgrade their refineries so as to obtain higher octane gasolines without using lead.
Ironically, in the nineties the Venezuelan state oil company, Petroleos de Venezuela, exported unleaded gasoline. But it was importing TEL and adding it to all gasoline sold for domestic use–this in the country with the greatest number of automobiles per capita in Latin America. By way of explanation, it is perhaps not unhelpful to know that several high-ranking officials of the state oil company held consultancies with companies that sell lead additives to the country. Among the consequences of this corrupt arrangement: According to a 1991 study 63 percent of newborns studied had blood-lead levels in excess of US “safe” levels.
Environmental standards in Third World countries tend to be lax. Where clean-air laws and unleaded gasoline do not exist, there is no impetus for automobile manufacturers to install catalytic converters in their cars. With the rapid growth in automobile use and the growing size of these countries’ fleets, coupled with low vehicle-turnover rates (car lives of fifteen years are not at all uncommon in low-income countries) and minimal maintenance, air pollution becomes a much greater hazard. According to the World Health Organization, two-thirds of India’s pollution is generated today by vehicles, compared with only 24 percent in 1971; the WHO estimates that 7,500 deaths in New Delhi each year are related to air pollution.
Finally, because lead ruins catalytic converters and fouls modern engine-management computers, leaded gasoline prevents motorists in these countries from using more efficient, less-polluting modern vehicles even if they want to. Where cars equipped with catalysts are sold as new or used vehicles, a predominantly leaded fuel supply invites motorists to either remove the air-cleansing catalysts or destroy them by filling their cars with leaded fuel.
It’s Cleanup Time
The public health benefits and cost savings to societies of removing lead from gasoline are so vast that the business-friendly World Bank was moved–at a 1996 UN conference in Turkey, where leaded gas still accounts for 82 percent of the market–to call for a complete global phaseout. The bank calculated that the United States had saved more than $10 for every $1 it invested in its conversion to unleaded, by reducing health costs, saving on engine maintenance and improving fuel efficiency with modern engine technologies. Further claiming that no-lead fuel may increase engine life by as much as 150 percent, the bank called for an immediate five-year phaseout. (Buttressing the World Bank’s public-spirited campaign, undoubtedly, is the realization that many of the state-owned oil companies currently producing leaded gasoline will require private investment–and possibly ownership–to finance refinery upgrades to produce high-octane unleaded fuels.)
Unsurprisingly, the industry, which favors phaseouts of twenty-years’ duration and more, responded testily:
“Octel and the World Bank have been discussing the transition from leaded to unleaded gasoline for a long time,” a spokesman told the Chemical Marketing Reporterin 1996. “It isn’t really appropriate for the World Bank to apply US studies and data to the phaseout of lead in Third World countries.”
Ethyl and Octel both have strategies for dealing with Third World nations seeking to go unleaded. In separate interviews with The Nation, they admitted advising their remaining customers to go slow. As Ethyl’s vice president of international sales, Bob Yondola, explained: “As countries have the infrastructure to support unleaded gasoline, have the monies for their people to buy the new cars, etc., etc., it makes sense [to switch to unleaded gas]. But if you’ve got some parts of the world where their infrastructure is still–you know, they need to come up with food and water, and sewers…for their people. And there are still places in the world like that. Then, I mean, getting the lead out of the gasoline, to me, wouldn’t make as much sense as having sewers.”
Associated Octel’s public affairs spokesman Bob Larbey, since retired, said his firm will help Third World refiners clean up their contaminated lead operations, for a fee. “But,” he said, “we talk to developing countries. For example, refiners come to us and say, ‘We want to get the lead out,’ because we’re refinery experts, you see, and we could advise them on how they could best phase lead out, with what strategy. I think if we argue anything at all, we say, ‘Well, if you’re going to go out of lead, fine, let’s talk a bit, but there’s no need, this is the lead in health information, there’s no proven adverse health affect, and so there’s no need for you to do it precipitously. You might not want to take twenty years [as in the European phaseout] but really, there’s no need to rush.’ Because if you replaced it with other components of petrol then there’s a risk from anything…. Petrol itself is a risk without lead.”
The lead industry clutches the alleged dangers of other octane-enhancing gasoline additives near to its bosom. While admitting the hazard of his company’s product, one Octel executive told the New York Times that leaded fuel is an “economic and environmental bargain” for the Third World because it improves fuel economy, which lowers other emissions like benzene, also found in gasoline.
“Getting rid of one environmental risk won’t necessarily improve public health if you replace it with greater risks,” yet another spokesman for Octel’s affiliate told theChemical Marketing Reporter. Benzene, the hazard to which lead enthusiasts refer most often, can be used by refiners to boost octane cheaply in the absence of lead. But it isn’t mandatory, and any sensible lead-reduction regulation would limit its use. Moreover, while as many as 5,000 Americans died annually from lead-related heart disease prior to the lead phaseout, only forty-seven people developed cancer from the use of benzene as a lead replacement. “The health impacts of aromatics [like benzene] are several orders of magnitude less than that of lead,” said a World Bank spokesperson.
Diversification and Spinoff
Selling lead is an unusually profitable business. As Ethyl’s 1995 report to shareholders blandly observes, lead additive sales accounted for 26 percent of gross revenues, but 74 percent of its profit. In 1995 the New York Times wrote of the profit bonanza Octel’s then-owner, Great Lakes Chemical, had stumbled upon when, searching for sources of bromine for fire retardants, it landed in the TEL business.
Far from petering out, demand for leaded gasoline, while shrinking, has remained far stronger than anyone predicted, especially in the third world. Meanwhile, every other major producer has stopped making the additives, known as tetraethyl lead, or TEL. That has left Great Lakes with an unexpected flood of profits and 90 percent of a market that no one else will enter because of the environmental problems associated with lead and the huge capital costs of building a new plant.
Octel’s old plant, along the Manchester Ship Canal outside Liverpool, bankrolled immense growth for Great Lakes, allowing it to double in size within five years (to $5 billion in annual revenue) following its acquisition of Octel, all the while maintaining a hefty 15 percent annual operating profit. As recently as 1977 Great Lakes had only $50 million in operating revenue.
Years of lead profits have funded major diversification efforts for Ethyl and its owners, led by the Gottwald family of Richmond. The company’s annual report for 1996 revealed “a long-running strategy: namely, using Ethyl’s significant cash flow from lead antiknocks to build a self-supporting major business and earnings stream in the petroleum additives industry.”
By 1983 Ethyl had become “the world’s largest producer of organo-metallic chemicals.” It would expand its production for the petroleum industry (including the purchase of the petroleum additives divisions of Amoco and Texaco), as well as acquire interests in other specialty chemicals, plastics and aluminum products, oil, gas and coal. Ethyl would also invest billions in pharmaceuticals, biotech research, semiconductors and life insurance. At great expense, it would develop a serene corporate campus of seventy acres along the banks of the James River in Richmond.
As the science against TEL mounted and government regulation stiffened, Ethyl began a series of restructurings that today find its TEL business standing suspiciously alone. In 1989 Ethyl spun off Tredegar Industries, a group it created to hold its aluminum, plastics and energy businesses. For every Ethyl share they held, investors would receive prorated shares in the new company. Voilà! Limited liability. Later Ethyl would spin off its billion-dollar insurance company, First Colony Life. In 1994 Ethyl would split up its chemical and petroleum additives division and create a wholly owned subsidiary, Albemarle Corporation, named after the 100-year-old paper company that bought Ethyl (which retained its name) in 1962. One of the main enterprises of Albemarle, ironically, is supplying Ethyl with MMT under a long-term agreement. MMT is another gasoline additive (made of manganese and barely sold in the United States) with suspected health consequences. In 1994 Ethyl and its Albemarle offspring did a rousing $48 million of business together. Oddly, for a company that claims to be proud of its product (so proud that under an obscure provision of NAFTA it sued the Canadian government for outlawing MMT) Ethyl declined to tell Automobile Magazine in 1999 in which countries it sold MMT to refiners, presumably because it fears awakening consumers to the presence of its manganese additive.
Because it was itself spun off to a management team from Great Lakes Chemical, Octel remains highly concentrated in lead, with TEL representing 85 percent of its business in 1996. Although CEO Dennis Kerrison has announced his intention to develop non-TEL businesses into core businesses by 2005, “even the most extreme estimates allow for the continued use of leaded petrol in some parts of the world until at least the year 2010.” Off the record, company officials admit they could be selling lead in 2020 and beyond.
Until then, Octel, “through the specialist facilities of Octel Environmental, provides a range of decontamination, destruction, removal and recycling services to refineries throughout the world to help to reduce the environmental impact of toxic lead residues.” Under its Product Stewardship Programme–“a public service,” Octel calls it–fifty tons of lead alkyl sludge were removed from New Zealand refineries as part of a cleanup beginning in 1996. Octel had supplied the refineries with 4,000 tons of TEL annually for years. So, in a crowning irony, poisoned motorists in New Zealand and around the world will, through higher gasoline prices, pay Octel (and Ethyl) to clean up the mess the TEL barons and their refinery customers made.
Will the Sun Ever Set on Lead?
Associated Octel’s fiftieth-anniversary catalogue affectionately quotes a letter the company received from a former technical services manager in 1982, when Britain’s antilead campaign kicked off in earnest: “Many funerals have been arranged for lead in petrol–1926, 1943, 1954, 1970, etc.–as I can recall. The grave has been dug, the service arranged, the coffin prepared, the parson and mourners instructed, but the body just would not lie down in the coffin.”
Though the catalogue was published in 1988, the sentimental hope that it’s not over yet is secretly still held by Octel and Ethyl, and all the others who continue to push leaded gasoline. But the body of tetraethyl lead must be made to lie down in its coffin. The five-year phaseout of leaded gasoline favored by the World Bank in 1996 makes inarguable moral and business sense–two things that don’t always go together, especially at the World Bank. The only ones arguing otherwise are Octel, Ethyl and the small coterie of self-interested researchers and narrowly trained toxicological technicians who’ve lived on the industry’s tab for the last thirty years, since Robert Kehoe stepped down.
Many European nations have banned leaded gas for 2000. Progress has been made. But somehow Ethyl and Octel will be splitting Third World profits for years to come. If the science was ever in doubt (and it really wasn’t), the facts are now incontrovertible. Leaded gasoline is dangerous. When safer alternatives are available, as they always have been, leaded gasoline’s benefits are nil. It is not good for cars, and it prevents the use of modern emissions reduction equipment, like catalytic converters, which, owing to the greenhouse effect, the world needs more desperately now than ever. TEL’s most crass (and main) historic selling point is no longer valid: It isn’t even cheap.
There is at least one simple lesson to be drawn from the tetraethyl lead story. Industry cannot be trusted to regulate itself, as Clair Patterson–the man who dated the earth and single-handedly deflated ethylized science–once remarked. “It is not just a mistake for public health agencies to cooperate and collaborate with industries in investigating and deciding whether public health is endangered–it is a direct abrogation and violation of the duties and responsibilities of those public health organizations.”
As for General Motors, Du Pont, Standard Oil, Ethyl, Associated Octel and rest of the lead cabal, it’s conceivable they’ll be hauled into court sooner or later, which is one reason these companies all take such an active interest in so-called tort reform legislation. You would too, if you had been a key actor in one of the most tortious episodes of twentieth-century industrial history. We can hope that Congress doesn’t give them a free pass, but no matter what, it will be the citizenry that will pay any financial bills coming due. They’ve already paid with their health. Many of the effects of childhood lead exposure are irreversible.
These businesses should be shut down. And to make sure they don’t forget their heinous experience, all these companies ought to open their archives to independent review, to assist in assembling the information that will help lay TEL down to eternal rest, to help show the world what went wrong when common sense was put on hold in the name of profit. In the face of all that is known today, the leaderships of foreign countries who continue to poison their people with TEL should be harangued to phase out lead from their gasoline–on a daily basis, by the United Nations as well as by governments, agencies and medical officials from around the world. Until then, the merchants of tetraethyl lead–or any other unnecessary additive known to be dangerous–are no better than criminals. They should be dealt with accordingly. Maybe in this new century they will be.
The author wishes to thank for their assistance and to acknowledge the research of Professor William Kovarik, Dr. Herbert Needleman, Professors David Rosner and Gerald Markowitz, Dr. Jerome Nriagu, Dr. Amy Kyle, Richard Merritt, Richard Bremner and Alan Loeb. He would also like to express particular gratitude to his research associate, Bill Krauss, his editor, Richard Lingeman, and his fact-checker, Michael Kunichika.