You are currently browsing the tag archive for the ‘Discovery’ tag.

Longtime readers will know that Ferrebeekeeper eschews the popular fascination with Mars in favor of our much closer sister planet, the luminous Venus. Therefore, I was delighted to see the second planet from the Sun making front page headlines around the globe (of Earth) this week when scientists discovered traces of phosphine gas in the strange, dense Venusian atmosphere.

The internet tells us that phosphine is a colorless, flammable, very explosive gas which smells like garlic or rotten fish. Additionally, it is extremely toxic. This stuff is not exactly the must-have gift of the season (well…maybe for Christmas, 2020), so why am I so excited to find it on a planet which may be the best option for an off-world human colony?

Phosphine exists on Earth where it is produced by the decomposition of organic matter in oxygen-free conditions (it is also a by-product of certain kinds of industrial processes). This means that the only known methods of producing phosphine involve living things (I suppose industrialists and anaerobic bacteria both qualify as such). It may well be that phosphine is produced on Venus due to some quirk of the planet’s strange atmosphere or weird volcanism (which is not well understood and seems to be fundamentally different from that of Earth).

In the past we have explored some compelling yet inconclusive evidence of life in the clouds of Venus. Today’s news adds to that evidence, but is still not compelling. The phosphine gas and the cloud bands both demands further study, though (and if we happened to learn more about the opportunities for cloud cities, so be it). I have long thought that a robot blimp probe of Venus’ clouds is the most rational next exploration mission for NASA (no matter how much I love super rovers). Perhaps the phosphine revelation will bring other people closer to this view. Maybe you should drop a quick email or phone call to your favorite elected representative about that very thing (or you could always write Jim Bridenstein–he is the rare Trump appointee who seems to be basically competent).

Speaking of basic competence, I was sad to see many of the liberal arts enthusiasts on my Twitter feed angrily denouncing this discovery and demanding “no more money for space!” (I unfollowed them all, by the way–sorry poetry). Beyond the fact that this discovery was made here on Earth by a clever lady with a simple telescope and a gas chromograph, money spent on space exploration is spent here on Earth. Such expenditures further fundamental discoveries in material science, engineering, aerospace, robotics, and other high tech disciplines. Our world of high tech breakthroughs, the internet, super computers, solar power, nanotechnology, and super safe aviation (among many other things) was made possible by government money spent on space exploration (or did you think some MBA guy running a private company would ever think more than one quarter into the future?). Beyond these reasons though, Venus was once the most earthlike of all other Solar System planets. Long ago it almost certainly had warm oceans teeming with life. Uh, maybe we should have a comprehensive answer about what happened there before we say that government money should only be spent on social initiatives. If you came home to your nice row house and noticed that the house next door had been knocked down, the neighbors were gone, and also the temperature there was 470 degrees Celsius (880 degrees Fahrenheit) and the sky replaced with sulfuric acid, maybe you would ask what happened! (although, to be fair, that very thing seems to be happening now in California, and a substantial number of people say “science has no place in understanding this).

Anyway, commentary about earth politics aside, I continue to be more and more excited about our closest planetary neighbor. Seriously, can you imagine how cool a robot probe-blimp would be?


After posts about giant hornets which can dissolve flesh with their stings,  a huge asteroid passing by Earth, and a mass cemetery in New York City, it is hard to know what to write about next… Thankfully, astronomers are way ahead of me!  This week featured the announcement that scientists have discovered a black hole “right in our backyard.”

unnamed (1)

Fortunately, what counts as our backyard to astronomers is not really our backyard by any quotidian definition.  Located in the southern constellation Telescopium, the newfound black hole is 1,000 light-years away: although it is the closest black hole to Earth discovered thus far, it is still 9.5 quadrillion kilometers away (5.88 quadrillion miles).  We probably won’t blunder into it by accident when we sneak downstairs for a midnight snack.

Black holes, as you know, are deformed patches of spacetime where gravity is so strong that all proximate matter and electronic radiation (like light) are pulled into the gravity well.  Black holes form when exceedingly massive stars collapse at the end of their life cycle:  they become more massive as additional matter accretes into them.   For example the supermassive black hole at the center of the galaxy is believed to have the mass of 431 million suns!

Space Black Hole Nearby

The black hole’s orbit in the star system is marked in red

The newly discovered Telescopium black hole is nothing like that though.  Scientists estimate its mass to be mere 4 to 5 times that of the sun.  Astronomers were able to discover the object only because the other two stars in its solar system (which they were studying in order to better understand binary stars) were not orbiting each other in a comprehensible fashion.  Some massive third party was implicated…yet nothing was visible. Ergo, a black hole.  There are believed to be hundreds of millions or even billions of these invisible horrifying objects in our galaxy alone, but they are nearly impossible to find unless there are nearby objects for them to interact with (yet which have not been slurped down into the ravenous maw).

I wonder where the actual closest black hole to Earth is located? Maybe we don’t really want to find out…


Ferrebeekeeper is baffled and alarmed by neutron stars (here is a post about them from back in the day).  A factoid from that post summarizes what makes these super-dense stellar remnants so disconcerting: a 1.27 square centimeter cube of neutron star material has approximately the same mass as all of Earth’s 7.7 billion human inhabitants (although the tiny cube of pure neutrons presumably lacks the same lively personality).  It is almost impossible to conceive of such a material…which is why we are reporting today’s space news! Astronomers at the Greenbank Radio telescope in West Virginia (pictured above) have discovered the largest known neutron star 4600 light years from Earth.  The star is known by the unlovely name J0740+6620 and it has 2.14 times the mass of the sun packed into a sphere with a diameter of 25 kilometers (to contextualize in instantly familiar terms, 25 km is the distance from Hell’s Kitchen to JFK airport).  This particular star is a rotating neutron star—a pulsar–which emits two radio beams from its poles as it rotates at hundreds of revolutions per second.  lies at the upper theoretical limit of how large a neutron star can be without collapsing into a black hole.


The star was discovered by luck as astronomers researched gravitational waves (which are vast invisible ripples in space time).  Because the neutron star has a white dwarf companion, astronomers were able to precisely calculate the star’s mass with some fancy math.   The mass of the white dwarf distorts spacetime around the neutron star to a degree which causes the pulsar’s radio beacons to be delayed by tenths of millionths of a second.  Astronomers measured these delays (the phenomenon is known as “Shapiro Delay”) and calculated the mass of the neutron star accordingly.


One of the more endearing woodland creatures of the Appalachian hardwoods where I grew up is the southern flying squirrel (Glaucomys volans).  My uncle was always fighting with one that was storing its winter nuts in the roof of the ramshackle log cabin owned by my great-great grandfather.  The nocturnal creatures have huge anime eyes which glisten in their small anxious faces.  They are extremely social and clever at stocking their winter larder.  Although we think of them as subsisting on nuts, this is really their winter provender: during the clement months they eat a wide diet of berries, buds, mushrooms, and flowers…as well as invertebrates, small animals, eggs, and even nestlings (I always imagine the original ancestors of the primates were not unlike the clever and versatile squirrels).  Coincidentally, flying squirrels do not fly, but can glide from tree to tree by stretching out their special sheetlike membrane (which is called a patagium).


One would think that we would know all there is to know about flying squirrels–perhaps not the species in remote forests of Vietnam, but at least the three American species (there are also two closely related northern species: Glaucomys sabrinus & Glaucomys oregonensis).  Yet this turns out to be wrong.  This year (2019), Jonathan Martin, a professor of forestry in Wisconsin, was exploring the forest at night with a black light when he made a shocking discovery.  He heard some squirrels rustling in his bird feeder and turned the light on them and discovered that, under ultraviolet light they fluoresce hot pink!  The North American genus (Glaucomys) of flying squirrels have a rave-tastic secret color. Sadly most of the photos I could find of this phenomena, were pictures of sad little moth eaten flying squirrel pelts in natural history museums, but here is a black light picture which shows that it is the pale bottom half of the squirrel which glows pink under UV light.


Hidden UV patterns are common among flowers and invertebrates (spiders and scorpions are particular masters).  Even parrots and amphibians are known to utilize splotches of fluorescent color for secret in-species communications.  Yet fluorescent coloration was unknown in mammals until present.  The discovery is so new that we don’t yet know what it is for…or even whether it is a trait shared by some off the numerous old-world flying squirrels.  More research is necessary, and Ferrebeekeeper will try to keep up with the theories (I suspect that, as with parrots and spiders, it is a way for squirrels to keep track of each other in the three dimensional maze of dark forest canopies).  Still it is good to see that this mainstay of childhood joy from 1980s skateboards and puffy stickers has a natural home in the great forests of North America.  The producers of Miami Vice would be proud…although perhaps they would be dismayed to see that the squirrels’ white light colors are normal earth tones.



Sometimes if you aren’t watching the heavens (or the news) closely enough, you miss a major astronomical discovery.  For example last summer, astronomers discovered a galaxy which formed only one or two billion years after the Big Bang (so I guess it is unclear whethter I missed this story by one year or by 12 billion).  At any rate, the galaxy hunters used the Hubble space telescope to peer through a powerful gravitational lense far away in space.  Gravitational lenses are areas where timespace is warped like a huge lense by high-gravity phenomena, and a viewer can use them like a huge lense to see far-away objects.  By using the Hubble telescope together with the gravitational lense they were able to see back a dozen billion years in time to the edge of the universe…as it once was not long after creation.  What they saw perplexed them.


There is a fundamental difference between galaxies.  Galaxies where stars are being formed tend to be blue and spiral shaped (like our own beloved Milky Way!).  Galaxies where stars have largely stopped forming are “red and dead” since the remaining stars tend to be long lived red dwarf stars and the bright young (short-lived) blue stars are mostly gone.  These red galaxies are not shaped like spirals, but tend to be elliptical shaped (like an egg or a football, not like one of those evil gym machines).


The ancient galaxy at the edge of the universe was neither of those colors or shapes. It was a dense yellow disk.  Stars formed in an (enormous) accretion disk but then, for some reason, new star formation stopped.  The blue stars burned out (“the light that shines twice as bright etc, etc..”), but the yellow middle aged stars were still burning.   The galaxy had three times the mass of the Milky Way but scrunched into a pancake of much smaller area.


So do galaxies always form as disks and then either become self-renewing blue spirals (maybe by colliding with other galaxies or clouds of dust)or dead red footballs?  Or was this early yellow disk galaxy an abberation? Or is our own galaxy truly new (well…newish…being only a few billion years old)?  I do not understand astrophysics well enough to answer these questions or even formulate them properly (although I get the sense some of these questions may not yet be answered by anyone in any comprehensive way), but I would love to hear what people can add to this rudimentary yet compelling story of shapes and colors.



 Portrait of the Hon. Mrs Ernest Guinness (Frank Dicksee, 1912) oil on canvas

Of all the colors in my paintbox I am most dissatisfied with blue.  There are a lot of strong greens and there are vivid cadmium yellows, oranges, and reds.  There is ivory black which as dark as the depths of the void and dioxazine violet which is a great purple, but blue is a difficult color.  The brightest blues of the sky are from sunlight which has been scattered by the atmosphere.  The blues of bird feathers and butterfly wings are from careful refraction of light from reflective structures in the wings: if you ground peacock feathers fine enough there is no more blue….


The main blue pigments in the painter’s palette are cobalt blue (which is ancient and robust but a trifle subdued) ultramarine blue (a sulfur-containing sodium-silicate) which inclines toward purple, and cerulean blue a sky blue cobalt stannate which is painfully expensive.  Oh! there is a manganese blue out there in the paint stores, but I never used it until I bought a little tube a month ago,  so we’ll see how it turns out: it is sort of a tropical powder blue.  They are each beautiful but they each have their problems and none is the pure royal blue in the center of the spectrum which is bright, non-toxic, and lightfast (although the poisonous cobalts and…ultramarine too… last through the long ages).  This is why I was excited when my old painter friend Brendan (a raven painting specialist) sent me a link to an article about a new blue pigment.


YInMn blue

The new blue is called YInMn blue.  Discovered a couple of years ago by Robin Young, the new blue is lightfast, stable, and seemingly nontoxic (although sometimes in the past problems have taken a while to become evident).  The new blue is made of yttrium oxide, indium oxide, and manganese oxide.  It seems to be extremely lasting, and best of all it is very very blue.  Unfortunately, right now it is expensive (and the paint companies are still testing it out), but I have a feeling it might hit the market soon, and whatever its faults it can’t be worse for one’s health than carcinogenic cobalt.

Kudos to Robin Young for the new color.  I can’t wait to get a tube and paint some truly blue flounders…speaking of which, i better head back to the easel.



Hey, remember the super-massive black hole at the center of the galaxy?  Well, scientists have been thinking about it too, and they concluded that other black holes should sink into the middle of the galaxy near to the central monster.  To find out if this holds true, they utilized the Chandra X-Ray Observatory (an x-ray telescope located on a satellite in orbit around Earth) to observe stars near to the center of the galaxy.  Black holes can’t be detected on their own, but if they interact with nearby stars they produce esoteric x-rays which can be detected (so long as the x-ray telescope is outside of a planetary atmosphere, which absorbs x-rays, thank goodness).  Within the tiny (er, relatively tiny) three light year area which they scrutinized, the astronomers discovered dozens of black holes.  Extrapolating this data leads them to conclude there are more than 10,000 black holes at the center of our galaxy.  I wish I could contextualize this for you, but I just can’t… the concept of 10,000 super-dense gravity wells flattening and tearing all of the spacetime in the center of the galaxy into Swiss cheese is to disturbing for me to deal with (in any other way than blurting it out in a midnight blog).  I’m not sure this universe is safe at all. I am going to go lie down.



There are two amazing pieces of space news today to shock and astonish you.  First, we have found a near-analog to planet Earth orbiting a red dwarf star—and it is “only” 11 light-years from our Solar System.  The exoplanet is named  Ross 128b and it is orbiting a quiet red dwarf star (most red dwarves are subject to solar flares which release life cleansing jolts of exotic radiation, but, like our delightful Sun, Ross 128 seems to be much more sedate (perhaps its placid life has something to do with its bland name which makes it sound like a dullard clone friend on an 90s sitcom).  In this age of exoplanet discovery, it is easy to lose sight of what an astonishing find this is, but I grew up in a world with only nine known planets.  Remember back when Ferrebeekeeper was rhapsodizing about weird icy oddballs like Gliese 581 g?  Ross 128B seems like it roughly the same size and temperature as Earth and it is right in our backyard.  Additionally, it is moving towards us, in a mere 78000 years it will be the closest exoplanet to Earth!


The other “news” is more conditional and vague, but no less exciting to me.  NASA has been floating the concept of a balloon mission to Venus.  I have been hoping for more attention to our nearest neighbor (since I harbor fantasies of living there, in the sweet spot above the merciless clouds) a balloon probe to see what the atmosphere is actually like would let us know whether his fantasy is at all workable.   The Soviet Union actually sent some balloon probes to Venus back in the early days of interplanetary exploration, but they were crude things which were not built to last and they told us little.  Let’s do it right this time and find out everything about our mysterious sister planet!  It is going to be a little while before Ross 128B is in range so let’s explore the immediate neighborhood and get to work on living abroad while there is still time!  


What could we talk about today other than NASA’s stunning announcement of a “nearby” star system with seven Earthlike planets?  Three of these rocky worlds are comfortably in the so-called habitable zone where liquid water exists and earthlike life could be possible.  The star is TRAPPIST-1, a small-batch artisanal microstar with only a tenth the mass of the sun.  It glistens a salmon hue and is half the temperature of the sun (and emits far less energy).  Fortunately, all of its planets are much closer to the pink dwarf than Earth is to the sun, and so the middle worlds could be surprisingly clement.  These planets are close to each other and sometimes appear in each other’s skies larger than the moon looks to us!  The coral sun would be dimmer… but 3 times larger in the sky!  It is a pretty compelling picture!  Imagine sauntering along the foamy beaches of one of these worlds and looking up into a pool-table sky filled with Earth sized worlds and a cozy Tiffany lamp in the sky emitting titian-tinted light.


I am leaving out the details we know about the seven worlds because we don’t know much other than approximate mass (approximately earthsized!) and the ludicrously short length of their years.  Since the inner three worlds are tidally locked they may have extreme weather or bizarre endless nights or be hot like Venus (or bare like Mercury).


Trappist1 is 40 light-years (235 trillion miles) from Earth in the constellation Aquarius.  It seems like an excellent candidate for one of those near-light speed microdarts that Steven Hawking and that weird Russian billionaire have been talking about (while we tinker with our spaceark and debate manifest destiny and space ethics).  However, before we mount any interstellar expeditions to Trappist1 (an anchoritic-sounding name which I just cannot get over) we will be learning real things about these planets from the James Webb space telescope when it launches in 2018–assuming we don’t abandon that mission to gaze at our navels and pray to imaginary gods and build dumb-ass walls.


Today’s announcement is arguably the most astonishing thing I have heard from the astronomy community in my lifetime (and we have learned about treasure star collisions and super-dense micro galaxies and Hanny’s Voorwerp).  Ferrebeekeeper will keep you posted on news as it comes trickling out, but in the meantime let’s all pause for a moment and think about that alien beach with a giant balmy peach sun…. Ahh!  I know where I want to escape to next February!


Imagine a relaxing pine forest with a soft carpet of orange needles and gentle green boughs waving in the breeze. Wood ears grow on fallen logs, and little insects scurry around the ferns and the air is filled with the slightly spicy smell of pines. There are whistles, songs, and clicking squeaks–not unlike the chatter of squirrels and the familiar melodies of passerine birds, but when a chipmunk darts by, you realize that it is no chipmunk at all but a weird miniature running pheasant. Then a further shock comes when you see the miniature pheasant has teeth and claws—it is a tiny dinosaur!  You are in a Cretaceous pine wood, and though, there may be primitive birds somewhere, the rustling all around you and the darting russet forms running through the undergrowth are little dinosaurs. Is that crashing noise coming towards you a larger predator?


Paleontology lets us travel to the past and reconstruct such scenes with increasing accuracy.  As we gain further fossil evidence and our grasp of zoology, biology, and genetics deepens, we can see further into this vanished world.  However, sometimes a literal piece of the past falls directly into our hands.


Look at this incredible piece of amber obtained in a market in China!  In addition to beautiful yellow-orange amber and glistening air bubbles, there is a gorgeously preserved ant, some bits of bark & plant matter, and…some sort of weird feathered tail!  This is not a recent piece of amber, either, it comes from an amber mine in northern Myanmar, but it really comes from a pine forest 99 million years ago in the Cretaceous: the world I described above.


The tail seemed like the tail of a small bird, but CT scans revealed eight vertebrae from the middle or end of a long narrow tail which was not fused into a bird’s pygostyle (an anatomical feature which allows birds to move their tail feathers as a single unit like a fan).  Scientists realized that the amber contains the feathers, skin, and soft tissue of a dinosaur—a juvenile coelurosaur—about the size of a sparrow.


If one of these things got into the office and the office manager had to remove it, I suspect people would say there was a bird in the copy room.  Yet it was definitely a dinosaur. The best preserved fossils of this sort of ecosystem come from East Asia—China, Mongolia, and Myanmar. Look at the hints of Chinese ink drawing which have found their way into the paleontological drawing of a coelurosaur below.


As scientists unravel the secrets trapped in the amber, we will be learning a lot more about this particular dinosaur, but other wonders may lie ahead.  Myanmar is emerging from isolation, civil wars, and turmoil to rejoin the community of nations.  What else lies buried in that mine or others like it?

Ye Olde Ferrebeekeeper Archives

September 2020