6 Great Scientists Who Were Born on Christmas Day

Wikimedia Commons // Public Domain
Wikimedia Commons // Public Domain

From the man who discovered titanium to a prehistoric plant expert, these Christmas kids helped us better understand the natural world and our place within it.

1. JOHN PHILLIPS (1800-1874)

John Phillips was born on December 25, 1800. In 1808, when he was just 7, he lost both of his parents in quick succession and was taken in by his uncle William Smith, a surveyor and fossil hunter known as the “Father of English Geology.” Later in life, Phillips also became a great geologist, and in the 1840s, he drew upon his uncle’s work to identify and name three significant eras in Earth’s history: the Paleozoic, Mesozoic, and Cenozoic. He also authored several papers on the subject of astronomy.

2. WILLIAM GREGOR (1761-1817)

A British chemist, mineralogist, painter, clergyman, and Christmas kid, William Gregor is primarily remembered as the man who discovered titanium. He first came across a sample of this element on the sandy banks of a stream that ran near the Cornish village of Manaccan (also spelled Menaccan) in 1790. The following year, Gregor wrote a paper about the newfound metal, and in honor of its place of origin, he proposed calling the element either menacanite or menachine. Ultimately, though, the German chemist Martin Klaproth independently discovered titanium in 1796, and this was the name that stuck [PDF].

3. RICHARD E. SHOPE (1901-1966)


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In 1918 and 1919, an influenza pandemic killed between 20 and 50 million people worldwide; in the United States, 28 percent of all citizens came down with the disease, which claimed 10 times as many American lives as World War I. Meanwhile, pigs in the Midwestern U.S. were dying of a similar illness.

Richard E. Shope, a pathologist employed by the Rockefeller Institute for Medical Research, suspected the two outbreaks were related. So in 1928, Shope visited Iowa—where he had been born on Christmas Day in 1901—to investigate a possible link between the two illnesses.

At the time, scientists believed that influenza was caused by a bacteria of some kind—so when he arrived in Iowa, Shope began searching infected swine for microscopic suspects. He managed to identify a bacteria species that was present in most of the runny-nosed pigs he examined. However, when he injected this one-celled organism into healthy pigs, they failed to contract the disease.

Starting again, Shope looked for other potential disease-carriers within the sick pigs’ mucus. In 1931, he filtered the samples to remove any bacteria and introduced this new filtrate to some non-infected swine. Soon, the control pigs came down with a mild case of porcine influenza, proving that the flu was caused by a “filter-passing agent”—in this case, a virus. When Shope combined the virus with the bacteria, the test animals came down with more severe symptoms. Encouraged by his results, American and British scientists conducted a series of tests, which showed that human and pig influenza were indeed close relatives. Building off of Shope’s research, a British team went on to isolate the human influenza virus for the very first time in 1933. If it hadn’t been for this breakthrough, flu vaccines might not exist today.

4. GERHARD HERZBERG (1904-1999)

Spectroscopy is a technique that allows scientists to study the interactions between matter and electromagnetic radiation. By most accounts, Gerhard Herzberg literally wrote the book on this subject: His classic three-volume textbook titled Molecular Spectra and Molecular Structure has been nicknamed “the spectroscopist’s bible” [PDF].

Herzberg came into the world on December 25, 1904 in Hamburg, Germany. His passion for science blossomed at an early age: As a boy, he could often be found reading up on chemistry and astronomy in his spare time. By the time Herzberg turned 25, he’d earned a Ph.D. in engineering physics and gotten 12 scientific papers published. In the mid-1930s, the rise of Nazism drove Herzberg and his Jewish wife—fellow spectroscopist Lusie Oettinger—out of their native Germany. They relocated to Canada, which Herzberg would call home for the better part of seven decades. Over time, several different fields—including astronomy and chemistry—would benefit from his command of spectroscopy. Using the process, Herzberg was able to detect hydrogen gas molecules in Uranus and Neptune’s atmospheres in 1952. Spectroscopy also helped the scientist shed some new light on free radicals (atoms or groups of atoms with an odd number of electrons). Herzberg’s incredible body of work earned him the Nobel Prize for chemistry in 1971.

5. INNA A. DOBRUSKINA (1933-2014)

Paleobotanist Inna Dobruskina was arguably the world’s leading authority on plant life during the Triassic period, which occurred between 252 and 201 million years ago. She was born in one of Moscow’s “communal apartments” on December 25, 1933. As an adult, she taught at the Geological Institute of the Soviet Academy of Sciences—and risked incarceration by secretly distributing anti-Communist pamphlets for several years. In 1989, she emigrated to Israel, where she became a faculty member at the Hebrew University of Jerusalem. Her life’s work took her around the world; by the time Drobuskina passed away in 2014, she’d prospected Triassic deposits in such countries as China, France, Austria, South Africa, Russia, and the United States [PDF].

During her days in the U.S.S.R., Dobruskina was often confronted with workplace sexism. On one Sino-Soviet expedition along the Amur River, her male subordinates dared her to imbibe a shot of undiluted alcohol. Determined to put them all in their place, Dobruskina gulped down enough to fill an entire 250-milliliter glass (a shot is just 44 milliliters). Afterwards, the men on that team never tried to challenge her again.

6. ADOLF WINDAUS (1876-1959)

Another Nobel laureate who happened to have been born on Christmas Day, this Berlin native took home the 1928 Nobel Prize for chemistry. The award was granted to Windaus in recognition of the lifetime’s worth of research he’d conducted on sterols, a class of organic compounds that includes cholesterol. Windaus’s interest in this topic began shortly after he earned a Ph.D. in chemistry from the University of Freiburg. At the time, little was known about sterols, and the scientist dedicated his career to plugging the gaps in our understanding of them. Through careful research, Windaus would discover that these compounds are closely akin to bile acids. He also learned that a fungal sterol called ergosterol can be utilized to cure rickets. Furthermore, it was Windaus who first determined the chemical composition of Vitamin D.

BONUS: ISAAC NEWTON (1642/43-1726/27)


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If you could somehow resurrect Isaac Newton for an interview, he’d tell you that he was born on December 25, 1642—but modern historians cite January 4, 1643 as his actual birthday.

Confused? Take it up with Julius Caesar. In 45 BCE, the Roman dictator implemented a standardized, 365-day calendar (with leap years every four years, eventually) we now call the “Julian calendar.” Unfortunately, it relied on astronomical calculations that overestimated the time it takes the Earth to complete one full rotation around the sun by 11 minutes and 14 seconds. As the centuries passed, those extra minutes and seconds added up; by the mid-1500s, the Julian calendar had fallen about 10 days out of sync with the planet’s rotation. Clearly, something had to be done. So in 1582 CE, Pope Gregory XIII mandated a new calendar. Dubbed the “Gregorian calendar,” it was designed to facilitate some much-needed leap year reform (among other things). The Pope also erased the synchronization problem that the Julian Calendar had created by eliminating 10 full days from 1582. So Thursday, October 4 of that year was immediately followed by Friday, October 15.

But while Roman Catholic countries like France and Spain adopted the Gregorian calendar right away, Great Britain—Newton’s birthplace—didn’t follow suit until 1752. When the UK and its colonies finally implemented this calendar, they did so by striking 11 days from existence, doing away with September 3 through September 13. At the time, Ben Franklin is said to have remarked, “It is pleasant for an old man to go to sleep on September 2 and not have to wake up until September 14.”

By then, Isaac Newton had been dead for years. According to the Julian Calendar, he was born in 1642 and died in 1726. However, for consistency’s sake, historians have retroactively adjusted all pre-1752 years to conform to the Gregorian calendar—so today’s scholars cite January 4, 1643 as Newton’s birthday and March 31, 1727 as his death day (another part of the reform was to move when the New Year was celebrated, meaning Newton died before the new year under the Julian Calendar, but after under Gregorian). So there you have it: Arguably the greatest scientist in history both is and isn’t a Christmas baby.

Alcohol-Producing Gut Bacteria May Harm Livers—Even if You Don't Drink

itakdalee/iStock via Getty Images
itakdalee/iStock via Getty Images

Teetotalers might think their liver is safe from the damaging effects of alcohol consumption, but new research is hinting that even non-drinkers and light drinkers might have cause for concern. It turns out a type of gut bacteria is capable of producing alcohol—and enough of it to potentially cause some pretty serious health consequences, including liver disease.

A study led by Jing Yuan at the Capital Institute of Pediatrics in Beijing, China and published in the journal Cell Metabolism offers details. After evaluating a patient with auto-brewery syndrome (ABS), a rare condition brought on by consumption and fermentation of sugary foods that leaves a person with high blood alcohol levels, researchers made an intriguing discovery. Rather than finding fermenting yeast that may have led to the condition, the patient’s stool contained Klebsiella pneumonia, a common gut bacteria capable of producing alcohol. In this subject, K. pneumonia was producing significantly more alcohol than in healthy patients.

The patient also had nonalcoholic fatty liver disease (NAFLD), characterized by fatty deposits in the liver. While many cases of NAFLD are relatively benign, too much fat can become toxic. Examining 43 other subjects with NAFLD, scientists found that that K. pneumonia was both present and potent, pumping out more alcohol than normal in 60 percent of participants with NAFLD. In the control group, a surplus was found in only 6.25 percent.

To further observe a correlation, scientists fed the bacteria to healthy, germ-free mice, who began to see an increase in fat in their livers after only one month. While not conclusive proof that the bacteria prompts NAFLD, it will likely trigger additional research in humans.

It’s not yet known how K. pneumonia acts in concert with the bacterial profile of the gut or what might make someone carrying stronger strains of the bacteria. Luckily, K. pneumonia can be treated with antibiotics. That’s good news for people who might never touch a drink and still find themselves with a damaged liver.

[h/t Live Science]

5 Hilarious Discoveries from the 2019 Ig Nobel Prize Winners

andriano_cz/iStock via Getty Images
andriano_cz/iStock via Getty Images

Each September, the Ig Nobel Prizes (a play on the word ignoble) are given out to scientists who have wowed the world with their eccentric, imaginative achievements. Though the experiments are usually scientifically sound and the results are sometimes truly illuminating, that doesn’t make them any less hilarious. From postal workers’ scrotal temperatures to cube-shaped poop, here are our top five takeaways from this year’s award-winning studies.

1. Left and right scrota often differ in temperature, whether you’re naked or not.

Roger Mieusset and Bourras Bengoudifa were awarded the anatomy prize for testing the scrotum temperatures in clothed and naked men in various positions. They found that in some postal workers, bus drivers, and other clothed civilians, the left scrotum is warmer than the right, while in some naked civilians, the opposite is true. They suggest that this discrepancy may contribute to asymmetry in the shape and size of male external genitalia.

2. 5-year-old children produce about half a liter of saliva per day.

Shigeru Watanabe and his team nabbed the chemistry prize for tracking the eating and sleeping habits of 15 boys and 15 girls to discover that, regardless of gender, they each produce about 500 milliliters of spit per day. Children have lower salivary flow rates than adults, and they also sleep longer (we produce virtually no saliva when we sleep), so it seems like they may generate much less saliva than adults. However, since children also spend more time eating than adults (when the most saliva is produced), the average daily levels are about even—at least, according to one of Watanabe’s previous studies on adult saliva.

3. Scratching an ankle itch feels even better than scratching other itches.

Ghada A. bin Saif, A.D.P. Papoiu, and their colleagues used cowhage (a plant known to make people itchy) to induce itches on the forearms, ankles, and backs of 18 participants, whom they then asked to rate both the intensity of the itch and the pleasure derived from scratching it. Subjects felt ankle and back itches more intensely than those on their forearms, and they also rated ankle and back scratches higher on the pleasure scale. While pleasure levels dropped off for back and forearm itches as they were scratched, the same wasn’t true for ankle itches—participants still rated pleasurability higher even while the itchy feeling subsided. Perhaps because there’s no peace quite like that of scratching a good itch, the scientists won the Ig Nobel peace prize for their work.

4. Elastic intestines help wombats create their famous cubed poop.

In the final 8 percent of a wombat’s intestine, feces transform from a liquid-like state into a series of small, solid cubes. Patricia Yang, David Hu, and their team inflated the intestines of two dead wombats with long balloons to discover that this formation is caused by the elastic quality of the intestinal wall, which stretches at certain angles to form cubes. For solving the mystery, Yang and Hu took home the physics award for the second time—they also won in 2015 for testing the theory that all mammals can empty their bladders in about 21 seconds.

5. Romanian money grows bacteria better than other money.

Habip Gedik and father-and-son pair Timothy and Andreas Voss earned the economics prize by growing drug-resistant bacteria on the euro, U.S. dollar, Canadian dollar, Croatian luna, Romanian leu, Moroccan dirham, and Indian rupee. The Romanian leu was the only one to yield all three types of bacteria tested—Staphylococcus aureus, Escherichia coli, and Vancomycin-resistant Enterococci. The Croatian luna produced none, and the other banknotes each produced one. The results suggest that the Romanian leu was most susceptible to bacteria growth because it was the only banknote in the experiment made from polymers rather than textile-based fibers.

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