@rurunna1: ピアノ男子ってだけでもう優勝🏆#パクボゴム#レイニーブルー#イケメン #カバー #歌うま

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Wednesday 12 November 2025 21:56:53 GMT
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73neko
neko :
ちゅちゅまれた😭❤️
2026-02-02 15:27:02
1
user1768817362219jhen
Roomy :
Sugoiii desu nee😍☺️😘❤️‍🩹
2025-12-13 23:29:19
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mym24405
mym*)) :
✨ボゴムバージョンのレイニーブルー好き💕💕ジニョクさ〜ん✨✨
2025-12-05 07:10:35
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ayureon
あゆみ :
確かに‼️ピアノ男子だけで💯ボゴミーも本当歌うまいですよね♪
2025-11-13 04:28:35
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y.k2856
木庭百合 :
素敵ですね🥰🥰😂
2025-11-25 22:38:54
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roldan.baldonado
Roldan Baldonado :
😁😁😁
2025-11-13 00:34:14
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tama38223
🍀tama🍀 :
🩷🩷🩷
2025-11-13 15:17:52
1
user2286116027617
🍀姿於加🍀.* :
🖤🩶
2025-11-13 05:13:49
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user1507913685479
英子 :
❤❤❤❤❤❤
2025-11-13 06:59:56
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user17097176130412
Mika :
❤️
2025-11-14 18:41:35
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My uncle Zahran H. eats 224 kebabs what a yummy treat😁 || #truecringecomunity #269 #kebab #fpyyyyyyyyyyyyyyyyyyyyyy #slusheeztcc || Graham’s number is an extremely large finite number created by mathematician Ronald Graham for a problem in Ramsey theory. It became famous because of how unimaginably huge it is, far beyond numbers normally used in mathematics or physics. To understand it, you first need to understand how mathematicians build very large numbers. Addition builds numbers slowly. Multiplication builds them faster. Exponents grow much faster than multiplication. For example, 10 to the 100th power, called a googol, is already far larger than most real-world quantities. Mathematician Donald Knuth created up-arrow notation to describe numbers much larger than ordinary exponents can handle. One arrow means exponentiation. Two arrows represent repeated exponentiation, creating power towers. Three arrows repeat the two-arrow process, and each added arrow creates an entirely new level of explosive growth. Graham’s number starts with a number written using four arrows between two 3s. That first value is already so large that it cannot realistically be described in ordinary notation. The next step replaces the four arrows with a number of arrows equal to the entire previous number. The process repeats again and again, each stage using the previous gigantic result to determine how many arrows to use next. After repeating this recursive process 64 times, the final result is Graham’s number. Even the early stages are vastly larger than the number of atoms in the observable universe. The number is so huge that not even the amount of digits could be physically stored anywhere conceivable. Despite this, Graham’s number is still finite and precisely defined. It was originally used as an upper bound in a mathematical proof. Later mathematicians found much smaller bounds for the problem, but Graham’s number remained famous because it demonstrated how enormous numbers can arise naturally in serious mathematics.
My uncle Zahran H. eats 224 kebabs what a yummy treat😁 || #truecringecomunity #269 #kebab #fpyyyyyyyyyyyyyyyyyyyyyy #slusheeztcc || Graham’s number is an extremely large finite number created by mathematician Ronald Graham for a problem in Ramsey theory. It became famous because of how unimaginably huge it is, far beyond numbers normally used in mathematics or physics. To understand it, you first need to understand how mathematicians build very large numbers. Addition builds numbers slowly. Multiplication builds them faster. Exponents grow much faster than multiplication. For example, 10 to the 100th power, called a googol, is already far larger than most real-world quantities. Mathematician Donald Knuth created up-arrow notation to describe numbers much larger than ordinary exponents can handle. One arrow means exponentiation. Two arrows represent repeated exponentiation, creating power towers. Three arrows repeat the two-arrow process, and each added arrow creates an entirely new level of explosive growth. Graham’s number starts with a number written using four arrows between two 3s. That first value is already so large that it cannot realistically be described in ordinary notation. The next step replaces the four arrows with a number of arrows equal to the entire previous number. The process repeats again and again, each stage using the previous gigantic result to determine how many arrows to use next. After repeating this recursive process 64 times, the final result is Graham’s number. Even the early stages are vastly larger than the number of atoms in the observable universe. The number is so huge that not even the amount of digits could be physically stored anywhere conceivable. Despite this, Graham’s number is still finite and precisely defined. It was originally used as an upper bound in a mathematical proof. Later mathematicians found much smaller bounds for the problem, but Graham’s number remained famous because it demonstrated how enormous numbers can arise naturally in serious mathematics.

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