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Table. Trace Mercury and Lead Analyses of Andrew Jackson's Hair
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1.
Parton J. Life of Andrew Jackson in Three VolumesNew York, NY: Mason Brothers; 1860.
2.
Remini RV. Andrew Jackson and the Course of the American Freedom, 1822-32New York, NY: Harper & Row; 1981.
3.
Caravati CM. President Andrew Jackson: despite infirmities, a strong leader.  Va Med Q.1983;110:194-195Google Scholar
4.
Gardner FT. The gentleman from Tennessee.  Surg Gynecol Obstet.1949;30:404-411.Google Scholar
5.
Marx R. The Health of the PresidentsNew York, NY: GP Putnam; 1960.
6.
Rosenberg JC. A study of Andrew Jackson's wounds and illnesses.  Am J Surg.1969;117:721-725.Google Scholar
7.
Blinderman A. Andrew Jackson: the president who would not die conveniently.  N Y State J Med.1972;72:405-412.Google Scholar
8.
Remini RV. The final days and hours in the life of General Andrew Jackson.  Tennessee Historical Quarterly.1980;39:167-177.Google Scholar
9.
Dale PM. Medical Biographies: The Ailments of Thirty-three Famous PersonsNorman: University of Oklahoma Press: 1952;136-150.
10.
Fritz M. Jackson: A Medical History [master's thesis]. Toledo, Ohio: University of Toledo; 1985.
11.
Remini RV. Andrew Jackson and the Course of American Democracy, 1833-1845Vol 3. New York, NY: Harper & Row; 1984.
12.
Remini RV. Andrew Jackson and the Course of American Empire. 1767-1821. Vol 1. New York, NY: Harper & Row; 1977.
13.
Weiss D, Whitten B, Leddy D. Lead content of human hair (1871-1971).  Science.1972;178:69-70.Google Scholar
14.
Suzuki T, Hongo T, Morita M, Yamamoto R. Elemental contamination of Japanese women's hair from historical samples.  Sci Total Environ.1984;39:81-91.Google Scholar
15.
Foo SC, Khoo NY, Heng A.  et al.  Metals in hair as biological indices for exposure.  Int Arch Occup Environ Health.1993;65(suppl 1):583-586.Google Scholar
16.
Katz SA, Katz RB. Use of hair analysis for evaluating mercury intoxication of the human body: a review.  J Appl Toxicol.1992;12:79-84.Google Scholar
17.
Iyengar V, Woittiez J. Trace elements in human clinical specimens.  Clin Chem.1988;34:474-481.Google Scholar
18.
Lenihan JM, Leslie AC, Smith H. Mercury in the hair of Robert Burns.  Lancet.1971;2:1030.Google Scholar
19.
Winship KA. Toxicity of mercury and its inorganic salts.  Adverse Drug React Acute Poisoning Rev.1985;4:129-160.Google Scholar
20.
Kopito L, Briley AM, Shwachman H. Chronic plumbism in children.  JAMA.1969;209:243-248.Google Scholar
21.
Castellino N, Castellino P, Sannolo N. Inorganic Lead Exposure: Metabolism and IntoxicationAnn Arbor, Mich: Lewis Publishers; 1995:287-296.
22.
Janin Y, Couinaud C, Stone A, Wise L. The "lead-induced colic" syndrome in lead intoxication.  Surg Annu.1985;17:287-307.Google Scholar
23.
Bassett JS. Correspondence of Andrew JacksonVol 1. Washington, DC: Carnegie Institute of Washington; 1926.
24.
Bumgarner JR. The Health of the Presidents: The 41 United States Presidents Through 1993 From a Physician's Point of ViewJefferson, North Carolina: McFarland & Co; 1994:43-55.
25.
Burke PW. Emily Donelson of Tennessee. Vol 1. Richmond, Va: Garrett & Massie Inc; 1941:64.
26.
Coxe JR. The American Dispensatory4th ed. Philadelphia, Pa: Thomas Dobson & Son; 1818:437.
27.
Paine M. Materia Medica and TherapeuticsNew York, NY: Samuel S & William Wood; 1848:321-322.
28.
Moore MR, Meredith PA, Watson WS.  et al.  The percutaneous absorption of lead-203 in humans from cosmetic preparations containing lead acetate as assessed by whole body counting and other techniques.  Toxicology.1980;18:399-405.Google Scholar
29.
Dillman RO, Crumb CK, Lidsky MJ. Lead poisoning from a gunshot wound: report of a case and review of the literature.  Am J Med.1979;66:509-514.Google Scholar
Brief Report
August 11, 1999

Andrew Jackson's Exposure to Mercury and Lead: Poisoned President?

Author Affiliations

Author Affiliations: Department of Pathology, Northeastern Ohio Universities College of Medicine, Rootstown (Dr Deppisch); Departments of Pathology (Dr Deppisch) and Research (Mr Gemmel), Forum Health, and Department of Health and Human Services, Youngstown State University, Youngstown, Ohio (Mr Gemmel); and Department of Environmental and Toxicologic Pathology, Armed Forces Institute of Pathology, Washington, DC (Dr Centeno and Ms Torres).

JAMA. 1999;282(6):569-571. doi:10.1001/jama.282.6.569
Abstract

Historians have suggested that US president Andrew Jackson (1767-1845) experienced lead and mercury poisoning following his therapeutic use of calomel (mercurous chloride) and sugar of lead (lead acetate). To evaluate these claims, we performed direct physical measurement of 2 samples of Jackson's hair (1 from 1815, 1 from 1839). Following pretreatment and acid digestion, mercury was measured using cold vapor generation techniques, while lead levels were measured by electrothermal atomic absorption spectrophotometry. Mercury levels of 6.0 and 5.6 ppm were obtained from the 1815 and 1839 hair specimens, respectively. Lead levels were significantly elevated in both the 1815 sample (mean lead level, 130.5 ppm) and the 1839 sample (mean lead level, 44 ppm). These results suggest that Jackson had mercury and lead exposure, the latter compatible with symptomatic plumbism in the 1815 sample. However, Jackson's death was probably not due to heavy metal poisoning.

Biographers have concluded that US president Andrew Jackson (1767-1845) experienced mercury and lead poisoning.1-10 Some have even suggested that heavy metal toxicity contributed to Jackson's death.2(p2)3,5,11(pp524-525) His physicians plied him with calomel (mercurous chloride) and sugar of lead (lead acetate) prescriptions from the early 19th-century pharmacopoeia. Jackson also harbored 2 lead bullets, a consequence of his propensity to settle disputes with guns.12(pp142-143,185)

Jackson exhibited many symptoms and signs compatible with mercury poisoning and plumbism, including excessive salivation, rapid tooth loss, colic, diarrhea, pallor, hand tremor, irritability, paranoia, violent mood swings, and probable chronic renal failure. Because these symptoms also might be attributed to other causes, we performed direct physical measurement of samples of Jackson's hair to evaluate whether he had mercury and lead poisoning.

Methods

Following Hermitage Board approval, samples of Jackson's hair from 1815 and 1839 were obtained from the collection of The Hermitage: Home of Andrew Jackson in Nashville, Tenn. Samples were chosen corresponding with periods of either Jackson's use of calomel and sugar of lead or exhibition of symptoms compatible with either lead or mercury poisoning. The Hermitage curatorial staff selected hair samples and forwarded them to the Armed Forces Institute of Pathology, Washington, DC, for analysis.

The 1815 specimen, 5.1 cm (2 in) in length, was contained in a letter stating "Genl. Jackson's hair in 1815." This specimen is temporally related to Jackson's use of calomel and subsequent salivation (sialism) in November 1814. It also postdates the onset of Jackson's cachexia and dysentery during the War of 1812 and bullet wounds received during an 1806 duel and an 1813 gunfight.

The 1839 specimen, 2.5 cm (1 in) in length, was contained in a letter from Andrew J. Donelson to Felix Grundy. The letter stated that "This hair was cut from the head of A. Jackson August 22, 1839 by M.C. Bass." Jackson complained of costiveness (constipation), dysentery, and headaches and continually ingested calomel during the 1830s.

Hair samples (0.5 mg) were rinsed in acetone and soaked for 1 to 2 hours in distilled deionized water and mixed and washed 3 times by ultrasonic cleaning for 1 hour in a solution containing 0.1% Triton TX-100 (Sigma Chemical Co, St Louis, Mo). Analysis of detergent wash revealed no detectable mercury or lead. Detergent was removed by rinsing (5 times) with distilled deionized water, and the specimens were dried in a vacuum oven at 40°C overnight. Each sample was weighed and digested using 2 mL of 70% nitric acid and 1 mL of 30% hydrogen peroxide. Hair samples were placed in polyfluoroethylene vessels and acid digested with a microwave digestion system (MDS 2000, CEM Corporation, Indian Trail, NC) at a controlled pressure (150 psi) and temperature (110°C). Quality controls consisted of a blank reagent sample and a control of digested hair, spiked with atomic absorption standard solutions to yield predetermined concentrations of lead or mercury. Quality controls were subjected to the same digestion procedure as the hair specimens. Recovery of both lead and mercury in the spiked solution was 98% to 105%.

Lead was measured by electrothermal atomic absorption spectrophotometry (Varian Australia Qty Ltd, Mulgrave, Australia) equipped with a Zeeman background corrector and autosampler accessory (Varian Australia Qty Ltd). Digested samples were placed in the autosampler cups and analyzed in duplicate. Electrothermal atomic absorption spectrophotometry was repeated automatically if the percent relative SD between 2 duplications exceeded 4%. As a result, all measured lead levels represent at least duplicate sampling from each individual specimen. The temperature-furnace parameters for electrothermal atomic absorption spectrophotometry analysis consisted of a drying (250°C for 30 seconds), charring (450°C for 20 seconds), atomization (2100°C for 3.1 seconds), and a cleaning (2500°C for 2.8 seconds) temperature. Lead signal was monitored at a wavelength of 283.3 nm and measured using peak area mode with a 5-point standard calibration curve. A 0.4% ammonium dihydrogen phosphate (NH4H2PO4) solution was used as the chemical modifier to reduce the formation of chemical interferences during the electrothermal process. The detection limit was determined to be 1 ppb from 20 consecutive measurements of a blank solution.

Mercury was measured with a dedicated mercury analyzer (CETAC M-6000A Analyzer, Cetac Technologies Inc, Omaha, Neb). The instrument was operated at a wavelength of 254 nm. The detection limit was 0.05 ppb of mercury and determined by 2 times the SD from 10 consecutive measurements of blank and spiked-hair samples. Certified standard reference materials from the National Institute of Standards and Technology were used as quality controls. The recovery of mercury was −98% to 100% for the standard reference materials. In the spiked-hair samples, the recovery was 100%. All measurements were correlated with qualitative measurements obtained with energy-dispersive x-ray microanalysis.

Results

Results of duplicate determinations of Jackson's hair for mercury and lead are shown in Table 1. Insufficient material for mercury analysis aborted initial testing of the 1839 hair sample; however, the duplicate sample provided sufficient material for analysis. Normal ranges for mercury and lead also appear in Table 1.

Significantly elevated mercury levels of 6.0 and 5.6 ppm were obtained from the 1815 and 1839 hair specimens, respectively. These levels were consistent with mercury levels reported among Japanese dentists exposed to dental amalgam and a variety of populations consuming contaminated fish.15-17 These levels are also similar to hair mercury levels reported for the poet Robert Burns.18 However, neither sample affords proof of systemic mercurialism. Individuals with symptomatic mercury poisoning have evinced hair mercury levels of 125 to 649 ppm.15 Hair concentrations higher than 150 ppm have been associated with toxic levels.19

Hair lead levels were significantly elevated in the 1815 and 1839 samples (Table 1). The 1815 measurements were elevated by both 19th-century and contemporary standards.13,14,17 Jackson's 1815 hair lead levels were similar to results observed among Singaporean battery workers with elevated blood lead levels and mild symptoms of lead poisoning.15,20,21

The 1839 hair lead measurement, although significantly lower than the 1815 level, still indicated lead exposure. However, it was below levels expected in patients with symptomatic plumbism.

Comment

Chronic systemic mercurialism secondary to calomel use was not a major factor in Jackson's declining health and death. Given the low levels of mercury measured in the hair samples, Jackson's calomel use was probably an insignificant factor in either his renal or his neuropsychiatric symptoms, despite massive inorganic mercury ingestion. Mercurous ion is poorly absorbed from the gastrointestinal tract. Conversion to the more soluble mercuric ion is required before intestinal absorption is possible. Mercury ion in the form of the inorganic salt mercuric chloride is relatively unabsorbable compared with metallic mercury or mercury vapors. Causes other than mercury should be identified as the source of Jackson's most severe complaints. Suggestions that he was slowly poisoned with calomel are unfounded.

Mercurous chloride does, however, have direct corrosive effects upon the oropharyngeal and gastrointestinal mucosa, so that it provokes clinical effects without being absorbed or systemically disseminated.19 Excessive salivation is a predictable result of calomel ingestion and was used as an indicator of a therapeutic dose during the 18th and 19th centuries. Jackson was familiar with this effect: he mentioned dosing with ". . . calomel which salivated me."12(p245)

Jackson began to develop rapid progressive dental caries in 1824 and by 1828 all his teeth had been extracted. Many biographers ascribe Jackson's dental problems in part to his overuse of calomel.2,4 Both Jackson's biographers and his own correspondence document recurrent abdominal colic, dysentery, and severe diarrhea,1-10 symptoms consistent with calomel use.

The analysis results of the 1815 hair sample are suggestive of plumbism. Lead's effects are multisystemic, including central nervous system dysfunction, motor weakness, inhibited heme synthesis, and intestinal disorders.22 Clinical evidence for lead poisoning is most compelling for Jackson's intestinal complaints. His letters contain many graphic references to postprandial intense cramping abdominal pain associated with "costiveness," Jackson's term for constipation. He also wrote of bilious colic, a group of symptoms including nausea, severe abdominal discomfort, griping, headache, and constipation attributed to an imbalance in bile humors, all consistent with lead colic.

Although there is no convincing evidence that Jackson developed peripheral neuropathy from lead exposure, several references suggest this possibility. In numerous letters, Jackson expressed concern that his handwriting might be illegible due to "rheumatism in my right wrist."23(p220) His aide-de-camp, T. L. Butler, signed Jackson's name for him when he could not sign his own correspondence.23(p65) Dr May, prior to the Battle of New Orleans, described a paralytic rheumatism that so disabled Jackson he could barely scrawl his reports.24 Emily Donelson wrote her mother in 1829 that "Uncle . . . complains of pains in the limbs, particularly in his right hand."25

One possible source of lead poisoning was Jackson's ingestion of sugar of lead as a therapeutic agent. Sugar of lead was a traditional remedy, widely used during the Jacksonian era for a variety of purposes, including the control of bleeding and as a remedy for diarrhea.26,27 Although many writers have commented on Jackson's bath in sugar of lead, administered by Dr May, and Jackson's use of sugar of lead as an eyewash, transdermal and transophthalmic absorption of sugar of lead would not have resulted in a significant exposure.28

More likely candidates as the source of plumbism are the bullets retained in Jackson's left lung and left shoulder. Lead poisoning subsequent to lead missile injury is related to the surface area of the missile (the greater the surface area, the greater the absorption), the location of the bullet, the presence of synovial fluid, and the length of time the bullet resides in the body.29 The 1813 bullet wound shattered the left shoulder and contact with synovial fluid in joint space is highly likely.1(p393) Bony sequestrum, implying osteomyelitis, was sloughed from this wound in 1814 and presented as a memento to Jackson's wife.

The variation in Jackson's hair lead levels over time implies a decline in exposure. Dr Thomas Harris removed the left shoulder bullet in 1832. The bullet was described as flattened by contusion on bone and hackled on the edge. Jackson reported improved health following the procedure. The decline in lead levels may also be attributable to Jackson's recognition of lead's adverse health effects, which led him to discontinue use of the therapeutic agent. In 1836, Jackson described sugar of lead as ". . . that potent but pernicious remedy to the stomach. . . ."23(p439) Lead exposure and its effects diminished in significance as factors in either Jackson's declining health or death.

We suspect that Jackson probably died of chronic renal failure. He first noted the onset of ankle edema in 1829, which progressed to massive anasarca at the time of his death 16 years later. At the end, Jackson was "perfect jelly from the toes to the upper part of my abdomen, in any part of which a finger can be pressed half an inch and the print will remain for minutes."2(pp117,118)

References
1.
Parton J. Life of Andrew Jackson in Three VolumesNew York, NY: Mason Brothers; 1860.
2.
Remini RV. Andrew Jackson and the Course of the American Freedom, 1822-32New York, NY: Harper & Row; 1981.
3.
Caravati CM. President Andrew Jackson: despite infirmities, a strong leader.  Va Med Q.1983;110:194-195Google Scholar
4.
Gardner FT. The gentleman from Tennessee.  Surg Gynecol Obstet.1949;30:404-411.Google Scholar
5.
Marx R. The Health of the PresidentsNew York, NY: GP Putnam; 1960.
6.
Rosenberg JC. A study of Andrew Jackson's wounds and illnesses.  Am J Surg.1969;117:721-725.Google Scholar
7.
Blinderman A. Andrew Jackson: the president who would not die conveniently.  N Y State J Med.1972;72:405-412.Google Scholar
8.
Remini RV. The final days and hours in the life of General Andrew Jackson.  Tennessee Historical Quarterly.1980;39:167-177.Google Scholar
9.
Dale PM. Medical Biographies: The Ailments of Thirty-three Famous PersonsNorman: University of Oklahoma Press: 1952;136-150.
10.
Fritz M. Jackson: A Medical History [master's thesis]. Toledo, Ohio: University of Toledo; 1985.
11.
Remini RV. Andrew Jackson and the Course of American Democracy, 1833-1845Vol 3. New York, NY: Harper & Row; 1984.
12.
Remini RV. Andrew Jackson and the Course of American Empire. 1767-1821. Vol 1. New York, NY: Harper & Row; 1977.
13.
Weiss D, Whitten B, Leddy D. Lead content of human hair (1871-1971).  Science.1972;178:69-70.Google Scholar
14.
Suzuki T, Hongo T, Morita M, Yamamoto R. Elemental contamination of Japanese women's hair from historical samples.  Sci Total Environ.1984;39:81-91.Google Scholar
15.
Foo SC, Khoo NY, Heng A.  et al.  Metals in hair as biological indices for exposure.  Int Arch Occup Environ Health.1993;65(suppl 1):583-586.Google Scholar
16.
Katz SA, Katz RB. Use of hair analysis for evaluating mercury intoxication of the human body: a review.  J Appl Toxicol.1992;12:79-84.Google Scholar
17.
Iyengar V, Woittiez J. Trace elements in human clinical specimens.  Clin Chem.1988;34:474-481.Google Scholar
18.
Lenihan JM, Leslie AC, Smith H. Mercury in the hair of Robert Burns.  Lancet.1971;2:1030.Google Scholar
19.
Winship KA. Toxicity of mercury and its inorganic salts.  Adverse Drug React Acute Poisoning Rev.1985;4:129-160.Google Scholar
20.
Kopito L, Briley AM, Shwachman H. Chronic plumbism in children.  JAMA.1969;209:243-248.Google Scholar
21.
Castellino N, Castellino P, Sannolo N. Inorganic Lead Exposure: Metabolism and IntoxicationAnn Arbor, Mich: Lewis Publishers; 1995:287-296.
22.
Janin Y, Couinaud C, Stone A, Wise L. The "lead-induced colic" syndrome in lead intoxication.  Surg Annu.1985;17:287-307.Google Scholar
23.
Bassett JS. Correspondence of Andrew JacksonVol 1. Washington, DC: Carnegie Institute of Washington; 1926.
24.
Bumgarner JR. The Health of the Presidents: The 41 United States Presidents Through 1993 From a Physician's Point of ViewJefferson, North Carolina: McFarland & Co; 1994:43-55.
25.
Burke PW. Emily Donelson of Tennessee. Vol 1. Richmond, Va: Garrett & Massie Inc; 1941:64.
26.
Coxe JR. The American Dispensatory4th ed. Philadelphia, Pa: Thomas Dobson & Son; 1818:437.
27.
Paine M. Materia Medica and TherapeuticsNew York, NY: Samuel S & William Wood; 1848:321-322.
28.
Moore MR, Meredith PA, Watson WS.  et al.  The percutaneous absorption of lead-203 in humans from cosmetic preparations containing lead acetate as assessed by whole body counting and other techniques.  Toxicology.1980;18:399-405.Google Scholar
29.
Dillman RO, Crumb CK, Lidsky MJ. Lead poisoning from a gunshot wound: report of a case and review of the literature.  Am J Med.1979;66:509-514.Google Scholar
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