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Or (Sin72°/Sin36°)*(Sin72°/Sin36°)
" But it isn't. It's just a series of terms, and all terms are always there."
Hey Ricky, I have already reached the static infinity concept and showed its internal contraversity, have you forgotten that?
As simple as that
A=0.999...(already infinte amount of 9's)
0.9+A/10 (How many of 9's are here? Also infinite? But this infinite amount has 1 more than the previous infinite amount and how do you locate the 1 more? I have the whole proof to locate the one more by whole>part.)
And tell me please what do you feel about the two static infinity yet different at the same time.
However something needs to be clarified about B[sub]t[/sub] and dc
B[sub]t[/sub] follows a Brownian motion in time t
You can cut equal time intervals and each interval B changes by a normal random variable with 0 mean and time length variance; each B change in a time interval has nothing to do with another B change in a different interval.
And
hence
As Δt gets small, mathematicians argue the square of ΔB has a quite steady mean Δt with a negligible (higher order) variance 2*Δt[sup]2[/sup]. Hence here comes
Ito's lemma
dB*dB=dt;
dt*dt=o(dt);
dB*dt=o(dt)
Thus, to approach a difference of a function which involves a brownian motion B in it directly or indirectly, you have to use Taylor expansion with order 2 to capture the innegligible dB[sup]2[/sup].
thus here come the dc
where
o(dt) is higher order term of dt, negligible the same way we do our normal calculus. And the final formual for dc is:
I know this kind of technique. It's called visualized caculation. Basically it requires envisionizing the calculation in the head as if doing it on a blackboard. However, I never master it.
Search them for yourself and what's your opinion?
Got it.
Once I asked the price, someone said two ninety-nine.
I was overjoyed- 3 dollars?
No, 2 hundred and ninety-nine.
"will educational standards decrease? "
Well I really found the Maths part of Japan's College Entrance Examination tough when I was excellent in high school in China.
Part of Culture, part of Language.
The debacle is, China don't have excellent college Education as Americans and Europeans do.
Even though I am poor at Arithemetrics, here I found I am excellent among westerners.
I guess it has sth to do with the language
365
Th'ree hun'dre'd an'd si'x'ty fi've -12 positions of the mouths
San Bai Ly'ou Shi Wu -6 positions of the mouths
("Bai" means hundred, and "Shi" means ten)
If you happen to read the number in silent, you will notice how much faster a Chinese speaker can absorb the number than an English speaker.
I think in terms of Arithmetrics, here is the advantage:
1 Yi
2 Err
3 San
4 S~/s/
5 Woo
6 Lyou
7 Tsi
8 Ba
9 Jyow
Chinese words for figures are much shorter and thus easier to master than those of the English language
Click DAEMONS
Click Meet your daemon
The 20 questions reveal what animal you are most similar to according to your charactor.
If you have problems understanding the English, try consult to an English dictionary. If you don't have one, just click "LANGUAGE" at the bottom.
My Daemon is a Crow
Assertive, modest, fickle, a leader and Solitary.
"It's a model."
Base 2 is a Better model, based on the reasons I have stated.
Then try it with: f(t) = C*2^(kt) + D.
I have already done it
f(x)=100*2^(xlog[sub]2[/sub]1.6)
C=100, k=log[sub]2[/sub], D=0
Doesn't it fit in the data?
I object continuous growth.
Clearly, no multiplication is on a continuous basis, it is on an discrete basis.
First and foremost, f(3) = 418.6 is wrong. Either 418 cells or 419 cells and you cannot arbitarily define what a 0.6 cell is. Even if you do that, I disagree. And because the number of cells is Discrete!
And further, it is easy to fit in A[sub]0[/sub]2[sup]bx[/sup] to this model.
f(x)=100*2^(xlog[sub]2[/sub]1.6)
Besides, Ricky I don't know how you come up with the +99 term, which doesn't make sense at all. Even in e function, it's displayed as Ce^(kT) without a "+". You come up with this term just to puzzle me huh? How about this game. You plot in f(x)=e^(ax)+99?
And you know too well in the real world you cannot get the data like this, which just be perfectly fit by a model. Instead, we got to have data that just cannot be fit by either model because models created by us are just simplification. Like this
100 156 270 500
And it makes no difference you fit in the curve with Ce[sup]at[/sup] or C2[sup]bt[/sup]
And I guarantee if you run a regression for each of them, you end up with
a-estimate=b-estimate/ln2
Like the results in Post 6.
"Infinity + 1 = Infinity doesn't make sense, but neither does Infinity + 1 != Infinity, because you're treating infinity like a number when it isn't one. Until you accept the nature of infinity, discussion of this topic is pointless."
Yes, you are switching infinity concept to a docile and flexible one. Well initially I assume you perceive it as stable and cannot change.
Well it is just simpler to disprove infinity in this sense.
Suppose you think the amount of elements in this
{2,3,4,5,...}
can vary.
(Infinity+k=Infinity)
And I wonder which element(s) can vary so that the whole amount of all the elements can vary?
Since if it has got infinity elements or infinity+1 elements doesn't matter at all. I wonder what is the +1 element that is totally disposable yet addible and doesn't make a difference at all?
BTW
When you have infinity+1=infinity
you assume
infinity[sub]1[/sub]+1=something
And this something qualifies as infinity too.
However, is it just the same as infinity[sub]1[/sub]?
No, it can be strictly qualified as non-finite and infinite,
But this doesn't guarantee you can treat them as equal.
Because infinity is not necessarily single and unique.
And we have just got two infinities here
One infinity[sub]1[/sub] and the other infinity[sub]1[/sub]+1
The latter strictly literally contains not only the former but also 1 more and is not equal to the former (in fact larger than).
And the fact that it is also non-finite doesn't lead to the conclusion that they are all the same.
It's just the same argument that we are both human, which doesn't prove we are all the same one.
Well I made a mistake in the back way, sorry.
It should be:
From A is larger than B
A has all the things B has, as well as something that B doesn't have.
Just label "all the things" in A as C. Clearly C is in A but A contains not only C. This means C is a part of A. (So far my part defination is the whole contains part, but not only part)
And from part<whole
C<A
since
C=B
then
B<A
The back way is from Part<Whole to the larger concept. The smaller label is passed on from the equivalent part to B. Thus in this way any A who contains not only all B has is proven as larger than B
through the concept that the A's part the same as B is smaller than A the whole.
The first proof is A>B => Whole>Part.
since a part of A is an eligible candidate for B, it is a B. Hence part(B)<whole(A)
Why is it qualified as B?
Since the whole has all the things its part has, and something else.
You see, you can just switch whole here to A, and the part here to B, and A and B are in the defination of A>B.
Neither of those posts made any sense, in both the English and mathematical sense. What is your objection to my relabeling method?
You can relabel, OK? But you cannot simply state that your relabeled set is the same as a part of the original set. And you cannot then move on to use the same and new concept of large to disprove this concept because you haven't even reached the same condition yet.
Why have you made such a mistake in thinking them the same? Because you just see 2 in both, 3 in both, 4 in both, and elipse in both, and then you think that they are the same? I have pointed out this fallacy in Post 900.
And I have given the proof why they are not the same in Post 899. The relabeled
{2, 3, 4, ...}#
has one more member than the part
{2, 3, 4, ...}
in the original set
{1, 2, 3, 4, ...}
And this proof is based on your assumption that you have relabeled all the memebers of the original to the new {2, 3, 4, ...}#.
Since they have the same amount of member, a part of either one cannot have the same amount because the larger defination. (I will explain this in BTW)
And thus you cannot equate the relabeled to the part of the orginal because even they start at the same begining, they go on in seemingly the same pattern, they have different amount of elements after all!
Do you call
{2,3,4,5,...1001}
and
{2,3,4,5,...1000}
the same?
The same concept applies to this situation also. The only difference is that this is an infinite case. And in order to compare, I applied the larger concept.
BTW
The larger concept is quite equivalent to
the concept of
Part is smaller than the whole.
in philosophy.
(
The almost equivalence is as follows:
The whole has what all the part has, but also has something that it doesn't has, hence the whole is larger than the part. (or the part is smaller than the whole)
The back way:
A has all B has and has further something it doesn't. Select just the "all B has" in A and it is clearly a part in A because A has not only it but also something else. And this part equals B and hence is smaller than A. (Note this time the proof applies the equal concept, and that's why I said almost equivalence)
)
This concept is so far the most conservative defination in all the concepts of larger. I cannot find a more fundamental defination than this. If any other defination contradicts this one in some sense, we may examine that one is true or not.
What you did is just see
{2,3,4,5.,..} #
and
{1,2,3,4,5,...}
you have seen 2,3,4,5,... in both, and you then conclude that they are the same? Don't hide the demon in the elipse, face it, find whether two elipses omit the same thing, plz.
"1 because you implicitly mapped d to d. So both c and d map to d."
You forge this up, dude.
" my map is both 1-1 and onto. "
Alright, let's stay with your mapping.
{2,3,4,5,...}#
How many have you mapped?
The same amount of
{1,2,3,4,...}?
And {2,3,4,5,...}# has lacked one symbol of 1 in it?
And yet it has the same amount.
And so it has one more symbol than the original subset {2,3,4,5,...} otherwise the mapping cannot be completed in the same amount.
And what is it? Isn't it the transformation of the last symbol in the old {1,2,3,4,...}?
And I can apply the same methodology to find the last symbol, just by comparing
{2,3,4,...} and a {2,3,4,...}# (which just have one more symbol than the former).
Unless you deny you have mapped all of the members in old {1,2,3,4,...} into the new {2,3,4,5,...}, which simply makes your "disproof" unvalid.
They can be without a value. But the meaning should stay consistent.
suppose
{a,b,c,d}
Now like you did, a foreign language just transform
a->b
b->c
c->d
And now you have
{b,c,d}
and does it lack one a?
No, it lacks one old d.
And does it equal to the subset {b,c,d} from the old set?
No it equals to or it is equavalent to the subset {a,b,c} in the old set.
Do you agree the above or not?
Or are you lost in translation?
My defination stays on a real term basis instead of a nominal term basis.
I clarify this now, don't cheat.
A 2 in {2,3,4,5...} created by you
is not the same 2
in
{1,2,3,4...}
And they are not equal unless you switch
{1,2,3,4,...} to {2,3,4,5...} in new defination.
Since they are not equal, you cannot say {2,3,4...} in {1,2,3,4,...} is the same as {2,3,4,...} created by new defination and thus you cannot apply my defination of "larger" and disprove it.
Or I can put it in something you feel easy to understand.
{1,10,1000,...} in mode 10
isn't the same as
{1,10,1000,...} in mode 2
and what you did is just like to equal the two.
"Remember, numbers are just symbols"
Numbers are not just so. Don't belittle them as Cantor and the mathematicians after him does, plz.
They stands for meanings.
2 stands for solid 1 and 1.
If you have bought two sandwiches and the counter only gives you one, will you be outraged or not? Or will s/he say 1 and 2 are the same, just symbols?
one := 2
two := 3
three := 4
four := 5
When writting such a thing, you are defining
2 as the single unit,
and 3 as the single unit + the single unit.
Hence essentially your new 2 means the samething the old 1 does. It can take on a different symbol but its ESSENCE stays the SAME.
Back to your game
well the new
{2,3,4,5...} stands for the same thing the old
{1,2,3,4...} stands for,
it should be compared to the old {1,2,3,4..} by what old symbols it means or in both new symbols they mean and both are fair. Don't try to play a translation or a word puzzle by simply and wrongly mixing them up.
If I say a MIT is smaller than Massachussets Institute of Technology, do you agree?
Well because the letters of the former is less than the latter.
But essentially they stands for the same thing!
You can use 1 2 3 4 or 2 3 4 5 or whatever. But you should know the meanings behind the letters, that 2=1+1=single+single or 3=2+2=single+single. Don't try to blend them together or you are just fooling around saying something like one dime is smaller than five cents because one is smaller than five.
What I hate about Reals is that in order to justify that the residuals have been eliminated or that the irrationals do exist, it abandons the defination from common sense of basic numbers. 1 is no longer 1, 2 is no longer 2, they are defined as a set of all the junky rationals and irrationals smaller than themselves in Cantor's defination.
Who cares about all the numbers smaller than 2? I am just eating 2 apples, 1+1 apples in essence, not eating a combination of -Pi, -e, -1, 0, 1.5, 1.999... apples what soever! Because you have trouble justifying you have eliminated the residual then I have to use such an unnatural idea?
I hate this unnatural thing so much that I don't wanna waste a minute or a braincell on it. Still, thank you for reminding me to read a book on set. I know in order to offend the orthodoxy maths I may need to know it much better than any defenders. That's quite twisted but perhaps I should put up with it?!
Thus it is larger according to my defination in common sense. What's your problem with this?
Common sense and infinity can never be used together. Mathematics isn't about common sense. It's about formal definitions and rigor. People tried to use common sense and ran into problems.
Which set is larger, the set of irrationals or the set of integers? What about primes or irrationals? What about the Gaussian integers and prime numbers congruent to 3 modulo 4? What does your common sense definition say about these set sizes?
Perhaps you are just asking for trouble. Before constructing these sets, My logical argument has already stopped having an infnite set of all integers. And irrationals with infinite decimals may not exist at all.
And after all, we live in a common sense world, not in a maths fairy tale world. Many mathematical problems are just a waste of time since they are created so different than the real world and thus never get a chance to apply to it. (Infinity and surreals for example)
George, you just don't understand set theory, and I don't have the patience to try to help you with it when you fight every step of the way and attempt to speak for me putting words in my mouth in the process, all while claiming that I'm censoring you.
Learn mathematics. Then you can feel free to criticize it. Till then, you are criticizing something which you do not understand, not something which is wrong.
You are talking about something like if you don't know everything I have already have known, then you are not qualified to talk to me and discuss anything.
Then you are eliminating discussion or raising a protection, since few one has learn everything another knows. If this is the case, no senator can critisize the president since they know what?! No journalist can critisize someone since they know what?
Or I just stay here, claim I am right, list a tedious philosophy book list for you, and say you are not entitled to say I am wrong before finishing those books?
How do you feel?
BTW, I knew Cantor set earlier than you did, if you could remember.
The same thing for equal and larger in my earlier argument
Amount of elements of {1, 2, 3, 4, ...} = Amount of elements of {2, 3, 4, 5,...}
Because every member of the latter gets 1 added from the former.
(You can say I cannot do this, but please tell from where, since I know any number in the former set can be added by 1)
And {1,2,3,4,5,...}# is larger than {2,3,4,5,...} because it is generate by duplicating the latter and adding in a new element, an element does not belong to the latter. Thus it is larger according to my defination in common sense. What's your problem with this?
And the last part, transivity. Do you want to say that it is not transible for infnity?
Infinity+1=Infinity?
Then what's your infinity exactly? It's not stable? It's docile? It can be added in something and stays the same? Riduculous as it is, I have a refutation for this already in the previous post.