This 4K drone video from @liulangCooki takes us on a journey from the base camp at 17,400 feet all the way to the summit of Mount Everest. Along the way, you can see tiny little people hiking up and the paths they take. Very cool.
Chinatown’s tenements are in the foreground, while the skyscraper canyons of Lower Manhattan rise above. This shows the area of Chinatown bordered by Bowery, Canal Street, and Columbus Park.
It took him around 60 hours to complete; he made a time lapse video of its creation:
Ok, I did not know this, and it’s blowing my mind: we have been imaging exoplanets for such a long time that scientists have made time lapse movies of their motion around their stars. This one is a 12-year time lapse of four planets orbiting a star called HR 8799 (images from 2009-2021):
And this one of Beta Pictoris b covers a time period of 17 years (2003-2020):
HR 8799 is 133.3 light-years away from Earth and Beta Pictoris is 63.4 light-years away. That’s amazing! (via @philplait.bsky.social)
This is a compilation of dozens of time lapses of plant growth, from seed to fruit in many cases. The plants featured include strawberry, avocado, tobacco, ginger, oak tree, cauliflower, potato, kiwi, and several types of mushroom (not a plant). The climbers (kiwi, peas) are so cool — their vines whipping around trying to find purchase. The thai basil was one of my favorites…watching all the delicate little flowers popping out in sequence up the branches is really lovely.
Well, the total solar eclipse was once again completely awesome. I didn’t have to go chasing all over tarnation this time, the telescope worked out amazingly well, and I got to share it with a bunch of first-timers, both in-person and via text. I’m going to share some thoughts, photos, and videos from others around the internet in an even bloggier fashion than usual. Here we go.
Quick solar prominence explainer interlude: if you had a clear look at totality, you may have noticed some orange bits poking out around the moon. NASA: What is a solar prominence?
A solar prominence (also known as a filament when viewed against the solar disk) is a large, bright feature extending outward from the Sun’s surface. Prominences are anchored to the Sun’s surface in the photosphere, and extend outwards into the Sun’s hot outer atmosphere, called the corona. A prominence forms over timescales of about a day, and stable prominences may persist in the corona for several months, looping hundreds of thousands of miles into space. Scientists are still researching how and why prominences are formed.
The red-glowing looped material is plasma, a hot gas comprised of electrically charged hydrogen and helium. The prominence plasma flows along a tangled and twisted structure of magnetic fields generated by the sun’s internal dynamo. An erupting prominence occurs when such a structure becomes unstable and bursts outward, releasing the plasma.
A timelapse video of totality from Scientific American:
A sunspot is simply a region on the surface of the sun-called the photosphere-that is temporarily cool and dark compared to surrounding regions. Solar measurements reveal that the average surface temperature of the sun is 6000° Celsius and that sunspots are about 1500° Celsius cooler than the area surrounding them (still very hot), and can last anywhere from a few hours to a few months. Sunspots expand and contract as they move across the surface of the sun and can be as large as 80,000 km in diameter.
Sunspots are magnetic regions on the sun with magnetic field strengths thousands of times stronger than the Earth’s magnetic field, and often appear in pairs that are aligned in an east-west direction. One set will have a positive or north magnetic field while the other set will have a negative or south magnetic field. The field is strongest in the darker parts of the sunspots — called the umbra. The field is weaker and more horizontal in the lighter part-the penumbra. Overall, sunspots have a magnetic field that is about 1000 times stronger than the surrounding photosphere.
This Instagram account has a lovingly assembled collection of solar eclipse stamps from around the world (Aruba, Bhutan, Chile, Romania, Kenya, and even North Korea).
Total solar eclipses occur because the moon and the sun have the same apparent size in Earth’s sky — the sun is about 400 times wider than the moon, but the moon is about 400 times closer.
But the moon is slowly moving away from Earth by about 1-1/2 inches (4 centimeters) per year, according to the NASA statement. As a result, total solar eclipses will cease to exist in the very distant future, because the apparent size of the moon in Earth’s sky will be too small to cover the sun completely.
“Over time, the number and frequency of total solar eclipses will decrease,” Vondrak said in the statement. “About 600 million years from now, Earth will experience the beauty and drama of a total solar eclipse for the last time.”
Ok, that’s all for now. Depending on what else I come across, I might update this post periodically throughout the day. I know some of you who were lucky enough to see the total eclipse shared your experiences in the comments of yesterday’s post but feel free to do so here as well.
I’ve always been a little fascinated by the list of the largest cities throughout history, so this animated version from Ollie Bye is right up my alley. While watching, it’s interesting to think about what makes cities grow large at specific times: a mixture of economics, demography, social movements, empire/colonialism, technology, and the like.
This is a cool thing I had not seen before: Chronolog. Since 2017, they’ve been helping organizations document environments over time by compiling photos taken by visitors, who then get sent information about the area they’ve visited. Here’s how it works:
Changes in our environment are difficult to see and understand because they happen gradually, but long term monitoring projects are expensive and complex. Chronolog solves this problem by connecting communities with land stewards to create crowd-sourced time lapses of important natural areas.
Chronolog’s mission is twofold: First, to engage people with nature in an interactive new way. Second, to keep a record of phenological change for scientific use. By making environmental conservation a collaborative activity, people become interested in participating and compelled by the findings.
Millions of years ago, the supercontinent of Pangea slowly started to break apart into the continents we all live on today. In this video from the makers of ArcGIS mapping software, you can watch as the reconfiguration of the Earth’s land happens over 200 million years.
Once, the craggy limestone peaks that skim the sky of Everest were on the ocean floor. Scientists believe it all began to change about 200 million years ago — at around the time the Jurassic dinosaurs were beginning to emerge — when the supercontinent of Pangea cracked into pieces. The Indian continent eventually broke free, journeying north across the vast swathe of Tethys Ocean for 150 million years until it smacked into a fellow continent — the one we now know as Asia — around 45 million years ago.
The crushing force of one continent hitting another caused the plate beneath the Tethys Ocean, made of oceanic crust, to slide under the Eurasian plate. This created what is known as a subduction zone. Then the oceanic plate slipped deeper and deeper into the Earth’s mantle, scraping off folds limestone as it did so, until the Indian and Eurasian plates started compressing together. India began sliding under Asia, but because it’s made of tougher stuff than the oceanic plate it didn’t just descend. The surface started to buckle, pushing the crust and crumples of limestone upwards.
And so the Himalayan mountain range began to rise skyward. By around 15-17 million years ago, the summit of Everest had reached about 5,000m (16,404ft) and it continued to grow. The collision between the two continental plates is still happening today. India continues to creep north by 5cm (2in) a year, causing Everest to grow by about 4mm (0.16in) per year (although other parts of the Himalayas are rising at around 10mm per year [0.4in]).
Lego master Jumpei Mitsui spent over 400 hours building a 3D version of Hokusai’s Great Wave off Kanagawa out of 50,000 Lego bricks — you can watch a time lapse of the construction in the video above. The build was included at an exhibition of Hokusai’s work at the MFA in Boston:
In order to create Hokusai’s Wave in three dimensions, he made a detailed study of rogue waves and their characteristics. He also drew on childhood memories of waves near his family home at Akashi on the Inland Sea.
The video slows down to realtime in spots, so you can see how fast he’s actually building (quite fast). And you can also see the level of trial and error involved as he builds and then un-builds the waves until he’s happy with them. (via the kid should see this)
About once a year, boat owners on Wisconsin’s Lake Chippewa gather to move a small floating island from blocking access under a bridge. It’s a simple application of Newtonian physics: the boats all just nose into the island, gun their motors, and slowly shove the island out of the way.
The floating clump of mud and plant material is technically a bog, not an island, but it’s hefty enough to support the growth of trees all the same. Looking at it, you could easily believe it was a fully-fledged island. That is… until it starts drifting around.
“It’s one of the first things you look for when you come out here in the morning; where’s the bog?” Denny Reyes, owner of The Landing in Chippewa, told Arizona News.
The problematic bog is actually one of many, but it’s one of the biggest and close to a bridge that can get blocked when it goes for a wander. In 2022, with the wind on their side, it took around 25 boats to budge the bog and collectively push it back out into the lake.
For eight years, Keith Loutit captured hundreds of thousands of images of Singapore, combining the pulsing energy, the new buildings reaching for the sky, and the busy shipyard of one of Asia’s most iconic and futuristic cities into this 5-minute timelapse video.
When we pass by landscapes they appear fixed in time but they change around us constantly. Singapore has gone through an incredible change over the past 8 years, and I have tried to capture as much of this change as possible. There were no permanent cameras used in this film, it required regular site visits over 988 shoot days and over 3300 matched shots.
Eternal Spring is a short timelapse film by Christopher Dormoy featuring beautiful shots of melting snow and ice. Watching this, it is difficult not to think of the climate crisis, which is of course the whole point.
Ice is a beautiful element I love to work with in my video projects. I wanted to feature the ice melting aspect in timelapse process to illustrate the phenomenon of global warming. Melting ice is beautiful and symbolizes spring, but it can also symbolize a problematic aspect of our climate.
And wow, that shot of the Moon at the halfway point… (via colossal)
So you’ve seen how an 18th century sailing battleship was built. But that was for a vessel 227 feet long that could carry around 850 people. This timelapse video shows the construction of a much larger ship: a modern-day, 1,100-foot-long cruise ship that houses 6,600 passengers. The size of this thing is just ridiculous, bordering on the obscene. It took me a second to realize that the giant thing they were constructing in the first minute of the video is in fact an engine, which, when compared to the rest of the ship, is not that big at all. Make sure you watch to the end to see the oddball paint job on the bow.
Sure, the James Webb Space Telescope and ok, the Hubble, but the Solar Dynamics Observatory has to be right up there for producing some of the most jaw-dropping space photography around. This 4K video from NASA’s Goddard Space Flight Center condenses 133 days of the SRO’s observations of the Sun into a soothing hour-long time lapse.
This 360° time lapse video, filmed by meteorologist Witek Kaszkin in 2015, follows the never-setting Sun in a 24-hour trip around the sky above the Arctic Circle as the icy Arctic landscape is bathed in constant summer sunlight.
Just how do haboobs form? When air is forced down and pushed forward by the front of a traveling thunderstorm cell, it drags with it dust and debris. Winds of speeds up to 60 mph can stir up dust and sand and create a blowing wall as high as 10,000 feet. Haboobs usually last only 10 to 30 minutes, but on rare occasions can last longer and create hazardous conditions for ground transportation systems, air traffic and motorists.
The port of Amsterdam is one of the busiest seaports in Europe. But it gets really busy when there are tall ships from all over the world and everyone wants to get out on the water to see them. This is a time lapse video taken at the 2015 SAIL maritime festival that shows the port absolutely teeming with ships and boats of all shapes and sizes.
Watch as a single seed is plucked from a red bell pepper, planted in soil, and eventually grows into a fruit-bearing plant. I love how plant leaves in time lapse videos always look like they are flapping madly, trying in vain to reach the nourishing light.
From September to March each year, the Sun never sets at the South Pole. This time lapse video, taken over 5 days in March, shows the sun circling the entire sky just above the horizon, getting ready to set for the first time in months. (via sentiers)
Seán Doran took 78,846 frames of data compiled by the Solar Dynamics Observatory over the course of a month and made this absolutely fantastic time lapse of the Sun slowly rotating and burning and flaring. Put this on the biggest, high-resolution screen you can and pretend you’re in the solar observation room of the Icarus II in Sunshine.
Backed by a soundtrack from Alexis Dehimi that sounds like it’s from a Christopher Nolan or Denis Villeneuve movie, Thomas Blanchard’s short film provides a glimpse into the tiny, dynamic world of plants and insects: “A butterfly in the process of being born, plants in the process of growing, Carnivorous plants in the process of hunting.”
It’s all very dramatic, but never fear, a tender disclaimer in the video’s description: “All insects captured by the plants have been released.” (via colossal)
Using data from Johns Hopkins, this time lapse video shows the spread of Covid-19 across the US from Feb 2020 to Sept 2021. This looks so much like small fires exploding into raging infernos and then dying down before flaring up all over again. Indeed, forest fire metaphors seem to be particularly useful in describing pandemics like this.
Think of COVID-19 as a fire burning in a forest. All of us are trees. The R0 is the wind speed. The higher it is, the faster the fire tears through the forest. But just like a forest fire, COVID-19 needs fuel to keep going. We’re the fuel.
In other forest fire metaphorical scenarios, people are ‘kindling’, ‘sparks being thrown off’ (when infecting others) and ‘fuel’ (when becoming infected). In these cases, fire metaphors convey the dangers posed by people being in close proximity to one another, but without directly attributing blame: people are described as inanimate entities (trees, kindling, fuel) that are consumed by the fire they contribute to spread.
In a series of four short time lapse films, Casper Rolsted captures the changing of the seasons in Denmark, from summer (top) all the way through to spring (bottom). I’ve gotta say, the springtime video in particular put a smile on my face — all those flowers emerging from the snowy ground, reaching out for the strengthening sunlight.
Always a treat to watch a new time lapse storm video from Mike Olbinski. It’s in 8K as well, so if you have the bandwidth and the screen resolution, this is going to look extra good. You can see more of Olbinski’s breathtaking videos here as well as plenty more cloud content. kottke.org: home of fine cloud products. (via colossal)
This is pretty simple: 10,000 mealworms eating a tomato, piece of corn, and romanesco broccoli, filmed with a time lapse camera. My only comment is that for something called a mealworm, they don’t eat as quickly as I thought they would. 10,000 mealworms couldn’t polish off a tomato in less than 48 hours? You’re never going to be a beetle at that pace! (via the kid should see this)
On March 19, after seismic activity in the area, an eruption occurred in Fagradalsfjall, Iceland, adding a new volcano to the country’s already charismatic geology. Because the ongoing eruption is relatively small, steady, and located fairly close to Reykjavik, it’s been well-documented, both by drone and by live webcam. YouTube user stebbigu stitched footage from the live feed into a 5-minute time lapse of the formation of the volcano that covers 18 days, from the first few hours to a couple of days ago. The night views, with all that pulsing orange lava, are especially mesmerizing.
Ollie Bye has created an animated time lapse of the growth of London from a small Roman town in 47 ACE to the largest city in the world (during the Victorian era) to the massive, sprawling city it is today.
In this six-minute time lapse video, you can watch a single cell grow into an alpine newt salamander. I got this via Craig Mod’s post about looking closely, in which he asks: when precisely does this collection of cells become a salamander?
The very definition of astonishing seems to be embedded in the way the cells move, as they grow from a “knowable” half-a-dozen dots to the millions and billions of the finished product. The phrase “sentience of the swarm” runs through my mind as I watch it. I am delighted and terrified: These little dots in aggregate know so much more than I ever will.
This is a captivating 4K time lapse video of a boat navigating the canals and waterways of the Netherlands. Infrastructure nerds will appreciate all of the bridges, locks, piers, signals, etc.
If you live in the US and Canada, you might have the opportunity to check out Comet NEOWISE over the next few weeks with a good pair of binoculars or even with the naked eye. EarthSky has the skinny.
By mid-July (around July 12-15), the comet will also become visible at dusk (just after sunset), low in the northwest horizon, for observers in the mid- and northern U.S. How can it be visible in both dawn and dusk? The answer is that the comet is now very far to the north on the sky’s dome. For those at latitudes like those in the southern U.S. (say, around 30 degrees north latitude), the comet is very nearly but not quite circumpolar, that is, it’s nearly in the sky continually, but it isn’t quite … that’s why we at southerly latitudes will have a harder time spotting it in the evening.
It appears this comet is holding up better than Comet ATLAS did earlier in the year. Here’s a beautiful time lapse of NEOWISE rising over the Adriatic Sea in the early dawn:
And a time lapse of the comet from the International Space Station (it starts rising around the 3-minute mark):
Stay Connected