The odds for dropping a trillion coins and having them all drop on their edge is beyond virtually impossible. At the rate of dropping one trillion coins of one second per each drop, which obviously isn't feasible, it would take over 30,000 years to complete the task.
It would actually get more interesting if one actually tried to calculate this. How high are the coins bring dropped from? Onto what surface and it's it perfectly flat ? In a vacuum or are there any air currents? Are the coins allowed to bump into each other, even stack? What position are they in when being dropped, vertical, horizontal or random? And since you're talking a trillion times, the coins would experience extensive wear. How would that affect the outcome? So this becomes far more than a relatively simple statistics math problem but rather,a very complicated calculus or Suffern equation problem.It's all a matter of scale.
As in, it might turn out to take 10 the 50th times as long as from the Big Bang until now to accomplish when dropping the coins a million times a second, or something... But that IS an answer, however absurd it might be.
I guess what makes the question fascinating to me is how something so "normal daily life-y" as flipping a coin---a little decider ritual that everyone knows and can identify with---can expand into a concept that dwarfs the Universe in size but is not infinite. The answer is precise and definite.
It would actually get more interesting if one actually tried to calculate this. How high are the coins bring dropped from? Onto what surface and it's it perfectly flat ? In a vacuum or are there any air currents? Are the coins allowed to bump into each other, even stack? What position are they in when being dropped, vertical, horizontal or random? And since you're talking a trillion times, the coins would experience extensive wear. How would that affect the outcome? So this becomes far more than a relatively simple statistics math problem but rather,a very complicated calculus or Suffern equation problem.
I guess you need a trillion tossers. I only know 8 or 9 billion tossers...
So absurd.For a serious answer, I'd say the odds of it are about the same as a "big bang" somehow resulting in an intricately ordered universe with coded DNA producing highly complex life forms. In other words, just ain't gonna happen no matter how much time you give it.
It would actually get more interesting if one actually tried to calculate this. How high are the coins bring dropped from? Onto what surface and it's it perfectly flat ? In a vacuum or are there any air currents? Are the coins allowed to bump into each other, even stack? What position are they in when being dropped, vertical, horizontal or random? And since you're talking a trillion times, the coins would experience extensive wear. How would that affect the outcome? So this becomes far more than a relatively simple statistics math problem but rather,a very complicated calculus or Suffern equation problem.
That really didn't help to lower the crazy suspicion...it only reinforces my cat hypothesis.Just so you guys don't think I'm TOO crazy...
My fascination is with a situation that looks like a "case of infinity" (for lack of a better term), but actually ISN'T.
In fact, it's just the merest gnat.
Like so:
If a trillion little coin toss boxes were set up (forget the wear and tear worries, this is an abstract problem), and coins were flip-dropped simultaneously into all of them in unison, repeatedly, eventually---though it might take a quadrillion years---every last one of them will land on its edge in the same flip.
And eventually---though it might take a trillion quadrillion septillion octillion dectillion years---they will all land on their edge a trillion times in a row.
But... a quadrillion septillion occurances of THAT ^^^^ time span will "fit into" INFINITY, well... an infinite number of times.
View attachment 235604
Bout a Brazilian times.Just so you guys don't think I'm TOO crazy...
My fascination is with a situation that looks like a "case of infinity" (for lack of a better term), but actually ISN'T.
In fact, it's just the merest gnat.
Like so:
If a trillion little coin toss boxes were set up (forget the wear and tear worries, this is an abstract problem), and coins were flip-dropped simultaneously into all of them in unison, repeatedly, eventually---though it might take a quadrillion years---every last one of them will land on its edge in the same flip.
And eventually---though it might take a trillion quadrillion septillion octillion dectillion years---they will all land on their edge a trillion times in a row.
But... a quadrillion septillion occurances of THAT ^^^^ time span will "fit into" INFINITY, well... an infinite number of times.
View attachment 235604
Until all the hair is gone, you mean?Bout a Brazilian times.
An interesting video that came to my phone that squeaks into the realms of infinity and the possibility of being disassembled and put back together again (or information retrieved). She mentions information that could be lost via black hole, but my question would be that wouldn't information be preserved through entanglement. -Miller Lite infused brain drifting through the block universe...Just so you guys don't think I'm TOO crazy...
My fascination is with a situation that looks like a "case of infinity" (for lack of a better term), but actually ISN'T.
In fact, it's just the merest gnat.
Like so:
If a trillion little coin toss boxes were set up (forget the wear and tear worries, this is an abstract problem), and coins were flip-dropped simultaneously into all of them in unison, repeatedly, eventually---though it might take a quadrillion years---every last one of them will land on its edge in the same flip.
And eventually---though it might take a trillion quadrillion septillion octillion dectillion years---they will all land on their edge a trillion times in a row.
But... a quadrillion septillion occurances of THAT ^^^^ time span will "fit into" INFINITY, well... an infinite number of times.
View attachment 235604
Probability of a trillion coins tossed all landing on edge simultaneously (Those trillion being the only coins tossed) is effectively zero. Now, how many coins would need to be tossed to have a trillion land on edge simultaneously would be 6000 trillion or 6000000000000000. How many tosses to have this happen a trillion times in a row would be 6000000000000000 raised to the 1000000000000th (trillionth) power. My tablet won't calculate a number that large. LOTS of zeros.OK...
The chance of a tossed quarter landing on its edge (on a dead flat, clean, etc. surface) is one in 6000.
Here's my question:
How many tosses would it take for a TRILLION coins tossed simultaneously to ALL land on their edge...
...and for THAT to happen a trillion times in a row.
Imma gonna guess the answer is way north of the number of atoms in the Universe, or similar---some number that will make a googol look trivial---but I have no clue how to handle exponential calculations that size.
Why does it matter? My grrrlcat Lily wants to know, and she'll kick my ass if I disappoint her.
View attachment 235320
View attachment 235321
This is the hallucination Lily allows George to have when he's been cooperative.