@1live: Man merkt, wenn's von Herzen kommt🎙️ Das ganze Video findet ihr in der ARD Mediathek und auf unserem YouTube Kanal 🫱🏼‍🫲🏽 #1LIVE #FelixLobrecht #TorstenSträter

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Saturday 11 July 2026 12:10:38 GMT

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Comments

Mike Klaucke :

Ich liebe Thorsten. Felix ist aber auch ganz Okay.👍 😂

2026-07-11 16:03:55

21

Beautiful Ink Tattoo :

Die beiden sind eine perfekte Kombi ❤️

2026-07-11 18:29:41

18

undiberger :

Lobrecht ist ja gar nicht witzig

2026-07-12 06:04:26

3

elias.b :

Lobrecht schon seit Jahren nicht mehr lustig

2026-08-11 17:28:33

1

Andre Gerritzen132 :

Bei höherem Alter hätte man ihm ein Bild von Dieter Nuhr hinhalten müssen und seine Antwort wäre gewesen: OK. Ich fahre doch lieber Taxi.

2026-07-11 18:54:58

4

CM :

Bester Mann

2026-07-11 19:25:30

0

No_image :

Ab noch LoL mit euch zweien

2026-07-18 10:24:18

1

eemmaa :

😁😁😁

2026-07-11 12:14:06

1

Omichis Haus :

😁😁😁

2026-07-13 19:32:42

0

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Graham’s Number Graham’s number is one of the most famous and incredibly large numbers in mathematics. It is so large that it is impossible to write it completely using ordinary decimal notation. Even if we used every atom in the observable universe to write its digits, we would not have enough space. Graham’s number comes from a problem in a branch of mathematics called Ramsey theory. The number is named after the mathematician Ronald Graham, who studied a problem involving geometry, combinatorics, and mathematical patterns. The problem asked about how many dimensions are needed to guarantee that a particular pattern will appear when certain objects are connected together. To understand Graham’s number, we first need to understand that mathematicians sometimes need to describe extremely large numbers without writing all their digits. For example, instead of writing 1,000,000, we can write 10⁶. This makes very large numbers easier to describe. However, Graham’s number is far bigger than numbers such as a million, a billion, or even a number like 10¹⁰⁰. In fact, it is much larger than a googol, which is 10¹⁰⁰, and a googolplex, which is 10^(10¹⁰⁰). To define Graham’s number, mathematicians use a special notation called Knuth’s up-arrow notation. This notation allows us to describe operations that are much more powerful than normal multiplication and exponentiation. For example, 3 ↑ 3 means 3³, which is 27. But 3 ↑↑ 3 represents a much larger number: 3^(3³), which is 3²⁷. The next levels become extremely large. For example, 3 ↑↑↑ 3 means that the operation of repeated exponentiation is itself repeated. Graham’s number uses a sequence of these increasingly powerful operations. Graham’s number is usually defined using a sequence of numbers called g₁, g₂, g₃, …. The first number is already enormous. Then each new number is defined using the previous number as the number of up-arrows. This process is repeated many times. Graham’s number is the final number in this sequence, usually written as g₆₄. What makes Graham’s number particularly interesting is that it is not just a random huge number. It appeared as an upper bound in a real mathematical problem. This means that mathematicians used it to show that a certain mathematical situation must eventually happen, even though the number itself is unimaginably large. Interestingly, Graham’s number is not the largest number that mathematicians can describe. There are many numbers that are vastly larger. In fact, once mathematicians have created a system for describing very large numbers, they can usually create another system that describes even larger ones. Another fascinating fact is that Graham’s number cannot be written out completely in decimal form. We can only describe it using mathematical notation. Even the number of digits in Graham’s number is itself an unimaginably huge number. Despite its enormous size, mathematicians have been able to calculate some information about Graham’s number. For example, researchers have determined its last digits. Graham’s number ends in …2464195387. This is possible because some properties of very large numbers can be studied without actually writing the entire number. Graham’s number shows us something important about mathematics: numbers do not have to be physically written down to be understood. A mathematical definition can describe a number that is far too large to exist physically in written form. In conclusion, Graham’s number is one of the most famous examples of an extremely large number. It comes from a real mathematical problem and is defined using powerful mathematical notation. Although it is impossible to write the entire number, mathematicians can still study and understand its properties. Graham’s number gives us a fascinating idea of just how far mathematics can go beyond the limits of the physical universe. #historytiktok #ww2 #duolingo #ww2history

Graham’s Number Graham’s number is one of the most famous and incredibly large numbers in mathematics. It is so large that it is impossible to write it completely using ordinary decimal notation. Even if we used every atom in the observable universe to write its digits, we would not have enough space. Graham’s number comes from a problem in a branch of mathematics called Ramsey theory. The number is named after the mathematician Ronald Graham, who studied a problem involving geometry, combinatorics, and mathematical patterns. The problem asked about how many dimensions are needed to guarantee that a particular pattern will appear when certain objects are connected together. To understand Graham’s number, we first need to understand that mathematicians sometimes need to describe extremely large numbers without writing all their digits. For example, instead of writing 1,000,000, we can write 10⁶. This makes very large numbers easier to describe. However, Graham’s number is far bigger than numbers such as a million, a billion, or even a number like 10¹⁰⁰. In fact, it is much larger than a googol, which is 10¹⁰⁰, and a googolplex, which is 10^(10¹⁰⁰). To define Graham’s number, mathematicians use a special notation called Knuth’s up-arrow notation. This notation allows us to describe operations that are much more powerful than normal multiplication and exponentiation. For example, 3 ↑ 3 means 3³, which is 27. But 3 ↑↑ 3 represents a much larger number: 3^(3³), which is 3²⁷. The next levels become extremely large. For example, 3 ↑↑↑ 3 means that the operation of repeated exponentiation is itself repeated. Graham’s number uses a sequence of these increasingly powerful operations. Graham’s number is usually defined using a sequence of numbers called g₁, g₂, g₃, …. The first number is already enormous. Then each new number is defined using the previous number as the number of up-arrows. This process is repeated many times. Graham’s number is the final number in this sequence, usually written as g₆₄. What makes Graham’s number particularly interesting is that it is not just a random huge number. It appeared as an upper bound in a real mathematical problem. This means that mathematicians used it to show that a certain mathematical situation must eventually happen, even though the number itself is unimaginably large. Interestingly, Graham’s number is not the largest number that mathematicians can describe. There are many numbers that are vastly larger. In fact, once mathematicians have created a system for describing very large numbers, they can usually create another system that describes even larger ones. Another fascinating fact is that Graham’s number cannot be written out completely in decimal form. We can only describe it using mathematical notation. Even the number of digits in Graham’s number is itself an unimaginably huge number. Despite its enormous size, mathematicians have been able to calculate some information about Graham’s number. For example, researchers have determined its last digits. Graham’s number ends in …2464195387. This is possible because some properties of very large numbers can be studied without actually writing the entire number. Graham’s number shows us something important about mathematics: numbers do not have to be physically written down to be understood. A mathematical definition can describe a number that is far too large to exist physically in written form. In conclusion, Graham’s number is one of the most famous examples of an extremely large number. It comes from a real mathematical problem and is defined using powerful mathematical notation. Although it is impossible to write the entire number, mathematicians can still study and understand its properties. Graham’s number gives us a fascinating idea of just how far mathematics can go beyond the limits of the physical universe. #historytiktok #ww2 #duolingo #ww2history

#المدينه_المنوره #العزيزيه #yourusername #اكسبلور #foryou

#المدينه_المنوره #العزيزيه #yourusername #اكسبلور #foryou

Giờ vẫn chưa được nghỉ🥺. Biết là nhân vật rồi nhưng nhìn thấy băng miếng bự chảng kia vẫn xót lắm😭. Bảo bối vất vả và chăm chỉ của tui cố gắng rồi về nghỉ ngơi nhé. Thương 💙 #ChenZheyuan #TranTrietVien #fighting #hardworking #Love

Giờ vẫn chưa được nghỉ🥺. Biết là nhân vật rồi nhưng nhìn thấy băng miếng bự chảng kia vẫn xót lắm😭. Bảo bối vất vả và chăm chỉ của tui cố gắng rồi về nghỉ ngơi nhé. Thương 💙 #ChenZheyuan #TranTrietVien #fighting #hardworking #Love

Kylian Mbappe clips for edit if you ise this comment on this video also if you want to save copy the video link and go to tiktok watermark remover and then you will get the clips withouth my watermark #trending #foryouviral #fyp #football #goviral

Kylian Mbappe clips for edit if you ise this comment on this video also if you want to save copy the video link and go to tiktok watermark remover and then you will get the clips withouth my watermark #trending #foryouviral #fyp #football #goviral

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