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Should Scientists Battle Poachers by Keeping Animal Locations Secret?

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You can find just about anything through a quick internet search—and it turns out that’s true even for poachers. Wild animal hunters are now using online scientific literature to locate rare and new species. That, two scientists warn in a recent essay, could create serious problems.

Easily accessible online data can help rare and endangered species, providing scientific evidence to support the need for measures to protect them. Accessibility also fosters better replication of scientific studies and greater collaboration among researchers. But "Do not publish," a recent essay in Science, argues that data also helps those with more nefarious intentions.

Essay co-author David Lindenmayer, a researcher at the Australian National University, spells out three potential problems with unrestricted access to information on rare and endangered species: surges in poaching; disruption of relationships between researchers and owners of land where studied species are found; and increased habitat disturbance and destruction.

Scientists have documented poaching within months of publishing taxonomic descriptions of new species. Lindenmayer tells Mental Floss that when authorities caught poachers shipping one of Australia’s rarest parrots out of the country in an industrial cooler, the container included copies of scientific papers citing the bird’s location. He also reports targeting of more than 20 newly described reptiles in this way, and an IUCN Red List assessment identified at least 355 reptile species intentionally targeted by collectors. Heavy hunting of an Indonesian turtle following its description in the scientific literature left the animal nearly extinct in the wild.

In fact, Lindenmayer says, if you search for some of these species online, the results will include some sites that claim to sell them.

So-called Lazarus species—those that reappear after having been thought extinct—require especially careful consideration regarding publicity. Scientists found evidence of a population of Sumatran rhinos, thought extinct for some 25 years, in Kalimantan on the island of Borneo in 2013. A later sighting received extensive publicity. Because poaching for rhino horn remains so popular, scientists argued in Biological Conservation that the Kalimantan rhinos survived precisely because few knew about them. The paper states that when publicity "increases the risk significantly relatively to benefits," secrecy should be favored.

Lindenmayer and co-author Ben Scheele also cite personal experience of strained relationships with landowners. The researchers discovered new populations of endangered, pink-tailed worm-lizards. Soon after they uploaded location information to open-access government wildlife atlases, a requirement of research permits, landowners began to complain about trespassers seeking the rare creatures. Those would-be collectors jeopardized relationships that took years to establish.

The trespassers also damaged important worm-lizard habitat. Habitat damage can happen even when people aren't trying to collect animals or plants but simply trying to see or photograph them. A paper in Animal Conservation reports that people frequently displace rocks while searching for snakes and lizards in southeastern Australia. The endangered broad-headed snake and its prey, velvet geckos, shelter in narrow crevices beneath sun-warmed rocks, but researchers rarely found either animal under rocks that people had displaced. The paper concluded that even minor displacement of overlying rocks modifies critical attributes of the crevices—and thus reduces habitat quality for the endangered species.

One potential downside of not sharing data could occur during environmental assessments for new development, Lindenmayer says. Species can't be protected if no one knows they're there.

Fortunately, there are ways to share data with those who need it without making it completely public. Consider how Charlotte Reemts, a research and monitoring ecologist with The Nature Conservancy, approached the publication of her research on the small, endangered star cactus, which is found in only a few South Texas counties. "When I wrote up my research, I purposefully left the location very vague," she tells Mental Floss. "I didn’t put in any maps or give the landowner’s name in the acknowledgements."

Databases such as those kept by the Texas Parks and Wildlife Department have mechanisms in place to not make locations public in certain situations, Reemts says.

"There is a difference between having scientific information that is not shared publicly, and keeping it from everyone," Joe Fargione, The Nature Conservancy’s science director for North America, tells Mental Floss. "Having a system to share data with qualified researchers allows the scientific community to have the benefit of that new knowledge, without exposing a species to additional risk from poachers."

It's not an unprecedented approach. "Other disciplines have tackled this problem well," Lindenmayer says, noting that archaeologists and paleontologists hold back data to protect important sites and fossil deposits from looters.

In Fargione’s opinion, the trick is to "treat data as sensitive as opposed to secret." He stresses, "Overharvesting of a species can significantly increase risk of extinction, and extinction is forever. So it makes sense not to do anything that would increase that irreversible risk."

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15 Subatomic Word Origins
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In July 2017, researchers at the European Organization for Nuclear Research (CERN) found evidence for a new fundamental particle of the universe: Ξcc++, a special kind of Xi baryon that may help scientists better understand how quarks are held together. Is that Greek to you? Well, it should be. The names for many of the particles that make up the universe—as well as a few that are still purely theoretical—come from ancient Greek. Here’s a look at 15 subatomic etymologies.

1. ION

An ion is any atom or molecule with an overall electric charge. English polymath William Whewell suggested the name in an 1834 letter to Michael Faraday, who made major discoveries in electromagnetism. Whewell based ion on the ancient Greek verb for “go” (ienai), as ions move towards opposite charges. Faraday and Whewell had previously considered zetode and stechion.

2. ELECTRON

George Stoney, an Anglo-Irish physicist, introduced the term electron in 1891 as a word for the fundamental unit of charge carried by an ion. It was later applied to the negative, nucleus-orbiting particle discovered by J. J. Thomson in 1897. Electron nabs the -on from ion, kicking off the convention of using -on as an ending for all particles, and fuses it with electric. Electric, in turn, comes from the Greek for “amber,” in which the property was first observed. Earlier in the 19th century, electron was the name for an alloy of gold and silver.

3. PROTON

The electron’s counterpart, the positively charged proton in the nuclei of all atoms, was named by its discoverer, Ernest Rutherford. He suggested either prouton or proton in honor of William Prout, a 19th-century chemist. Prout speculated that hydrogen was a part of all other elements and called its atom protyle, a Greek coinage joining protos ("first") and hule ("timber" or "material") [PDF]. Though the word had been previously used in biology and astronomy, the scientific community went with proton.

4. NEUTRON

Joining the proton in the nucleus is the neutron, which is neither positive nor negative: It’s neutral, from the Latin neuter, “neither.” Rutherford used neutron in 1921 when he hypothesized the particle, which James Chadwick didn’t confirm until 1932. American chemist William Harkins independently used neutron in 1921 for a hydrogen atom and a proton-electron pair. Harkins’s latter application calls up the oldest instance of neutron, William Sutherland’s 1899 name for a hypothetical combination of a hydrogen nucleus and an electron.

5. QUARK

Protons and neutrons are composed of yet tinier particles called quarks. For their distinctive name, American physicist Murray Gell-Mann was inspired in 1963 by a line from James Joyce’s Finnegan’s Wake: “Three quarks for Muster Mark.” Originally, Gell-Mann thought there were three types of quarks. We now know, though, there are six, which go by names that are just as colorful: up, down, charm, strange, top, and bottom.

6. MESON

Made up of a quark and an antiquark, which has identical mass but opposite charge, the meson is a short-lived particle whose mass is between that of a proton and an electron. Due to this intermediate size, the meson is named for the ancient Greek mesos, “middle.” Indian physicist Homi Bhabha suggested meson in 1939 instead of its original name, mesotron: “It is felt that the ‘tr’ in this word is redundant, since it does not belong to the Greek root ‘meso’ for middle; the ‘tr’ in neutron and electron belong, of course, to the roots ‘neutr’ and ‘electra’.”

7., 8., AND 9. BOSON, PHOTON, AND GLUON

Mesons are a kind of boson, named by English physicist Paul Dirac in 1947 for another Indian physicist, Satyendra Nath Bose, who first theorized them. Bosons demonstrate a particular type of spin, or intrinsic angular momentum, and carry fundamental forces. The photon (1926, from the ancient Greek for “light”) carries the electromagnetic force, for instance, while the gluon carries the so-called strong force. The strong force holds quarks together, acting like a glue, hence gluon.

10. HADRON

In 2012, CERN’s Large Hadron Collider (LHC) discovered a very important kind of boson: the Higgs boson, which generates mass. The hadrons the LHC smashes together at super-high speeds refer to a class of particles, including mesons, that are held together by the strong force. Russian physicist Lev Okun alluded to this strength by naming the particles after the ancient Greek hadros, “large” or “bulky,” in 1962.

11. LEPTON

Hadrons are opposite, in both makeup and etymology, to leptons. These have extremely tiny masses and don’t interact via the strong force, hence their root in the ancient Greek leptos, “small” or “slender.” The name was first suggested by the Danish chemist Christian Møller and Dutch-American physicist Abraham Pais in the late 1940s. Electrons are classified as leptons.

12. BARYON

Another subtype of hadron is the baryon, which also bears the stamp of Abraham Pais. Baryons, which include the more familiar protons and neutrons, are far more massive, relatively speaking, than the likes of leptons. On account of their mass, Pais put forth the name baryon in 1953, based on the ancient Greek barys, “heavy” [PDF].

13. AXION

Quirky Murray Gell-Mann isn't the only brain with a sense of humor. In his 2004 Nobel Prize lecture, American physicist Frank Wilczek said he named a “very light, very weakly interacting” hypothetical particle the axion back in 1978 “after a laundry detergent [brand], since they clean up a problem with an axial current” [PDF].

14. TACHYON

In ancient Greek, takhys meant “swift,” a fitting name for the tachyon, which American physicist Gerald Feinberg concocted in 1967 for a hypothetical particle that can travel faster than the speed of light. Not so fast, though, say most physicists, as the tachyon would break the fundamental laws of physics as we know them.

15. CHAMELEON

In 2003, the American physicist Justin Khoury and South African-American theoretical physicist Amanda Weltman hypothesized that the elusive dark energy may come in the form of a particle, which they cleverly called the chameleon. Just as chameleons can change color to suit their surroundings, so the physical characteristics of the chameleon particle change “depending on its environment,” explains Symmetry, the online magazine dedicated to particle physics. Chameleon itself derives from the ancient Greek khamaileon, literally “on-the-ground lion.”

For more particle names, see Symmetry’s “A Brief Etymology of Particle Physics,” which helped provide some of the information in this list.

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Space
Look Up! The Orionid Meteor Shower Peaks This Weekend
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October is always a great month for skywatching. If you missed the Draconids, the first meteor shower of the month, don't despair: the Orionids peak this weekend. It should be an especially stunning show this year, as the Moon will offer virtually no interference. If you've ever wanted to get into skywatching, this is your chance.

The Orionids is the second of two meteor showers caused by the debris field left by the comet Halley. (The other is the Eta Aquarids, which appear in May.) The showers are named for the constellation Orion, from which they seem to originate.

All the stars are lining up (so to speak) for this show. First, it's on the weekend, which means you can stay up late without feeling the burn at work the next day. Tonight, October 20, you'll be able to spot many meteors, and the shower peaks just after midnight tomorrow, October 21, leading into Sunday morning. Make a late-night picnic of the occasion, because it takes about an hour for your eyes to adjust to the darkness. Bring a blanket and a bottle of wine, lay out and take in the open skies, and let nature do the rest.

Second, the Moon, which was new only yesterday, is but a sliver in the evening sky, lacking the wattage to wash out the sky or conceal the faintest of meteors. If your skies are clear and light pollution low, this year you should be able to catch about 20 meteors an hour, which isn't a bad way to spend a date night.

If clouds interfere with your Orionids experience, don't fret. There will be two more meteor showers in November and the greatest of them all in December: the Geminids.

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