Pi Day (2023/03/14)
Piaxid Monochromatic 1/4: Axiom
Axioms are the fundamental unit of mathematical logic that inductively enable creation.
Axioms are true statements that enable meaningful definitions, and any other kind of high-level statements like theorems.
Math is pure as it’s homogeneous: math creates math.
Math is the abstraction of abstractions.
One immediate example of this are the axioms for the formal creation of the natural numbers [1]:
is a natural number. If is a natural number, there is another natural number denoted by (and called the successor of ). for every natural number . If , then . If is a property that may or may not hold for any given natural number, and if has the property and Whenever a natural number has the property , then has the property then all natural numbers have the property (mathematical induction principle).
Another example is the creation of the Fibonacci sequence inductively:
fib 0 = 0
fib 1 = 1
fib n = fib (n-1) + fib (n-2)
The declarativeness of math enables creation with mathematical elegance unlike the imperativeness of those impure where every instance is to be addressed (i.e. defined or demonstrated) imperatively at a time.
Finally, the last example shows an immediate application of
A real number
A real number which is not and algebraic number is said to be a transcendental number.
It can be proved that
Math enables us to create from fundamentally abstract concepts like axioms
and I devised the concept of mapping it
References
[1] Mendelson, E. (2015). Introduction to Mathematical Logic. CRC Press.
[2] Morris, S. A. (1989). Topology Without Tears.
[3] Liaw, C., & Ulfarsson, H. A. (2006, April 7). Transcendence of e and π. Williams College. Retrieved March 14, 2023, from Web | Transcendence of e and π | Williams College.
[4] The Fibonacci sequence - HaskellWiki. (n.d.). The Fibonacci sequence | Wiki | Haskell.