Youtube comments of Astrum (@astrumspace).
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This video has been a long time coming - a remaster of one of the very first videos on my channel from the "Our Solar System's Planets" series. Apart from the structure of the script though, not a lot has survived from the original, we have new narration audio, new images, new music, updated information, 4K, etc. So far we have remastered Mercury, Jupiter, Saturn and Uranus, so which planet would you like to see remastered next?
The standing principle of this channel is “Space for Everyone”, it’s what goes into making every one of these videos and the foundation of our Patreon community. Join today to become a part of that. https://bit.ly/4anEb5u
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Hi Ben, I can only apologise. This has been the first time me and my team have tried something like publishing a book before and it definitely was a tough learning experience. The customer service side is disappointing, but I have made community posts with updates on the book and sent emails out. I will look into why my team isn't responding to your emails, as far as I was aware, they were answering all emails. Also, as far as I was aware, all books have been shipped so I'm disappointed you haven't received yours before Christmas, the supplier told us they should have all arrived before Christmas. I'm back from my holiday tomorrow, I will check out what's going on and kick people up the butt if I find out they have dropped the ball on this one. Sorry again. Alex.
P.S. the posters are printed and supplied by Astrography, a separate company I have partnered with, they have a lot of experience with this and aren't the same team working on the book, so hopefully they will be able to provide a polished service, whereas the book was done in-house with people that haven't done this before, which is why we have had some teething problems unfortunately...
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Here's a quote from the video for you: "From these accumulated samples, scientists were able to make an unexpected discovery. These were not sedimentary rocks, as had first been anticipated. Instead, Perseverance had discovered the igneous rock, Olivine.
Olivine is a type of rock that can actually be found here on Earth, for instance in parts of Australia. Unlike sedimentary rocks, which are made by particles of sand and other detritus slowly accumulating on top of each other over time, an igneous rock like Olivine is formed by the cooling of magma. As such, it seems that at one time or another Jezero crater must have been witness to some volcanic activity. While this might initially seem to be bad news - you might rightly conclude that not much life could be found in magma - scientists could discern signs of water erosion on the rocks. The ridges at the ends of the crater showed signs of water motion. Whatever volcanic activity had happened here, the water that created Jezero’s delta must have come after it had already cooled.
As such, the presence of igneous rock was actually good news. Igneous rock is usually very high in minerals – this is why the areas around volcanoes are so fertile. The presence of water and high mineral count rocks would have been perfect conditions for life."
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Here's a quote from the video for you: "From these accumulated samples, scientists were able to make an unexpected discovery. These were not sedimentary rocks, as had first been anticipated. Instead, Perseverance had discovered the igneous rock, Olivine.
Olivine is a type of rock that can actually be found here on Earth, for instance in parts of Australia. Unlike sedimentary rocks, which are made by particles of sand and other detritus slowly accumulating on top of each other over time, an igneous rock like Olivine is formed by the cooling of magma. As such, it seems that at one time or another Jezero crater must have been witness to some volcanic activity. While this might initially seem to be bad news - you might rightly conclude that not much life could be found in magma - scientists could discern signs of water erosion on the rocks. The ridges at the ends of the crater showed signs of water motion. Whatever volcanic activity had happened here, the water that created Jezero’s delta must have come after it had already cooled.
As such, the presence of igneous rock was actually good news. Igneous rock is usually very high in minerals – this is why the areas around volcanoes are so fertile. The presence of water and high mineral count rocks would have been perfect conditions for life."
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@facitenonvictimarum I'm going to assume you won't be needlessly provocative if I give you my actual thoughts on the matter. We don't know the Big Bang happened the way the theory suggests, because we can't see beyond this 350,000 years 'after the event' wall. Does that mean I think we should throw up our hands in the air and say we should give up? No, I don't. Let's say God exists, I think he would have given us such inquiring minds to better understand the universe we live in. If anything, God should be the ultimate scientist because he understands the laws of the universe perfectly, and can manipulate it to his whim - kind of thing. This is why I can't grasp these science verses religion debates, surely true science and true religion should go hand in hand, complimenting each other rather than pulling the other down. And it's not a new phenomenon, for most of history religion has tried to roadblock science, and now science tries to roadblock religion, and look where it gets people. Both sides end up being wrong - because like I said in another comment - science cannot disprove religion and religion cannot disprove science. You wouldn't apply the scientific method to religion, and you wouldn't apply faith to science (which you seem to be suggesting I do). Those methods are incompatible with the different fields.
So do I think we should be halting our endeavour to better understand to universe with the tools we possess? No. Do I think science disproves religion? No. I believe they go hand in hand.
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Good question! Although we're talking huge distances from the Sun (the Oort Cloud is roughly 2,000 to 200,000 AU from the Sun), the Sun is still closer and exerts a stronger gravitational pull than any nearby star, so these objects are still firmly within the gravitational well of our solar system. Right now, the nearest star system to us is Alpha Centauri, which is around 269,000 AU away. That being said, the Sun's hold on Oort Cloud objects is still pretty weak when compared with planets or inner solar system objects, and the Oort Cloud is mostly made up of small, low mass objects. This means perturbations from stars that pass near us from time to time can easily fling these tiny objects in new directions - sending long-period comets toward the inner solar system, ejecting them out of our solar system into interstellar space, or stealing them to remain in the new star system! And in turn, our solar system can also grab the outer objects from a passing star system and recruit them into our Oort Cloud, so stars passing nearby each other could effectively swap some objects depending on their movements.
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Here's a quote from the video for you: "From these accumulated samples, scientists were able to make an unexpected discovery. These were not sedimentary rocks, as had first been anticipated. Instead, Perseverance had discovered the igneous rock, Olivine.
Olivine is a type of rock that can actually be found here on Earth, for instance in parts of Australia. Unlike sedimentary rocks, which are made by particles of sand and other detritus slowly accumulating on top of each other over time, an igneous rock like Olivine is formed by the cooling of magma. As such, it seems that at one time or another Jezero crater must have been witness to some volcanic activity. While this might initially seem to be bad news - you might rightly conclude that not much life could be found in magma - scientists could discern signs of water erosion on the rocks. The ridges at the ends of the crater showed signs of water motion. Whatever volcanic activity had happened here, the water that created Jezero’s delta must have come after it had already cooled.
As such, the presence of igneous rock was actually good news. Igneous rock is usually very high in minerals – this is why the areas around volcanoes are so fertile. The presence of water and high mineral count rocks would have been perfect conditions for life."
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I'm sure Rayleigh Scattering plays a part, but I couldn't find any confirmation of that. Something I read said "What makes the E ring bluer than anything else in the solar system is probably its unusually uniform composition, de Pater says. Nearly all the particles in the ring appear to be the same size, about two microns in diameter. Showalter calculates an average radius of 1 0.3 microns, which means that laid side by side there would be 12,500 particles to the inch.
Particles of such uniform size, unheard of in any other ring structures, reflect light of only a narrow band of wavelengths, in this case in the blue, giving the E ring a unique blue cast. Saturn's other rings contain a broad range of particle sizes that reflect many wavelengths, making them look white."
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