One well-known number with an actual name is "Graham's number"; it is so tremendously large that it cannot be expressed in scientific notation, or even with a power tower.
Infinite
INFINITE
8
By simply re-ordering the digits, you can get 500 6-digit numbers, excluding those starting with 0. There are thousands more that can be made using mathematical operations such as addition, subtraction, multiplication, division, exponentiation, factorials and so on.
Each ordered pair is made up of two numbers. A linear graph has an infinite number of pairs. An easy way to see this is look at the line y=x. This is a linear graph and any two of the same numbers will work! So there are an infinite number of ordered pairs.
Both made in 1951
they are infinite, because they will always keep being made
Honestly, an infinite amount can be made. It could be decimals (4297.5, 3.0245, 4.12), whole numbers (54313, 4021, 318), negatives (-42241, -703, -2754), negative decimals, etc.... AND each of those numbers can be negative, and have a decimal formation, and have a negative decimal formation, so there really is no limit.
Eminems first album was made in 1996 its called Infinite he only made like 12 copy's
No, prime numbers already existed. Euclid simply made some important mathematical contributions related to prime numbers. Among others, he discovered a surprisingly simple proof that the set of prime numbers is infinite; and he discovered that the prime factorization of any natural number is unique.
His First song ever made was Infinite. In 1995.
We can categorize all infinite sets into two categories. The first set is made up of a an infinite number of countable elements and the second consists of a infinite number of elements that cannot be counted. The set of rational numbers is countably infinite. This comes from that fact that we can easily count integers and natural numbers. Just remember to think of rationals as a ratio of two integers, a/b. The set of irrational numbers is uncountably infinite. There is no way to find a correspondence between irrational numbers and integers. By the definition of irrational, they can't be written as fractions. The fact that the natural numbers and rational numbers can be counted and the irrationals cannot be gives some intuitive understanding of why the latter is bigger. In general, it turns out that an countably infinite set is smaller. The German mathematician Georg Cantor did extensive work on the size ( cardinality) of sets including the these two. He provided some amazing proofs in two papers 1895 and 1897 and titled 'Beiträge zur Begründung der transfiniten Mengenlehre' . This is an interesting topic and a link is attached to help the reader understand it better. The proofs require a good deal of set theory background So I have not presented them here, but will give link to those too.