How Can We Know What is True? And What Is BS? Tips from Carl Sagan, Richard Feynman & Michael Shermer

Sci­ence denial­ism may be a deeply entrenched and enor­mous­ly dam­ag­ing polit­i­cal phe­nom­e­non. But it is not a whol­ly prac­ti­cal one, or we would see many more peo­ple aban­don med­ical sci­ence, air trav­el, com­put­er tech­nol­o­gy, etc. Most of us tac­it­ly agree that we know cer­tain truths about the world—gravitational force, nav­i­ga­tion­al tech­nol­o­gy, the germ the­o­ry of dis­ease, for exam­ple. How do we acquire such knowl­edge, and how do we use the same method to test and eval­u­ate the many new claims we’re bom­bard­ed with dai­ly?

The prob­lem, many pro­fes­sion­al skep­tics would say, is that we’re large­ly unaware of the epis­temic cri­te­ria for our think­ing. We believe some ideas and doubt oth­ers for a host of rea­sons, many of them hav­ing noth­ing to do with stan­dards of rea­son and evi­dence sci­en­tists strive towards. Many pro­fes­sion­al skep­tics even have the humil­i­ty to admit that skep­tics can be as prone to irra­tional­i­ty and cog­ni­tive bias­es as any­one else.

Carl Sagan had a good deal of patience with unrea­son, at least in his writ­ing and tele­vi­sion work, which exhibits so much rhetor­i­cal bril­liance and depth of feel­ing that he might have been a poet in anoth­er life. His style and per­son­al­i­ty made him a very effec­tive sci­ence com­mu­ni­ca­tor. But what he called his “Baloney Detec­tion Kit,” a set of “tools for skep­ti­cal think­ing,” is not at all unique to him. Sagan’s prin­ci­ples agree with those of all pro­po­nents of log­ic and the sci­en­tif­ic method. You can read just a few of his pre­scrip­tions below, and a full unabridged list here.

Wher­ev­er pos­si­ble there must be inde­pen­dent con­fir­ma­tion of the “facts.”

Encour­age sub­stan­tive debate on the evi­dence by knowl­edge­able pro­po­nents of all points of view.

Argu­ments from author­i­ty car­ry lit­tle weight — “author­i­ties” have made mis­takes in the past. They will do so again in the future. Per­haps a bet­ter way to say it is that in sci­ence there are no author­i­ties; at most, there are experts.

Spin more than one hypoth­e­sis. If there’s some­thing to be explained, think of all the dif­fer­ent ways in which it could be explained. Then think of tests by which you might sys­tem­at­i­cal­ly dis­prove each of the alter­na­tives.

Try not to get over­ly attached to a hypoth­e­sis just because it’s yours. It’s only a way sta­tion in the pur­suit of knowl­edge. Ask your­self why you like the idea. Com­pare it fair­ly with the alter­na­tives. See if you can find rea­sons for reject­ing it. If you don’t, oth­ers will.

Anoth­er skep­tic, founder and edi­tor of Skep­tic mag­a­zine Michael Sher­mer, sur­rounds his epis­te­mol­o­gy with a sym­pa­thet­ic neu­ro­science frame. We’re all prone to “believ­ing weird things,” as he puts it in his book Why Peo­ple Believe Weird Things and his short video above, where he intro­duces, fol­low­ing Sagan, his own “Baloney Detec­tion Kit.” The human brain, he explains, evolved to see pat­terns every­where as a mat­ter of sur­vival. All of our brains do it, and we all get a lot of false pos­i­tives.

Many of those false pos­i­tives become wide­spread cul­tur­al beliefs. Sher­mer him­self has been accused of insen­si­tive cul­tur­al bias (evi­dent in the begin­ning of his video), intel­lec­tu­al arro­gance, and worse. But he admits up front that sci­en­tif­ic think­ing should tran­scend indi­vid­ual per­son­al­i­ties, includ­ing his own. “You shouldn’t believe any­body based on author­i­ty or what­ev­er posi­tion they might have,” he says. “You should check it out your­self.”

Some of the ways to do so when we encounter new ideas involve ask­ing “How reli­able is the source of the claim?” and “Have the claims been ver­i­fied by some­body else?” Return­ing to Sagan’s work, Sher­mer offers an exam­ple of con­trast­ing sci­en­tif­ic and pseu­do­sci­en­tif­ic approaches—the SETI (Search for Extrater­res­tri­al Intel­li­gence) Insti­tute and UFO believ­ers. The lat­ter, he says, uncrit­i­cal­ly seek out con­fir­ma­tion for their beliefs, where the sci­en­tists at SETI rig­or­ous­ly try to dis­prove hypothe­ses in order to rule out false claims.

Yet it remains the case that many people—and not all of them in good faith—think they’re using sci­ence when they aren’t. Anoth­er pop­u­lar sci­ence com­mu­ni­ca­tor, physi­cist Richard Feyn­man, rec­om­mend­ed one method for test­ing whether we real­ly under­stand a con­cept or whether we’re just repeat­ing some­thing that sounds smart but makes no log­i­cal sense, what Feyn­man calls “a mys­tic for­mu­la for answer­ing ques­tions.” Can a con­cept be explained in plain Eng­lish, with­out any tech­ni­cal jar­gon? Can we ask ques­tions about it and make direct obser­va­tions that con­firm or dis­con­firm its claims?

Feyn­man was espe­cial­ly sen­si­tive to what he called “intel­lec­tu­al tyran­ny in the name of sci­ence.” And he rec­og­nized that turn­ing forms of know­ing into emp­ty rit­u­als result­ed in pseu­do­sci­en­tif­ic think­ing. In a won­der­ful­ly ram­bling, infor­mal, and auto­bi­o­graph­i­cal speech he gave in 1966 to a meet­ing of the Nation­al Sci­ence Teach­ers Asso­ci­a­tion, Feyn­man con­clud­ed that think­ing sci­en­tif­i­cal­ly as a prac­tice requires skep­ti­cism of sci­ence as an insti­tu­tion.

“Sci­ence is the belief in the igno­rance of experts,” says Feyn­man. “If they say to you, ‘Sci­ence has shown such and such,’ you might ask, ‘How does sci­ence show it? How did the sci­en­tists find out? How? What? Where?’” Ask­ing such ques­tions does not mean we should reject sci­en­tif­ic con­clu­sions because they con­flict with cher­ished beliefs, but rather that we should­n’t take even sci­en­tif­ic claims on faith.

For elab­o­ra­tion on Sher­mer, Sagan and Feyn­man’s approach­es to telling good sci­en­tif­ic think­ing from bad, read these arti­cles in our archive:

Carl Sagan Presents His “Baloney Detec­tion Kit”: 8 Tools for Skep­ti­cal Think­ing

Richard Feyn­man Cre­ates a Sim­ple Method for Telling Sci­ence From Pseu­do­science (1966)

Richard Feynman’s “Note­book Tech­nique” Will Help You Learn Any Subject–at School, at Work, or in Life

Michael Shermer’s Baloney Detec­tion Kit: What to Ask Before Believ­ing

 

Josh Jones is a writer and musi­cian based in Durham, NC. Fol­low him at @jdmagness

The Map of Computer Science: New Animation Presents a Survey of Computer Science, from Alan Turing to “Augmented Reality”

I’ve nev­er want­ed to start a sen­tence with “I’m old enough to remem­ber…” because, well, who does? But here we are. I remem­ber the enor­mous­ly suc­cess­ful Apple IIe and Com­modore 64, and a world before Microsoft. Smart phones were sci­ence fic­tion. To do much more than word process or play games one had to learn a pro­gram­ming lan­guage. These ancient days seemed at the time—and in hind­sight as well—to be the very dawn of com­put­ing. Before the per­son­al com­put­er, such devices were the size of kitchen appli­ances and were hid­den away in mil­i­tary instal­la­tions, uni­ver­si­ties, and NASA labs.

But of course we all know that the his­to­ry of com­put­ing goes far beyond the ear­ly 80s: at least back to World War II, and per­haps even much far­ther. Do we begin with the aba­cus, the 2,200-Year-Old Antikythera Mech­a­nism, the astro­labe, Ada Lovelace and Charles Bab­bage? The ques­tion is maybe one of def­i­n­i­tions. In the short, ani­mat­ed video above, physi­cist, sci­ence writer, and YouTube edu­ca­tor Dominic Wal­li­man defines the com­put­er accord­ing to its basic bina­ry func­tion of “just flip­ping zeros and ones,” and he begins his con­densed his­to­ry of com­put­er sci­ence with trag­ic genius Alan Tur­ing of Tur­ing Test and Bletch­ley Park code­break­ing fame.

Turing’s most sig­nif­i­cant con­tri­bu­tion to com­put­ing came from his 1936 con­cept of the “Tur­ing Machine,” a the­o­ret­i­cal mech­a­nism that could, writes the Cam­bridge Com­put­er Lab­o­ra­to­ry “sim­u­late ANY com­put­er algo­rithm, no mat­ter how com­pli­cat­ed it is!” All oth­er designs, says Walliman—apart from a quan­tum computer—are equiv­a­lent to the Tur­ing Machine, “which makes it the foun­da­tion of com­put­er sci­ence.” But since Turing’s time, the sim­ple design has come to seem end­less­ly capa­ble of adap­ta­tion and inno­va­tion.

Wal­li­man illus­trates the com­put­er’s expo­nen­tial growth by point­ing out that a smart phone has more com­put­ing pow­er than the entire world pos­sessed in 1963, and that the com­put­ing capa­bil­i­ty that first land­ed astro­nauts on the moon is equal to “a cou­ple of Nin­ten­dos” (first gen­er­a­tion clas­sic con­soles, judg­ing by the image). But despite the hubris of the com­put­er age, Wal­li­man points out that “there are some prob­lems which, due to their very nature, can nev­er be solved by a com­put­er” either because of the degree of uncer­tain­ty involved or the degree of inher­ent com­plex­i­ty. This fas­ci­nat­ing, yet abstract dis­cus­sion is where Walliman’s “Map of Com­put­er Sci­ence” begins, and for most of us this will prob­a­bly be unfa­mil­iar ter­ri­to­ry.

We’ll feel more at home once the map moves from the region of Com­put­er The­o­ry to that of Com­put­er Engi­neer­ing, but while Wal­li­man cov­ers famil­iar ground here, he does not dumb it down. Once we get to appli­ca­tions, we’re in the realm of big data, nat­ur­al lan­guage pro­cess­ing, the inter­net of things, and “aug­ment­ed real­i­ty.” From here on out, com­put­er tech­nol­o­gy will only get faster, and weird­er, despite the fact that the “under­ly­ing hard­ware is hit­ting some hard lim­its.” Cer­tain­ly this very quick course in Com­put­er Sci­ence only makes for an intro­duc­to­ry sur­vey of the dis­ci­pline, but like Wallman’s oth­er maps—of math­e­mat­ics, physics, and chem­istry—this one pro­vides us with an impres­sive visu­al overview of the field that is both broad and spe­cif­ic, and that we like­ly wouldn’t encounter any­where else.

As with his oth­er maps, Wal­li­man has made this the Map of Com­put­er Sci­ence avail­able as a poster, per­fect for dorm rooms, liv­ing rooms, or wher­ev­er else you might need a reminder.

Relat­ed Con­tent:

Free Online Com­put­er Sci­ence Cours­es

How Ada Lovelace, Daugh­ter of Lord Byron, Wrote the First Com­put­er Pro­gram in 1842–a Cen­tu­ry Before the First Com­put­er

Watch Break­ing the Code, About the Life & Times of Alan Tur­ing (1996)

The Map of Math­e­mat­ics: Ani­ma­tion Shows How All the Dif­fer­ent Fields in Math Fit Togeth­er

The Map of Physics: Ani­ma­tion Shows How All the Dif­fer­ent Fields in Physics Fit Togeth­er

The Map of Chem­istry: New Ani­ma­tion Sum­ma­rizes the Entire Field of Chem­istry in 12 Min­utes

Josh Jones is a writer and musi­cian based in Durham, NC. Fol­low him at @jdmagness

Trigonometry Discovered on a 3700-Year-Old Ancient Babylonian Tablet

One pre­sump­tion of tele­vi­sion shows like Ancient Aliens and books like Char­i­ots of the Gods is that ancient people—particularly non-west­ern people—couldn’t pos­si­bly have con­struct­ed the elab­o­rate infra­struc­ture and mon­u­men­tal archi­tec­ture and stat­u­ary they did with­out the help of extra-ter­res­tri­als. The idea is intrigu­ing, giv­ing us the huge­ly ambi­tious sci-fi fan­tasies woven into Rid­ley Scott’s revived Alien fran­chise. It is also insult­ing in its lev­el of dis­be­lief about the capa­bil­i­ties of ancient Egyp­tians, Mesopotami­ans, South Amer­i­cans, South Sea Islanders, etc.

We assume the Greeks per­fect­ed geom­e­try, for exam­ple, and refer to the Pythagore­an the­o­rem, although this prin­ci­ple was prob­a­bly well-known to ancient Indi­ans. Since at least the 1940s, math­e­mati­cians have also known that the “Pythagore­an triples”—inte­ger solu­tions to the theorem—appeared 1000 years before Pythago­ras on a Baby­lon­ian tablet called Plimp­ton 322. Dat­ing back to some­time between 1822 and 1762 B.C. and dis­cov­ered in south­ern Iraq in the ear­ly 1900s, the tablet has recent­ly been re-exam­ined by math­e­mati­cians Daniel Mans­field and Nor­man Wild­berg­er of Australia’s Uni­ver­si­ty of New South Wales and found to con­tain even more ancient math­e­mat­i­cal wis­dom, “a trigono­met­ric table, which is 3,000 years ahead of its time.”

In a paper pub­lished in His­to­ria Math­e­mat­i­ca the two con­clude that Plimp­ton 322’s Baby­lon­ian cre­ators detailed a “nov­el kind of trigonom­e­try,” 1000 years before Pythago­ras and Greek astronomer Hip­parchus, who has typ­i­cal­ly received cred­it for trigonometry’s dis­cov­ery. In the video above, Mans­field intro­duces the unique prop­er­ties of this “sci­en­tif­ic mar­vel of the ancient world,” an enig­ma that has “puz­zled math­e­mati­cians,” he writes in his arti­cle, “for more than 70 years.” Mans­field is con­fi­dent that his research will fun­da­men­tal­ly change the way we under­stand sci­en­tif­ic his­to­ry. He may be over­ly opti­mistic about the cul­tur­al forces that shape his­tor­i­cal nar­ra­tives, and he is not with­out his schol­ar­ly crit­ics either.

Eleanor Rob­son, an expert on Mesopotamia at Uni­ver­si­ty Col­lege Lon­don has not pub­lished a for­mal cri­tique, but she did take to Twit­ter to reg­is­ter her dis­sent, writ­ing, “for any his­tor­i­cal doc­u­ment, you need to be able to read the lan­guage & know the his­tor­i­cal con­text to make sense of it. Maths is no excep­tion.” The trigonom­e­try hypoth­e­sis, she writes in a fol­low-up tweet, is “tedious­ly wrong.” Mans­field and Wild­berg­er may not be experts in ancient Mesopotami­an lan­guage and cul­ture, it’s true, but Rob­son is also not a math­e­mati­cian. “The strongest argu­ment” in the Aus­tralian researchers’ favor, writes Ken­neth Chang at The New York Times, is that “the table works for trigo­nom­ic cal­cu­la­tions.” As Mans­field says, “you don’t make a trigo­nom­ic table by acci­dent.”

Plimp­ton 322 uses ratios rather than angles and cir­cles. “But when you arrange it such a way so that you can use any known ratio of a tri­an­gle to find the oth­er side of a tri­an­gle,” says Mans­field, “then it becomes trigonom­e­try. That’s what we can use this frag­ment for.” As for what the ancient Baby­lo­ni­ans used it for, we can only spec­u­late. Rob­son and oth­ers have pro­posed that the tablet was a teach­ing guide. Mans­field believes “Plimp­ton 322 was a pow­er­ful tool that could have been used for sur­vey­ing fields or mak­ing archi­tec­tur­al cal­cu­la­tions to build palaces, tem­ples or step pyra­mids.”

What­ev­er its ancient use, Mans­field thinks the tablet “has great rel­e­vance for our mod­ern world… prac­ti­cal appli­ca­tions in sur­vey­ing, com­put­er graph­ics and edu­ca­tion.” Giv­en the pos­si­bil­i­ties, Plimp­ton 322 might serve as “a rare exam­ple of the ancient world teach­ing us some­thing new,” should we choose to learn it. That knowl­edge prob­a­bly did not orig­i­nate in out­er space.

Relat­ed Con­tent:

How the Ancient Greeks Shaped Mod­ern Math­e­mat­ics: A Short, Ani­mat­ed Intro­duc­tion

Ancient Maps that Changed the World: See World Maps from Ancient Greece, Baby­lon, Rome, and the Islam­ic World

Hear The Epic of Gil­gamesh Read in the Orig­i­nal Akka­di­an and Enjoy the Sounds of Mesopotamia

Josh Jones is a writer and musi­cian based in Durham, NC. Fol­low him at @jdmagness

A New Animation Explains How Caffeine Keeps Us Awake

Let’s pref­ace this by recall­ing that Hon­oré de Balzac drank up to 50 cups of cof­fee a day and lived to the ripe old age of … 51.

Of course, he pro­duced dozens of nov­els, plays, and short sto­ries before tak­ing his leave. Per­haps his caf­feine habit had a lit­tle some­thing to do with that?

Phar­ma­cist Hanan Qasim’s TED-Ed primer on how caf­feine keeps us awake top loads the pos­i­tive effects of the most world’s com­mon­ly used psy­choac­tive sub­stance. Glob­al con­sump­tion is equiv­a­lent to the weight of 14 Eif­fel Tow­ers, mea­sured in drops of cof­fee, soda, choco­late, ener­gy drinks, decaf…and that’s just humans. Insects get theirs from nec­tar, though with them, a lit­tle goes a very long, poten­tial­ly dead­ly way.

Caffeine’s struc­tur­al resem­blance to the neu­ro­trans­mit­ter adeno­sine is what gives it that spe­cial oomph. Adeno­sine caus­es sleepi­ness by plug­ging into neur­al recep­tors in the brain, caus­ing them to fire more slug­gish­ly. Caf­feine takes advan­tage of their sim­i­lar mol­e­c­u­lar struc­tures to slip into these recep­tors, effec­tive­ly steal­ing adenosine’s park­ing space.

With a bioavail­abil­i­ty of 99%, this inter­lop­er arrives ready to par­ty.

On the plus side, caf­feine is both a men­tal and phys­i­cal pick me up.

In appro­pri­ate dos­es, it can keep your mind from wan­der­ing dur­ing a late night study ses­sion.

It lifts the body’s meta­bol­ic rate and boosts per­for­mance dur­ing exercise—an effect that’s eas­i­ly coun­ter­act­ed by get­ting the bulk of your caf­feine from choco­late or sweet­ened soda, or by dump­ing anoth­er Eif­fel Tower’s worth of sug­ar into your cof­fee.

There’s even some evi­dence that mod­er­ate con­sump­tion may reduce the like­li­hood of such dis­eases as Parkinson’s, Alzheimer’s, and can­cer.

What to do when that caf­feine effect starts wear­ing off?

Gulp down more!

As with many drugs, pro­longed usage dimin­ish­es the sought-after effects, caus­ing its devo­tees (or addicts, if you like) to seek out high­er dos­es, neg­a­tive side effects be damned. Ner­vous jit­ters, incon­ti­nence, birth defects, raised heart rate and blood pres­sure… it’s a com­pelling case for stick­ing with water.

Ani­ma­tor Draško Ivez­ić (a 3‑lat­te-a-day man, accord­ing to his studio’s web­site) does a hilar­i­ous job of per­son­i­fy­ing both caf­feine and the humans in its thrall, par­tic­u­lar­ly an egg-shaped new father.

Go to TED-Ed to learn more, or test your grasp of caf­feine with a quiz.

Relat­ed Con­tent:

Wake Up & Smell the Cof­fee: The New All-in-One Cof­fee-Mak­er/Alarm Clock is Final­ly Here!

Physics & Caf­feine: Stop Motion Film Uses a Cup of Cof­fee to Explain Key Con­cepts in Physics

This is Cof­fee!: A 1961 Trib­ute to Our Favorite Stim­u­lant

Ayun Hal­l­i­day is an author, illus­tra­tor, the­ater mak­er and Chief Pri­ma­tol­o­gist of the East Vil­lage Inky zine.  Fol­low her @AyunHalliday.

Margaret Hamilton, Lead Software Engineer of the Apollo Project, Stands Next to Her Code That Took Us to the Moon (1969)

Pho­to cour­tesy of MIT Muse­um

When I first read news of the now-infa­mous Google memo writer who claimed with a straight face that women are bio­log­i­cal­ly unsuit­ed to work in sci­ence and tech, I near­ly choked on my cere­al. A dozen exam­ples instant­ly crowd­ed to mind of women who have pio­neered the very basis of our cur­rent tech­nol­o­gy while oper­at­ing at an extreme dis­ad­van­tage in a cul­ture that explic­it­ly believed they shouldn’t be there, this shouldn’t be hap­pen­ing, women shouldn’t be able to do a “man’s job!”

The memo, as Megan Molteni and Adam Rogers write at Wired, “is a species of dis­course pecu­liar to polit­i­cal­ly polar­ized times: cher­ry-pick­ing sci­en­tif­ic evi­dence to sup­port a pre-exist­ing point of view.” Its spe­cious evo­lu­tion­ary psy­chol­o­gy pre­tends to objec­tiv­i­ty even as it ignores real­i­ty. As Mul­der would say, the truth is out there, if you care to look, and you don’t need to dig through clas­si­fied FBI files. Just, well, Google it. No, not the pseu­do­science, but the careers of women in STEM with­out whom we might not have such a thing as Google.

Women like Mar­garet Hamil­ton, who, begin­ning in 1961, helped NASA “devel­op the Apol­lo program’s guid­ance sys­tem” that took U.S. astro­nauts to the moon, as Maia Wein­stock reports at MIT News. “For her work dur­ing this peri­od, Hamil­ton has been cred­it­ed with pop­u­lar­iz­ing the con­cept of soft­ware engi­neer­ing.” Robert McMil­lan put it best in a 2015 pro­file of Hamil­ton:

It might sur­prise today’s soft­ware mak­ers that one of the found­ing fathers of their boys’ club was, in fact, a mother—and that should give them pause as they con­sid­er why the gen­der inequal­i­ty of the Mad Men era per­sists to this day.

Hamil­ton was indeed a moth­er in her twen­ties with a degree in math­e­mat­ics, work­ing as a pro­gram­mer at MIT and sup­port­ing her hus­band through Har­vard Law, after which she planned to go to grad­u­ate school. “But the Apol­lo space pro­gram came along” and con­tract­ed with NASA to ful­fill John F. Kennedy’s famous promise made that same year to land on the moon before the decade’s end—and before the Sovi­ets did. NASA accom­plished that goal thanks to Hamil­ton and her team.

Pho­to cour­tesy of MIT Muse­um

Like many women cru­cial to the U.S. space pro­gram (many dou­bly mar­gin­al­ized by race and gen­der), Hamil­ton might have been lost to pub­lic con­scious­ness were it not for a pop­u­lar redis­cov­ery. “In recent years,” notes Wein­stock, “a strik­ing pho­to of Hamil­ton and her team’s Apol­lo code has made the rounds on social media.” You can see that pho­to at the top of the post, tak­en in 1969 by a pho­tog­ra­ph­er for the MIT Instru­men­ta­tion Lab­o­ra­to­ry. Used to pro­mote the lab’s work on Apol­lo, the orig­i­nal cap­tion read, in part, “Here, Mar­garet is shown stand­ing beside list­ings of the soft­ware devel­oped by her and the team she was in charge of, the LM [lunar mod­ule] and CM [com­mand mod­ule] on-board flight soft­ware team.”

As Hank Green tells it in his con­densed his­to­ry above, Hamil­ton “rose through the ranks to become head of the Apol­lo Soft­ware devel­op­ment team.” Her focus on errors—how to pre­vent them and course cor­rect when they arise—“saved Apol­lo 11 from hav­ing to abort the mis­sion” of land­ing Neil Arm­strong and Buzz Aldrin on the moon’s sur­face. McMil­lan explains that “as Hamil­ton and her col­leagues were pro­gram­ming the Apol­lo space­craft, they were also hatch­ing what would become a $400 bil­lion indus­try.” At Futur­ism, you can read a fas­ci­nat­ing inter­view with Hamil­ton, in which she describes how she first learned to code, what her work for NASA was like, and what exact­ly was in those books stacked as high as she was tall. As a woman, she may have been an out­lier in her field, but that fact is much bet­ter explained by the Occam’s razor of prej­u­dice than by any­thing hav­ing to do with evo­lu­tion­ary deter­min­ism.

Note: You can now find Hamil­ton’s code on Github.

Relat­ed Con­tent:

How 1940s Film Star Hedy Lamarr Helped Invent the Tech­nol­o­gy Behind Wi-Fi & Blue­tooth Dur­ing WWII

Meet Grace Hop­per, the Pio­neer­ing Com­put­er Sci­en­tist Who Helped Invent COBOL and Build the His­toric Mark I Com­put­er (1906–1992)

How Ada Lovelace, Daugh­ter of Lord Byron, Wrote the First Com­put­er Pro­gram in 1842–a Cen­tu­ry Before the First Com­put­er

NASA Puts Its Soft­ware Online & Makes It Free to Down­load

Josh Jones is a writer and musi­cian based in Durham, NC. Fol­low him at @jdmagness

Neil deGrasse Tyson is Creating a New Space Exploration Video Game with the Help of George R.R. Martin & Neil Gaiman

Although Neil deGrasse Tyson is some­what hes­i­tant to go in on plans to ter­raform and col­o­nize Mars, that doesn’t mean he doesn’t like a good ol’–yet science-based–video game. Sev­er­al out­lets announced recent­ly that the videogame Space Odyssey, spear­head­ed by deGrasse Tyson–one of America’s main defend­ers of log­ic and Enlightenment–has sur­passed its Kick­starter fund­ing goal. The game promis­es to send play­ers on “real sci­ence-based mis­sions to explore space, col­o­nize plan­ets, cre­ate and mod in real time.”

In the game, accord­ing to deGrasse Tyson, “you con­trol the for­ma­tion of plan­ets, of comets, of life, civ­i­liza­tion. You could maybe tweak the force of grav­i­ty and see what effect that might have.” It will be, he says, “an explo­ration into the laws of physics and how they shape the world in which we live.”

The game has been form­ing for sev­er­al years now, and most impor­tant­ly to our read­ers, has called in sev­er­al sci-fi and fan­ta­sy writ­ers to help cre­ate the var­i­ous worlds in the game, as they have apt­ly demon­strat­ed their skills in doing so on the print­ed page. That includes George R.R. Mar­tin, cur­rent­ly ignor­ing what­ev­er HBO is doing to his cre­ation Game of Thrones; Neil Gaiman, who cre­ates a new uni­verse every time he drops a new nov­el; and Len Wein, who has had a hand in cre­at­ing both DC’s Swamp Thing and Marvel’s Wolver­ine. Also on board: deGrasse Tyson’s bud­dy Bill Nye, for­mer NASA astro­naut Mike Mas­simi­no, and astro­physi­cist Charles Liu.

The idea of world/­galaxy-build­ing is not new in video games, espe­cial­ly recent­ly. No Man’s Sky (2015) fea­tures “eigh­teen quin­til­lion full-fea­tured plan­ets” and Minecraft seems lim­it­less. But Space Odyssey (still a tem­po­rary title!) is the first to have deGrasse Tyson and friends work­ing the con­trols in the back­ground. And a game is as good as the vision­ar­ies behind it.

 

Accord­ing to the Kick­starter page, the raised funds will go into “the abil­i­ty to have this com­mu­ni­ty play the game and engage with it while the final build is under­way. As the Kick­starter gam­ing com­mu­ni­ty begins to beta test game-play and pro­vide feed­back, we can begin to use the funds raised via Kick­starter to incor­po­rate your mod­ding, map­ping and build­ing sug­ges­tions, togeth­er build­ing the awe­some gam­ing expe­ri­ence you helped to cre­ate.”

DeGrasse Tyson will be in the game him­self, urg­ing play­ers onward. There’s no indi­ca­tion whether Mr. Mar­tin will be pop­ping up, though.

Relat­ed Con­tent:

Neil deGrasse Tyson: “Because of Pink Floyd, I’ve Spent Decades Undo­ing the Idea That There’s a Dark Side of the Moon”

David Byrne & Neil deGrasse Tyson Explain the Impor­tance of an Arts Edu­ca­tion (and How It Strength­ens Sci­ence & Civ­i­liza­tion)

Are We Liv­ing in a Com­put­er Sim­u­la­tion?: A 2‑Hour Debate with Neil Degrasse Tyson, David Chalmers, Lisa Ran­dall, Max Tegmark & More

Ted Mills is a free­lance writer on the arts who cur­rent­ly hosts the artist inter­view-based FunkZone Pod­cast and is the pro­duc­er of KCR­W’s Curi­ous Coast. You can also fol­low him on Twit­ter at @tedmills, read his oth­er arts writ­ing at tedmills.com and/or watch his films here.

Neil deGrasse Tyson: “Because of Pink Floyd, I’ve Spent Decades Undoing the Idea That There’s a Dark Side of the Moon”

In 1973, Pink Floyd released their influ­en­tial con­cept album, The Dark Side of the Moon, which gar­nered both crit­i­cal and com­mer­cial suc­cess. The album sold some 45 mil­lion copies, and remained on Bill­board­’s Top LPs & Tapes chart for 741 weeks (from 1973 to 1988). All of which was great for Pink Floyd. But not so much for sci­ence and edu­ca­tion.

As Neil deGrasse Tyson explains above. “That Pink Floyd had an album with that title meant I spent decades hav­ing to undo [that fact] as an edu­ca­tor.” That’s because “there is no dark side of the moon.” “There’s a far side and there’s a near.” “But all sides of the moon receive sun­light across the month.”

To delve deep­er into this, it’s worth read­ing this short arti­cle (Myth­busters: Is There Real­ly a Dark Side of the Moon?) from Yale Sci­en­tif­ic Mag­a­zine. There, they elab­o­rate:

No mat­ter where we are on Earth, we see and always have seen only one face of the moon. Since the moon rotates on its axis in the same amount of time that it takes the body to orbit our plan­et, the same half face of the moon is con­sis­tent­ly exposed to view­ers on Earth. This tim­ing is caused by a phe­nom­e­non called tidal lock­ing, which occurs when a larg­er astro­nom­i­cal body (Earth) exerts a strong grav­i­ta­tion­al pull on a small­er body (the moon), forc­ing one side of the small­er body to always face the larg­er one.…

[T]he fact that we earth­lings can­not see the far side of the moon does not mean that this face is nev­er exposed to sun­light. In fact, the far side of the moon is no more and no less dark than the hemi­sphere we do see.

Get the rest here.

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Relat­ed Con­tent:

Neil deGrasse Tyson Lists 8 (Free) Books Every Intel­li­gent Per­son Should Read

David Byrne & Neil deGrasse Tyson Explain the Impor­tance of an Arts Edu­ca­tion (and How It Strength­ens Sci­ence & Civ­i­liza­tion)

Michio Kaku & Noam Chom­sky School Moon Land­ing and 9/11 Con­spir­a­cy The­o­rists

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Artist Draws 9 Portraits While on LSD: Inside the 1950s Experiments to Turn LSD into a “Creativity Pill”

LSD was first syn­the­sized in 1938 by chemist Albert Hoff­man in a Swiss lab­o­ra­to­ry but only attained infamy almost two decades lat­er, when it became part of a series of gov­ern­ment exper­i­ments. At the same time, a UC Irvine psy­chi­a­trist, Oscar Janiger (“Oz” to his friends), con­duct­ed his own stud­ies under very dif­fer­ent cir­cum­stances. “Unlike most researchers, Janiger want­ed to cre­ate a ‘nat­ur­al’ set­ting,” writes Brandy Doyle for MAPS (the Mul­ti­dis­ci­pli­nary Asso­ci­a­tion for Psy­che­del­ic Stud­ies). He rea­soned that “there was noth­ing espe­cial­ly neu­tral about a lab­o­ra­to­ry or hos­pi­tal room,” so he “rent­ed a house out­side of LA, in which his sub­jects could have a rel­a­tive­ly non-direct­ed expe­ri­ence in a sup­port­ive envi­ron­ment.”

Janiger want­ed his sub­jects to make cre­ative dis­cov­er­ies in a state of height­ened con­scious­ness. The study sought, he wrote, to “illu­mi­nate the phe­nom­e­no­log­i­cal nature of the LSD expe­ri­ence,” to see whether the drug could effec­tive­ly be turned into a cre­ativ­i­ty pill. He found, over a peri­od last­ing from 1954 to 1962 (when the exper­i­ments were ter­mi­nat­ed), that among his approx­i­mate­ly 900 sub­jects, those who were in ther­a­py “had a high rate of pos­i­tive response,” but those not in ther­a­py “found the expe­ri­ence much less pleas­ant.” Janiger’s find­ings have con­tributed to the research that orga­ni­za­tions like MAPS have done on psy­choac­tive drugs in ther­a­peu­tic set­tings. The exper­i­ments also pro­duced a body of art­work made by study par­tic­i­pants on acid.

Janiger invit­ed over 100 pro­fes­sion­al artists into the study and had them pro­duce over 250 paint­ings and draw­ings. The series of eight draw­ings you see here most like­ly came from one of those artists (though “the records of the iden­ti­ty of the prin­ci­ple researcher have been lost,” writes Live­Science). In the psych-rock-scored video at the top see the pro­gres­sion of increas­ing­ly abstract draw­ings the artist made over the course of his 8‑hour trip. He report­ed on his per­cep­tions and sen­sa­tions through­out the expe­ri­ence, not­ing, at what seems to be the drug’s peak moment at 2.5 and 3 hours in, “I feel that my con­scious­ness is sit­u­at­ed in the part of my body that’s active—my hand, my elbow, my tongue…. I am… every­thing is… changed… they’re call­ing… your face… inter­wo­ven… who is….”

Trip­py, but there’s much more to the exper­i­ment than its imme­di­ate effects on artists’ brains and sketch­es. As Janiger’s col­league Mar­lene Dobkin de Rios writes in her defin­i­tive book on his work, “all of the artists who par­tic­i­pat­ed in Janiger’s project said that LSD not only rad­i­cal­ly changed their style but also gave them new depths to under­stand the use of col­or, form, light, or the way these things are viewed in a frame of ref­er­ence. Their art, they claimed, changed its essen­tial char­ac­ter as a con­se­quence of their expe­ri­ences.” Psy­chol­o­gist Stan­ley Kripp­n­er made sim­i­lar dis­cov­er­ies, and “defined the term psy­che­del­ic artist” to describe those who, as in Janiger’s stud­ies “gained a far greater insight into the nature of art and the aes­thet­ic idea,” Dobkin de Rios writes.

Artis­tic productions—paintings, poems, sketch­es, and writ­ings that stemmed from the experience—often show a rad­i­cal depar­ture from the artist’s cus­tom­ary mode of expres­sion… the artists’ gen­er­al opin­ion was that their work became more expres­sion­is­tic and demon­strat­ed a vast­ly greater degree of free­dom and orig­i­nal­i­ty.

The work of the unknown artist here takes on an almost mys­ti­cal qual­i­ty after a while. The project began “serendip­i­tous­ly” when one of Janiger’s vol­un­teers in 1954 insist­ed on being able to draw dur­ing the dos­ing. “After his LSD expe­ri­ence,” writes Dobkin de Rios, “the artist was very emphat­ic that it would be most reveal­ing to allow oth­er artists to go through this process of per­cep­tu­al change.” Janiger was con­vinced, as were many of his more famous test sub­jects.

Janiger report­ed­ly intro­duced LSD to Cary Grant, Anais Nin, Jack Nichol­son, and Aldous Hux­ley dur­ing guid­ed ther­a­py ses­sions. Still, he is not near­ly as well-known as oth­er LSD pio­neers like Ken Kesey and Tim­o­thy Leary, in part because, writes the psy­choac­tive research site Erowid, “his data remained large­ly unpub­lished dur­ing his life­time,” and he was not him­self an artist or media per­son­al­i­ty (though he was a cousin of Allen Gins­berg).

Janiger not only changed the con­scious­ness of unnamed and famous artists with LSD, but also exper­i­ment­ed with DMT with Alan Watts and fel­low psy­chi­a­trist Humphry Osmond (who coined the word “psy­che­del­ic”), and con­duct­ed research on pey­ote with Dobkin de Rios. To a great degree, we have him to thank (or blame) for the explo­sion of psy­che­del­ic art and phi­los­o­phy that flowed out of the ear­ly six­ties and indeli­bly changed the cul­ture. At Live­Science, you can see a slideshow of these draw­ings with com­men­tary from Yale physi­cian Andrew Sewell on what might be hap­pen­ing in the trip­ping artist’s brain.

Note: IAI Acad­e­my has just released a short course called The Sci­ence of Psy­che­delics. You can enroll in it here.

Relat­ed Con­tent:

Rare Footage Shows US and British Sol­diers Get­ting Dosed with LSD in Gov­ern­ment-Spon­sored Tests (1958 + 1964)

Hofmann’s Potion: 2002 Doc­u­men­tary Revis­its His­to­ry of LSD

Ken Kesey Talks About the Mean­ing of the Acid Tests

Aldous Huxley’s Most Beau­ti­ful, LSD-Assist­ed Death: A Let­ter from His Wid­ow

Josh Jones is a writer and musi­cian based in Durham, NC. Fol­low him at @jdmagness

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