Now, if you had put the word that included 'finite' in bold I would have rated it a winning post.Just chiming in to say that transfinite numbers are a real thing in mathematics. It's not some left-wing plot just because it has 'trans' in the name.
The same way that you add elements in a finite set. The answer is still always a finite answer and that is guaranteed and no matter how many finite additions you perform.Answer the question.
If infinite sets do not exist then show us how you can sum the finite set {0.3, 0.03, 0.003, 0.0003…………} to obtain 0.33333 recurring.
An infinite number does not exist. In fact, the infinite cannot be measured or quantified.Just chiming in to say that transfinite numbers are a real thing in mathematics. It's not some left-wing plot just because it has 'trans' in the name.
That's correct.From a philosophical stance one could possibly state that once you have expressed N you have bounded it, even though it does not yet have a value. You see which ever number it is, it will be only one specific integer. Thus it is finite. It will be no more, no less and will just be. N+1 will be one integer more than the value assigned to N
It shall probably only exist for a finite time... the record and memory of it shall pass away. If 'immortalised' in a very enduring substance, it will still probably not endure indefinitely. Lol
It seems quite definite to me
Since no element of the set of positive integers can be anything other than a positive integer, the onus is on you to specify. The specific element of that positive integer set that is not a finite member.
I asked for an answer not a deflection.The same way that you add elements in a finite set. The answer is still always a finite answer and that is guaranteed and no matter how many finite additions you perform.
You can't count using finite numbers and reach an infinite number, no matter how long you want to count finite numbers for.
The cardinality of any set of positive integers will always be a natural number. Do you have difficulty with what I just said.What is the cardinality of this unique set that you mentioned?
I agree.The cardinality of any set of positive integers will always be a natural number. Do you have difficulty with what I just said.
There can never be an infinite set of positive integers as positive integers are finite numbers.
Count positive integers for an extended period and you will always only ever have, a cardinal value that is a natural number. There is no twilight zone in mathematics.
To even hint that while counting the elements (i.e., positive integers) of a set you will reach an undefined, non natural number. Is simply not true.
That is not a deflection.I asked for an answer not a deflection.
Your on the ball.I agree.
Even if one keeps counting until they died, they still would not have uttered an infinite integer.
Infinity is a construct, it doesn't exist. Even a loop is not infinite because all other directions are bounded. It is a concept for lazy folk who have no perseverence .
I'm not sure what the Cardinals have to do with mathematics though.Your on the ball.
Integers can never be anything but integers.
Sets of integers are only sets of integers.
The number of elements of any set of integers is always a natural number.
No matter how big a set of integers one could ever imagine, the cardinal value is always a natural number.
Infinite sets do not exist because the cardinal value of an infinite set is not a natural number.
The cardinality of any set is always a natural number.
Integers are finite numbers and the set of all positive integers are bounded within that set of finite numbers.
Consider the set of positive integers, {1,2,3,...}
The set of all numbers (Z) cannot be defined as an infinite set, as the set (Z) can never approach an infinite point. Because that point or number is not defined in mathematics.
The set of natural numbers starts at zero and has a bound. An infinite set is unbounded.
The set of integers are divided into positive and negative integers, both positive and negative integers are bounded at zero.
Since no element of the set of positive integers can be anything other than a positive integer, the onus is on you to specify. The specific element of that positive integer set that is not a finite member.
I agree.That is not a deflection.
Any set with a cardinal value of an infinite value is undefined, you must declare the value of the term 'infinite'.
1 divided by ∞, is not a mathematical operation because ∞ is undefined in any numerical sense.
Always a natural number of course.You have mentioned a number of specific sets. What is the cardinality of any of these that you have talked about?
The number of elements in a set is called the cardinal value of a set.I'm not sure what the Cardinals have to do with mathematics though.
Not only is it a deflection but a capitulation.That is not a deflection.
Any set with a cardinal value of an infinite value is undefined, you must declare the value of the term 'infinite'.
1 divided by ∞, is not a mathematical operation because ∞ is undefined in any numerical sense.
By your rationale with all this, 1/3 is not a real number. Nor is pi, or e. You realize that, right?Your on the ball.
Integers can never be anything but integers.
Sets of integers are only sets of integers.
The number of elements of any set of integers is always a natural number.
No matter how big a set of integers one could ever imagine, the cardinal value is always a natural number.
Infinite sets do not exist because the cardinal value of an infinite set is not a natural number.
Well, 1/3 can be as long as one is willing to change bases any time a repeater comes up. Transcendentals on the other hand ...By your rationale with all this, 1/3 is not a real number. Nor is pi, or e.