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Phoenix A* vs. TON 618: Which One is Really The Biggest? | Black Hole Masses Phenomenon
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🌟 Explaining the Black Hole Masses Phenomenon (or How to Determine the Real Mass of Black Hole?) + Solar System vs. Phoenix A* vs. TON 618 Size Comparison
📖 A black hole is a region of spacetime where gravity is so strong that nothing, including light or other electromagnetic waves, has enough energy to escape it. The theory of general relativity predicts that a sufficiently compact mass can deform spacetime to form a black hole. The boundary of no escape is called the event horizon. Although it has a great effect on the fate and circumstances of an object crossing it, it has no locally detectable features according to general relativity. In many ways, a black hole acts like an ideal black body, as it reflects no light. Moreover, quantum field theory in curved spacetime predicts that event horizons emit Hawking radiation, with the same spectrum as a black body of a temperature inversely proportional to its mass. This temperature is of the order of billionths of a kelvin for stellar black holes, making it essentially impossible to observe directly.
❓ So, how did I calculate, even if very approximately, but seemingly impossible (the real mass of black holes), if humanity does not have such information... or does it have?
🌐 We know that Phoenix A* is 100B SolarMass (SM), and TON 618 is 66B SM. But both of these masses are not relevant today. Like, we see space objects like they were thousands or billions years ago (depending on how far away the observed object is). Physics cannot “live” separately from time. It means that the data that we now have on hand doesn't correspond to the characteristics at the current moment of existing the black hole (for itself, not for the observer from the Earth!)
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1⃣ PHOENIX A*
▫️ Look, we have Phoenix A*, which is 100B SM. It took 5.86 billion years (source: Wiki) for light to travel to reach the Earth, so we see it as it was 5.86 billion years ago
▫️ We also know that Phoenix A* grows by 60 SM per year (source: Wiki). Anyways, that's 5.86 billion years ago information, today's one may be way different, depending on how dense the cosmic environment the black hole has been in over the past 5.86 billion years.
▫️ We're doing some calculations...
🔹 5.86B years × 60 SM = 351.6B SM
🔹 100B SM + 351.6B SM = 451.6B SM
▶ *Phoenix A*: 451.6B SM*
2⃣ TON 618
▫️ TON 618 is 66B SM. It took 10.8 billion years (source: Wiki) for light to travel from TON 618 to Earth, so we see it as it was 10.8B years ago
▫️ Unfortunately, I didn't find any information about black hole's growing rate (or there's still no information about it..? If you find something, say to me!), so let's estimate: 50 SM per year (It’s OK to estimate and guess, based on the information that we have now (Phoenix A*: 60 SM per year), as long as it doesn’t violate the laws of physics and existence).
▫️ Some calculations...
🔹 10.8B years × 50 SM = 540B SM
🔹 540B SM + 66B SM = 606B SM
▶ *TON 618: 606 billion SM*
_________________________________
⚠ Naturally, all calculations are *VERY approximate.* It's based on the data that humanity has now, it's nearly impossible to accurately determine the current physical characteristics of the black holes, since this is influenced by a huge number of factors: changes in the density of the space environment, matter around, which need to be constantly monitored, changes recorded, etc., and maybe something else... But I think I got the point across..?
👍 If you have something to add, advise, throw an idea or hypothesis, write in the comments! :)
🎶 Music in the video: Crystal Castles - Kerosene
_____________________________________________
Thank you for watching! If you enjoyed, make sure to subscribe, and thumb up. It will help us a lot!
#yearofyou #astronomy #science #physics #simulation #astrophysics #education #edit #quantumphysics #blackhole #explaining #planets #spacelover #cosmology #future #nasa #space #ton618 #phoenixa #multiverse #universe #earth #milkyway #sun #size #comparison #howto #youtube #facts #ai #shorts
📖 A black hole is a region of spacetime where gravity is so strong that nothing, including light or other electromagnetic waves, has enough energy to escape it. The theory of general relativity predicts that a sufficiently compact mass can deform spacetime to form a black hole. The boundary of no escape is called the event horizon. Although it has a great effect on the fate and circumstances of an object crossing it, it has no locally detectable features according to general relativity. In many ways, a black hole acts like an ideal black body, as it reflects no light. Moreover, quantum field theory in curved spacetime predicts that event horizons emit Hawking radiation, with the same spectrum as a black body of a temperature inversely proportional to its mass. This temperature is of the order of billionths of a kelvin for stellar black holes, making it essentially impossible to observe directly.
❓ So, how did I calculate, even if very approximately, but seemingly impossible (the real mass of black holes), if humanity does not have such information... or does it have?
🌐 We know that Phoenix A* is 100B SolarMass (SM), and TON 618 is 66B SM. But both of these masses are not relevant today. Like, we see space objects like they were thousands or billions years ago (depending on how far away the observed object is). Physics cannot “live” separately from time. It means that the data that we now have on hand doesn't correspond to the characteristics at the current moment of existing the black hole (for itself, not for the observer from the Earth!)
_________________________________
1⃣ PHOENIX A*
▫️ Look, we have Phoenix A*, which is 100B SM. It took 5.86 billion years (source: Wiki) for light to travel to reach the Earth, so we see it as it was 5.86 billion years ago
▫️ We also know that Phoenix A* grows by 60 SM per year (source: Wiki). Anyways, that's 5.86 billion years ago information, today's one may be way different, depending on how dense the cosmic environment the black hole has been in over the past 5.86 billion years.
▫️ We're doing some calculations...
🔹 5.86B years × 60 SM = 351.6B SM
🔹 100B SM + 351.6B SM = 451.6B SM
▶ *Phoenix A*: 451.6B SM*
2⃣ TON 618
▫️ TON 618 is 66B SM. It took 10.8 billion years (source: Wiki) for light to travel from TON 618 to Earth, so we see it as it was 10.8B years ago
▫️ Unfortunately, I didn't find any information about black hole's growing rate (or there's still no information about it..? If you find something, say to me!), so let's estimate: 50 SM per year (It’s OK to estimate and guess, based on the information that we have now (Phoenix A*: 60 SM per year), as long as it doesn’t violate the laws of physics and existence).
▫️ Some calculations...
🔹 10.8B years × 50 SM = 540B SM
🔹 540B SM + 66B SM = 606B SM
▶ *TON 618: 606 billion SM*
_________________________________
⚠ Naturally, all calculations are *VERY approximate.* It's based on the data that humanity has now, it's nearly impossible to accurately determine the current physical characteristics of the black holes, since this is influenced by a huge number of factors: changes in the density of the space environment, matter around, which need to be constantly monitored, changes recorded, etc., and maybe something else... But I think I got the point across..?
👍 If you have something to add, advise, throw an idea or hypothesis, write in the comments! :)
🎶 Music in the video: Crystal Castles - Kerosene
_____________________________________________
Thank you for watching! If you enjoyed, make sure to subscribe, and thumb up. It will help us a lot!
#yearofyou #astronomy #science #physics #simulation #astrophysics #education #edit #quantumphysics #blackhole #explaining #planets #spacelover #cosmology #future #nasa #space #ton618 #phoenixa #multiverse #universe #earth #milkyway #sun #size #comparison #howto #youtube #facts #ai #shorts
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