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peter phát sáng😝 :
t bt cây láp ảnh to lắm nhưng t k có chứng cứ
2026-07-12 15:03:34
78
_𝒀𝒂𝒏𝒈🫧 :
1 bụm..
2026-07-12 10:33:59
23
Mãi Mãi fan Phương Mỹ Chi🫶🎤 :
ê ý là không ngại hỏ to
2026-07-13 09:11:53
0
Bắn trong cho ấm🥴 :
ck t
2026-07-12 16:51:21
1
người lì hợp tínhh :
to zậyy
2026-07-13 08:35:26
0
Mindzymeowmeow :
Cái bọc nước mía kìa tr
2026-07-13 03:41:17
1
MPhuc 1P :
to nha
2026-07-13 06:57:46
0
𝓚𝓲𝓮𝓷 :
ê ngon nha
2026-07-12 12:11:36
1
꧁༺𝙉.𝙋𝙝𝙞丶$$®✓ :
nhìn mà nghẹn
2026-07-12 19:33:17
1
hoàii thanhh :
ăm chã húi
2026-07-12 15:55:06
1
bon 🍼 :
độn k á mà bây tin
2026-07-12 16:42:02
1
thế vĩnh. :
mình thương tui thì nói nghe mình 😔
2026-07-12 10:59:09
0
fan carzy lion và vdarh :
coi video đầu là bt liền
2026-07-13 04:36:38
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bé thương 🐢 :
cho xin một Follow
2026-07-13 05:00:21
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Hân Nguyễn :
bọc nước mía to dữ
2026-07-13 07:59:12
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☆hann♥︎NguyễnPhú🐼☆ :
1 bụm
2026-07-13 09:32:48
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ngộ ha :
2026-07-13 05:18:36
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-.- ba iu ơi ;)) :
bao nhiêu cm vậy bay ơi
2026-07-13 05:03:29
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![Noob Vs Pro dancer #ddlc #iqmaxx Graham's number is an immense number that arose as an upper bound on the answer of a problem in the mathematical field of Ramsey theory. It is much larger than many other large numbers introduced as effective bounds in mathematics, such as Skewes's bound, which in turn is much larger than a googolplex. Graham's number is so large that the observable universe is far too small to contain its ordinary digital representation, assuming that each digit occupies one Planck volume. But even the number of digits in this digital representation of Graham's number would itself be a number so large that its digital representation cannot be represented in the observable universe. Nor even can the number of digits of that number—and so forth, for a number of times far exceeding the total number of Planck volumes in the observable universe. Thus, Graham's number cannot be expressed even by physical universe-scale power towers of the form a b c ⋅ ⋅ ⋅ {\displaystyle a^{b^{c^{\cdot ^{\cdot ^{\cdot }}}}}}, even though Graham's number is indeed a power of three. However, Graham's number can be explicitly given by computable recursive formulas using Knuth's up-arrow notation or equivalent, as was done by Ronald Graham, the number's namesake. As there is a recursive formula to define it, it is much smaller than typical busy beaver numbers, the sequence of which grows faster than any computable sequence. Though too large to ever be computed in full, the sequence of digits of Graham's number can be computed explicitly via simple algorithms; the last 10 digits of Graham's number are ...2464195387.[1] Using Knuth's up-arrow notation, Graham's number is g 64 {\displaystyle g_{64}},[2] where g n = { 3 ↑↑↑↑ 3 , if n = 1 and 3 ↑ g n − 1 3 , if n ≥ 2. {\displaystyle g_{n}={\begin{cases}3\uparrow \uparrow \uparrow \uparrow 3,&{\text{if }}n=1{\text{ and}}\\3\uparrow ^{g_{n-1}}3,&{\text{if }}n\geq 2.\end{cases}}} Graham's number was used by Graham in conversations with popular science writer Martin Gardner as a simplified explanation of the upper bounds of the problem he was working on. In 1977, Gardner described the number in Scientific American, introducing it to the general public. At the time of its introduction, it was the largest specific positive integer ever to have been used in a published mathematical proof. The number was described in the 1980 Guinness Book of World Records, adding to its popular interest. Other specific integers (such as TREE(3)) known to be far larger than Graham's number have since appeared in many serious mathematical proofs, for example in connection with Harvey Friedman's various finite forms of Kruskal's theorem. Additionally, smaller upper bounds on the Ramsey theory problem from which Graham's number was derived have since been proven to be valid. #larp #sinister #tlpur](/video/cover/7661298143656512799.webp)