Exposing PseudoAstronomy

June 23, 2015

Podcast Episode 134: Big Bang Denial

The Big Bang theory:
Tot’ly explains the cosmos?
Or, is it a dud?

This episode follows a big from the Black Hole Denial episode, but this time with another aspect of cosmology: The Big Bang. I was able to use a few old blog posts, too, that I wrote practically 7 years ago.

As mentioned, I’m now on a weird – though backdating – release schedule due to the piling on of work as the New Horizons craft nears Pluto. But I’m still trying to do 2 episodes/month, at least.

June 12, 2015

Are We on the Verge of Discovering an Earth-Like Exoplanet?

I announced awhile ago that I was on episode 347 of the Canadian, “The Reality Check” poscast where I talked about exoplanets and some hype — deserved or otherwise — about almost but never quite yet discovering Earth-sized exoplanets.

While they post a lot of links and other things on their website, they don’t post transcripts of what we actually talk about. Since I spent a solid many minutes writing and editing my segment’s text, I thought I’d post it here:

There’s lots of ways to talk about exoplanets, but I’m going to take the traditional approach and start with a very broad but brief overview of how we have found the few-thousand known extra-solar planets, or “exoplanets” for short. There are five main ways.

The most obvious is the most difficult: Direct Imaging. This is where you take your telescope and would look at a star and see the planet around it. This is almost impossible with current technology, and we have less than 20 exoplanets found this way. It’s so hard because the star is so bright relative to the planet and because most star systems are so far away. And obviously, if the planet is larger and farther away from the star, it’ll be easier to see.

The second main method has also only produced about 20 planets so far: Gravitational Microlensing. Einstein showed that large masses bend light, and we can see this in space when an object that’s far away passes behind a massive object that’s a lot closer. The light from the background object gets distorted and magnified, much like a lens … a lens caused by gravity. If the foreground object happens to be a star, and that star has a planet, then that planet can make a detectable contribution to the lensing, not only in amount, but in the exact shape of the lensing effect.

The earliest actual successful method was a special form of what’s called the Timing Method, specifically in this case, pulsar timing. Pulsars are incredibly dense stars called neutron stars, and we get a blast of radio waves every time one of its poles sweeps in the direction of Earth. These are so regular that any tiny perturbation can be detected and attributed to something weird, like a tiny planet tugging on it and so changing that regular spinning signal.

This is the same concept as the highly successful method that found the most exoplanets until a few years ago: Radial Velocity. The idea is that we normally think of a planet, like Earth, orbiting the sun. But it doesn’t really. It *and* the sun orbit a mutual gravitational point called the “barycenter” that is between the two. For Earth and the sun, that point is VERY close to the sun’s center, but it’s not quite in the center. That means that over the course of a year, as Earth goes around that point, the sun will, too (on the opposite side of that point). So, it will wobble very very slightly as it orbits the barycenter.

We can’t possibly observe this tiny tiny motion of other stars. BUT, we can use the light that star emits to do it by using the Doppler shift. That’s the phenomenon where if something is moving towards you, the waves it emits become compressed, and if it’s moving away from you, the waves get stretched out. The common example is a train whistle going from high to low pitch, but in astronomy, this is where the light is shifted to blue and then to red.

So, if the planet around another star is at its closest point to us, the star emits light and we see it all normal. As the planet starts to move away from us, the star starts to move very slightly toward Earth, and so its light will be very slightly blue-shifted. Then, the planet gets to its farthest point, and starts to move towards Earth, which means the star starts to move away, and we see its light red-shifted. This is an incredibly tiny effect, and the smaller the planet, the smaller the shift in the light. Or the pulsar timing change.

There was a lot of progress throughout the late 1990s and early 2000s in very high-resolution spectroscopy in order to get better and better at observing smaller and smaller planets. The easiest ones to observe are the largest because they make the biggest shift in the star’s light, and ones that are closest to their star are easier because you don’t have to observe as long. To observe a planet that has a 10-day orbit, you just have to observe that star for about a month from Earth to get decent statistics.

That’s why all the exoplanets discovered early on were what are called “Hot Jupiters,” since they were very large and very close to their stars.

The final method is the Transit Method. If a fly passes in front of a bright light, you can see a slight decrease in the light. If a bird passes in front of a light, you’ll see a larger decrease in the light. Same thing here: A planet passes in front of the star and temporarily blocks part of the light from the star that we would see at Earth. The big issue with this method is that you have to have the fortuitous geometry alignment where the planet’s orbit is just right so that it passes in front of its star as seen from Earth. The first one wasn’t detected until 1999, but a decade later, the dedicated spacecraft COROT and then Kepler were launched to look for these, monitoring the same fields of the sky, tens of thousands of stars, moment after moment, looking for those brief transits. In 2014, Kepler released over 800 planets discovered with this method, more than doubling the total number known, and that was on top of its other releases and, to-date, it’s found over 1000.

The transit method, despite the issue of geometry, is probably the best initial method. If you have the planet going in front of its star, then you know its alignment and you can follow-up with the radial velocity method and get the mass. Otherwise, the radial velocity method can only give you a minimum mass because you don’t know how the system is oriented, you only know that radial component of velocity, hence its name.

With the transit method, you can see how much light is blocked by the planet. Knowing the star’s type, you can get a pretty good estimate for the star’s size, and knowing how much light is blocked means you can get the cross-sectional area of the planet and hence its diameter. For example, Jupiter would block 1% of the sun’s light, and since area is the square of length, that means Jupiter is about 10% the sun’s diameter. Since the sun is a type G V star, we have a good model for its radius, though of course we know its radius very well because we’re in orbit of it. But that means not only can we get mass, but we can get size and density.

The transit method also lets us see if there’s a large atmosphere. If the light from the star instantly blinks down to the level when the planet passes in front of it, then any atmosphere really thin or nonexistent. If there’s a gradual decrease, then it’s extended. If its extended, we can follow-up with something like the Hubble Space Telescope and actually figure out what that atmosphere is made of by looking at what colors of light from the star are absorbed as it passes through the planet’s atmosphere.

And as with the radial velocity and timing methods, we know how long it takes to go around its parent star, and along with the star’s mass from what kind of star it is, we can get the distance of the planet from the star.

Okay, so much for a brief overview. But for me, I’ve left out a lot.

Moving on, it should be somewhat apparent that the bigger the planet, and the closer to its star, the easier it is to observe with pretty much ANY of these techniques, except direct imaging or microlensing where you want a big planet that’s far from its star. Big means big effect. Fast orbit means you don’t have to observe it for very long to show that it’s a regular, repeating signal best explained by a planet.

So, the question is then, can we detect an Earth-sized planet, and can we detect an Earth-like orbit? These are really two different questions and they depend on the technique you’re using. If we want to focus on a the two main methods – radial velocity and transit – then the unsatisfying answer to the second is that we do finally have good enough technology, it is just a matter of finding it. With the 2014 Kepler data release, there were over 100 exoplanets that are less than 1.25 Earth’s size. With the 2015 release, there are a total of 5 planets smaller than Earth or Venus, but they orbit their 11.2-billion-year-old star in just 3.6 to 9.7 days.

Even if we have observations for more than a year or two, for something as small as Earth, the level of signal relative to noise in the experiment is still pretty small, and you want a big signal relative to the noise. It’s best to build up multiple years’ worth of data to average out the noise to be able to really say that we have an Earth-like planet. For something like Jupiter, which orbits our sun in about 12 years, we’d need to observe at least two transits, meaning we’re just now approaching the time when we would have a long enough baseline of data with some ground-based surveys, but that’s also assuming we catch that planet for the few hours or days when it goes in front of its star versus the years and years that it doesn’t, and that we do this repeatedly and don’t chalk it up to sunspots.

This is why we really need long-term, dedicated surveys to just stare at the same place in space, constantly, measuring the light output of these stars to see if we can detect any sort of dimming, that’s repeated, from a likely planet.

But, even if we find an Earth-like planet in terms of mass and diameter and location in its solar system, that’s not enough to say it’s Earth-like in terms of atmosphere and surface gravity and overall long-term habitability. It’s just a first step. A first step we have yet to truly reach, but one that is reasonably within our grasp at this point.

But it’s from the existing planets we know of that we get some of the hype that hits the headlines every few months, like “astronomers estimate billions of Earth-like planets exist in our galaxy alone.” I’m not going to say that’s fantasy, but it’s loosely informed speculation based on extrapolating from a few thousand examples we now have from a very, VERY young field of astronomy.

Or, we’ll get articles where the first sentence says, “Astronomers have discovered two new alien worlds a bit larger than Earth circling a nearby star.” It’s in the next paragraph that we learn that “a bit larger than Earth” means 6.4 and 7.9 times our mass, and they orbit their star in just a few days.

So as always, this is a case where, when we see headlines, we need to be skeptical, NOT susceptible to the hype, and read deeper. But that said, it is entirely possible that any day now we will find an exoplanet that is at least like Earth in mass, size, and distance from its host star.

May 26, 2015

Podcast Episode 132 – In Search Of Planet X (Live from Denver ComicCon)

In Search: Planet X.
An overview of common
Ideas about it.

This episode is another recording of one of my live presentations, modeled a little after Leonard Nimoy’s “In Search Of” television series. It was presented in front of a live audience at the Denver ComicCon on May 24, 2015, to about 75-100 people. I was bordered on two sides by other sessions that had more people and a lot of laughter, so I played to that a little bit when there were opportune moments. I also suffered a minor A/V issue in the middle but recovered, so you’ll hear some fumbling there.

Unfortunately, there is also some popping that comes in about 10 minutes into the recording. I exploited all the filters that I know of in my Audacity toolkit, and they are less of an issue than they were, but they are definitely present.

I also need to announce that it is that time of year when work is going to get crazy, so episodes may come out a little less regularly, especially during July. I’m still going to keep to the two per month schedule, but they may not be out on exactly the first and sixteenth of the month.

And with that in mind, I have to head to the airport in 45 minutes for more work, after just being back home for 3.5 days. So …

April 4, 2015

February 16, 2015

Podcast Episode 126: The Facts and Misconceptions Behind Funding in Science, with Dr. Pamela Gay @starstryder

The sordid subject
Of the coin: How scientists
Are – and are not – paid.

This is another episode where I don’t focus on debunking a specific topic of astronomy, geology, or physics pseudoscience, but rather I focus on a topic of misconceptions related to science in general: How scientists are funded. This is done via an interview and bit of discussion with Dr. Pamela Gay, who cohosts the very famous “AstronomyCast” podcast and is the director of CosmoQuest.

The topics are varied, but it remains focused on some of the misconceptions of how research is funded and the real process behind it. It’s also a bit depressing, but I can’t always have light-hearted topics like Planet X isn’t coming to kill you.

Since this is an interview, it is a somewhat longer episode (54 minutes), there is no transcript, and there are no other segments.

The episodes for the next two months should be focused on Comet Hale-Bopp and have a brief interlude of another interview with the chair of the program committee for a major planetary science conference, and what they do when they get submissions that seem like pseudoscience.

January 1, 2015

Podcast Episode 123: The Science and Pseudoscience of Communicating with Aliens with @KarenStollznow

Karen Stollznow talks
‘Bout the issues of ET

I wanted to start the New Year off on a lighter and different kind of topic, so I interviewed linguist, Dr. Karen Stollznow, about alien communication. This was based a bit on her TAM 2014 talk, and we got into a lot of issues not only with how communication is portrayed in popular media, but how communication is problematic amongst people on our own planet, different language groups on our own planet, and different species on our own planet. We then discussed – within that context – some people who claim they are in contact with aliens and how linguistic analysis shows the claimed languages to be poorly constructed variations on what they already know.

This interview was only meant to be a half hour long, but even after editing, it is just under an hour. That editing included removing a headset issue and two phone calls from my mother (family emergency). I tried to find a possible natural break to get it to two 30-minute episodes, but I found none: the conversation flowed very well, I thought.

There are no other segments in this episode because it is just over an hour long. The next episode should be about black hole denial.

December 30, 2014

My First Infographic: What Have Our Planetary Space Probes Photographed Since 1970?


This has been over two months in the making: I’m finally releasing my first infographic. It’s entitled, “Planets and Major Moons: Distribution of Non-Lander Spacecraft Photos Since 1970.” (Suitable for printing on A-size paper with a bit of top and bottom margin to spare.) The purpose is to show the number of images taken by different space probes of the planets (and major satellites), the percentage of the total images that were for each body, and for each body, the percentage taken by each different spacecraft.

PDF Version of Spacecraft Imagery Infographic (3.5 MB)
PNG Version of Spacecraft Imagery Infographic (4.7 MB)

Number of Images of Planets Taken by Spacecraft Infographic

Number of Images of Planets Taken by Spacecraft Infographic

Development Process

I’ve been wanting to create infographics for awhile. Really good ones are few and far between, especially for astronomy, but the good ones are often amazing works of art. I don’t pretend that this is an amazing work of art, but hopefully it’s not ugly.

To me, the key is to have a lot of information crammed into a small space in an easy-to-understand way that you don’t have to be an expert to interpret. In my work, I deal a lot with multi-dimensional datasets and so already I have to come up with ways of displaying a lot of information in as few figures as possible and yet still make them readable.

The Idea

An idea that I came up with is based on the claim that “NASA hides all its pictures!” (This is often, hypocritically, almost immediately followed up with NASA spacecraft imagery showing claimed UFOs and other pseudoscientific claims.)

And so, I wanted to investigate this: How many images really have been taken and are available publicly, for free, on the internet? After several days of research, I had the results, and I assembled them into the above infographic.

The Numbers

I was surprised by some of the numbers and I was not surprised by others. One thing that did not surprise me was that the outer planets have very few photographs (relatively speaking) of them, while most imagery has focused on Mars and the Moon (fully 86%).

But, I was not prepared for how very few photographs were taken by our early probes to the outer solar system. Pioneers 10 and 11 were the first craft to venture out, and yet, because of the (now) archaic method of imaging and slow bandwidth, they collectively took a mere 72 images of both Jupiter and Saturn. Compare that with the ongoing Lunar Reconnaissance Orbiter around the moon, which has publicly released over 1.1 million images.

You can also see the marked effect of the Galileo high-gain antenna failure: Only 7.4% of the photos we have of Jupiter were taken by Galileo, despite it being an orbiter in the 1990s. Compare that with the Cassini orbiter of Saturn, which has returned nearly 50 times as many images, despite no dramatic change in technology between the two craft. This means that only 0.4% of our images of planets and moons are of Jupiter, while 1.9% are of Saturn.

You can also see the marked success of modern spacecraft and the huge volumes of images that (I repeat) are publicly available. The pie slices in the infographic are color-coded by approximate spacecraft operation era. Well over 90% of all images were taken after 1995, and the current suite of the latest NASA spacecraft (MESSENGER around Mercury, Lunar Reconnaissance Orbiter around the Moon, and Mars Reconnaissance Orbiter around Mars) account for a sizable fraction of the returned data for that body — especially MESSENGER, which accounts for 98.1% of all Mercury images.

What was I most surprised by? The Clementine mission to the moon. It returned and has publicly archived just shy of 1.5 million images of the lunar surface. I expected the Lunar Reconnaissance Orbiter to have surpassed that. And, it still may, as it continues to operate and return data. We shall see.

Why the Conspiracy Theorists Are Wrong

As I said, one of the primary reasons I made this was to investigate the claim by conspiracy theorists that these space agencies hide photographs. The blame rests almost entirely on NASA by most conspiracists’ accounts. This infographic proves them wrong in two significant ways.

First, at least for the Moon, Mars, and Venus, sizable numbers of images have been taken by and publicly released by non-NASA sources. I specifically have data from the European Space Agency (SMART-1, Venus Express, and Mars Express), and Japanese Space Agency (SELENE / Kaguya). While both the Indian and Chinese space agencies have also sent spacecraft to the moon and Mars (Mars for the Indians with the recently-in-orbit “MOM” craft), and Russia has sent craft to Venus, Moon, and Mars, I could not find the public repositories – if they exist – for these missions. Therefore, I could not include them. But, a lack of those two does not affect the overall point, that non-NASA agencies have released photos of these bodies.

Second, as I’ve repeated throughout this post, these are the publicly released images. Not private. Public. To public archives. In the bottom-left corner, I have the sources for all of these numbers. (Please note that they were compiled in late October and may have increased a bit for ongoing missions — I’ll update periodically, as necessary.)

The total number of lunar images? About 3 million.

Mars? Around 1.6 million. Venus? Over 350,000. Mercury? Over 210,000.

It’s hard to claim that NASA hides lots of images when these numbers are staring you in the face.

What Conspiracists Could Still Claim

I think the only “out” at this point, given this information (and if they acknowledge this information), is for conspiracists to claim that NASA and other space agencies simply obfuscate the “interesting” stuff. I suppose that’s possible, though they’d need armies of people to do it on the millions of returned images. And they apparently do a pretty bad job considering all the images that conspiracists post, claiming that features within them are of alien-origin.

It’s amazing how the “powers that be” are so powerful, and yet so sloppy. Apparently.

What This Infographic Does Not Show

I had to decide to clip a lot of information. We’ve imaged a lot of asteroids and a lot of comets. Those are out. We have had landers on the three closest bodies (Moon, Mars, Venus). Those images were not included.

Also, I focused on visible-light images, mostly. There are some instruments that take more UV images, or far-IR images, or various other wavelengths, but this infographic focused on the visible or near-visible light camera data.

Pretty much the only exception to this is for the Magellan mission at Venus, which took radar swaths of the planet to “image” the surface. I included this because, in early test audiences, I did not have Venus at all, and they requested it. Then, I did not include Magellan, but the test audiences wondered what happened to it. Describing why that data was not present made things wordy and more cluttered, so I, in the end, simply included it and put a footnote explaining the Magellan data.

This also fails to show the volume of data as measured by or approximated by (for the older craft) pixel count. If I were doing this by amount of pixels returned, the Moon and Mars would be far larger in comparison, and the Lunar Reconnaissance Orbiter and Mars Reconnaissance Orbiter would be much larger fractions of their respective bodies.

Final Thoughts

I’m releasing this under the Creative Commons license with attribution required, non-commercial distribution, and no derivative works (please see the CC stamp at the bottom of the infographic). This is so that I can at least have some semblance of version control (see release date at lower right).

I hope you find it useful and interesting. And at least somewhat purdy. If you like it, share it.

December 16, 2014

Podcast Episode 122: Comet 67P/Churyumov-Gerasimenko and Rosetta Conspiracies

Conspiracies of
Comet 67P …
Few, but they are weird.

A timely and listener-requested episode! What’s not to love!? In the episode I talk about several of the conspiracies I’ve seen surrounding the Rosetta mission and Comet 67P. From artificiality (Hoagland makes a guest appearance) to singing so as to raise our consciousness to angelic levels when 2012 failed, I spend nearly a half hour going through 2 to 4 claims (depending on how you count them) that have been making the rounds. I also get to touch on image analysis.

There is also one New News segment this episode, and it refers to the death of the Venus Express mission around (oddly enough) Venus. The news relates to the episodes on uncertainty. Not sure what the connection is? Listen to the episode! The episode also comes in at just over 30 minutes, my target length.

November 7, 2014

The Myth that Skepticism is Easy


There’s a lot of finger-wagging on both sides of the skeptics vs believers “debate.” To the point where people who believe in things like bigfoot and ghosts are already going to say from my terminology in the first sentence that I’m biasing this entire blog post. Well, get your own blog. Or be polite about it in the comments.

Anywho, there is the frequent claim that I hear on various shows and read in various places that “being a skeptic is the easiest thing in the world: All you have to do is say ‘no.’” Perhaps obviously, I disagree, and this post is about why.


First, I must define my terms. I do not consider someone who just comes out and blurts “that’s not true” or “that’s not real” without evidence to be a skeptic. There is a difference between a skeptic and a denier. I consider:

Skeptic: Someone who approaches a question from a position of looking for evidence and making a conclusion based on the preponderance of the evidence, which can and should include all past evidence for plausibility of various explanations of that question.

Denier: Just says “no.”

Notice that there is a difference here. A skeptic can be someone who just says “no,” but it must be able to be backed up based on an examination of the evidence. For example, these days, I just say “no” automatically to most claims that the latest rock seen on Mars is a skull or a face or a fossil or a water valve. (The water valve ended up being the impression of a Phillips head screwdriver, but it’s much easier just to not do any research into the instrument and claim it’s a miniaturized water valve, because, ya know, it looks like one!) I can say that while still fitting my definition of “skeptic” because I actually have investigated this class of claims ad nauseam on this blog and on my podcast, and at a glance I can usually tell what class of misconception it fits into (usually either poor image analysis and/or pareidolia).

It’s Not Easy Being a Skeptic

It’s not.

No, really, it’s not.


For a completely selfish and capitalist reason, it’s not financially rewarding, which is very different from pseudoscience. I listen to people on Coast to Coast AM who publish a book every year – and those are the slow ones – about talking to dolphins, or searching for Atlantis, or making things up about archaeology or astronomy. It would be so easy, so cheap, and so much less time for me to write a book where I just make things up than to write a book that’s about real stuff that requires real research.

Now, I realize that I’ve painted with a very broad brushstroke here. I’m not saying that all people who many of us would classify as “pseudoscientists” publish quick and easy books where they just make things up and don’t do research. Some put a lot of time and energy into their books, and that is a separate category. But, next time you’re at a bookstore (they still have those, right?), take a look at the New Age or Spiritual sections. Count the number of books, amount of shelf space. Then go to the Skeptical section. Can’t find it? There’s a reason for that. You may be lucky to find Carl Sagan or Michael Shermer in the Science section. Or perhaps just in the broad Non-Fiction.

With that aside, being a skeptic – a real skeptic (with full knowledge of the No True Scotsman fallacy … see Terminology above) – takes a lot of work. It is trivially easy for someone to look at a rock in the latest image from Mars and claim that it’s a mechanical pump. Or a fossil of a sea star. And it will get posted on UFO Sightings Daily, and maybe even get picked up by a small online newspaper, and then maybe even by the Huffington Post. Yes, this has happened before.

Meanwhile, to do a proper skeptical investigation, we have to bring in information about how cameras work, how images from spacecraft are sent to Earth and processed, how color compositing works, how image resizing works, and what pareidolia is. It has taken me longer just to write that sentence listing the things you have to do than it would for me to look at a photo taken by an Apollo astronaut, see blooper, and send an e-mail to a UFO outlet online.

And then there’s actually doing the work. Fortunately, I’ve covered a lot of that material in podcasts #47, #48, #73, and #74. FYI, that’s nearly 3 hours of listening pleasure. All to investigate one single claim.

So, Is Skepticism Easy?


Wrap Up

See what I did there? With the “No”? Anyway …

For those reasons, it really does bug me when I hear people say, or read when people write, that being a skeptic is easy. So much easier than being what they term a “true investigator.”

No, in fairness, just as there are some paranormalists who do write lengthy tomes that are full of real investigation (at which point I would mainly just argue with the conclusions), I do know that there are investigators who do do a lot of real investigation. Graham Hancock springs to mind. I fully disagree with practically everything the man has said. But, he has done a lot of real work, and I have to acknowledge and give him credit for that.

But, people like him, on the paranormal side, are very few and very far between. Most that you hear from are fully on the quick-’n’-dirty claim side, where it really is much, much easier to not be a skeptic.

September 19, 2014

A Quick Post on Pareidolia

First, the subject of this post: A study into pareidolia has won an Ig Nobel Prize. (If you don’t know what the Ig Nobels are, go to the link and read.) This study has six authors and is published in the journal Cortex: “Seeing Jesus in toast: Neural and behavioral correlates of face pareidolia.” (sorry, it’s behind a paywall)

Why am I posting about this? Well, some of my run-ins over the years have involved Mike Bara, most notably with respect to a lunar ziggurat (his belief in a step pyramid on the far side of the moon). The argument, which took place over the course of several months, never involved pareidolia, but in the course of the argument, Mike made this statement:

“The actual truth is that there is no such thing as “Pareidolia.” It’s just a phony academic sounding word the debunkers made up to fool people into thinking there is scholarly weight behind the concept. It’s actually a complete sham. … The word was actually first coined by a douchebag debunker (is that my first “douchebag” in this piece?! I must be getting soft) named Steven Goldstein in a 1994 issue of Skeptical Inquirer. Since then, every major debunker from Oberg to “Dr. Phil” has fallen back on it, but it is still a load of B.S. There is no such thing.”

In other words, very explicitly stating that pareidolia does not exist. He thinks it’s a made-up term (it’s not, or it isn’t any more made up than any other word in language) for a made-up thing. When pressed about this point, Mike has claimed that his stance is at least partly based on the “fact” that there are no scientific studies that talk about pareidolia. That there are neurological disorders about people seeing things that aren’t real, but nothing on pareidolia.

Even if that were true (it’s not — at the very least, the above-mentioned paper proves that), just because a term is not described in medical studies with clinical research (and it is, the above-mentioned paper proves that) does not mean the phenomenon is not real.

I’m looking out my window now and I see a cloud that looks exactly like a mouse, complete with two ears, a snout, an eye, and a long body with tail. That doesn’t mean there is a giant mouse in the sky, nor does that mean that my brain is subject to some rare neurological disorder. It means I’m like every other person: My brain subconsciously (or consciously sometimes) tries desperately to fit randomness into something familiar.

That’s what pareidolia is, and it is a real phenomenon regardless of what you want to call it and regardless of whether scientific studies use the term or have researched it. (As a side-note, there are plenty of real phenomena and real things that have not been specifically and formally researched – much less published – in the broad disciplines of science. I’m in the midst of writing several research proposals at the moment, and a key part to these is past work — in several cases, there simply isn’t any, I’ll be the first person to study them. That’s part of the point of science.)

Now, if Mike happens to see this post and deign to respond, I suspect he will claim it’s one study, or it’s done by skeptics, or some such thing, and continue to deny that pareidolia exists. Why? I of course cannot know the workings of his mind, but I would suspect that it’s because that admission would then require a re-evaluation of most of what he claims, since much of his “evidence” for ancient aliens on the moon and Mars and elsewhere is simply pareidolia. Such as the tank or airplane hanger on the moon, or cities and faces on Mars. And he’s unwilling to do that, so he fights very hard to defend his claim that pareidolia is not only a made up term, but a made up phenomenon that doesn’t exist.

Remember that the next time you see Micky Mouse on Mercury, or a smiley face with a colon and close-parenthesis : )

Side-Note: I wanted to give you all a brief update on my silence lately. I’m still very busy. I’m in the middle of proposal-writing season and just submitted a grant proposal on Wednesday, have another due in 2 weeks, and two more due three weeks after that. Plus, I’m changing jobs, which means desperately trying to tie up several projects on one end while starting others on the other end. I am very much hoping to get back to things after the October 3 proposal is due, but I’m not sure yet if that’ll be when everything calms down or if it’ll be a bit longer.

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