Exploring Two-Digit Number Counting with Different Bases

In summary, a general two-digit counting number can be represented as d1*b + d0 = C, where C is the count and b is the count of symbols in the digit, starting at 0. This number system can be used to count any other number system and can be turned into a single digit by choosing the proper base. However, base 0 is useless and uninteresting, as it has no numbers, and base 1 only has one symbol, regardless of what that symbol may be. Negative bases create mirror image numbers.
  • #1
Digit
18
0
A general two digit counting number is:
d1*b + d0 = C ; where C is the count
Let b = 2 as an example

d
1 0 C
------
0 0 0
0 1 1
1 0 2
1 1 3

b is the count of symbols in the digit, but it can start at 0

d1*0 + d0 = C ; works fine
d0 = C ; and can be any base.

d
1 0 C
-------
0 0 0
0 1 1
1 0 0
1 1 1

Does this mean anything?
 
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  • #2
A number system with zero numerals is rather useless.

- Warren
 
  • #3
You still have d0 left and it can have any base you want.
Why does anything have to be useful to be interesting?
 
  • #4
A number system with zero numerals is rather uninteresting, too. You might as well stare at the bottom of an empty bucket.

- Warren
 
  • #5
When b = 0 d0 = C
C is a counting number. You can count any other number system.
Any multi digit number can be turned into a single digit by choosing the proper b. What this amounts to is that only digits are real.
That is, all numbers cycle on some b set.

d4*A^4 + d3*B^3 + d2*C^2 + d1*D + d0 = N is a number of 4 digits, all with different bases.
The electron shells around atoms have these bases:
2 8 18 18 32 32 are the bases of electron shells.

What caused this post was working with multiple digits. On my number wheel, base 0 means the wheel cannot turn. However with multiple digits you still have d0 = C. C cannot have a 0 base or we cannot count. (setting a base = 0 does not set all all number bases to 0
Warren.)
Number base is a property of numbers, but most of the time, by making multiple digits or a large b, it can be ignored.
Exploring the guts of arithmetic is all I have left to do.
 
  • #6
Digit: You seem to have a misconception of what a "base n" number system is-

If we write a number is base n, we might well have "an+ b" so that it has "digits" a and b but a and b themselves must be less that n! That is why "base 0" is both useless and uninteresting.
 
  • #7
Yes, I know that.
What I was not sure of is where the base counting number starts.
I have put digit on a wheel. With base 0 or 1 you cannot turn the wheel.
However with a*n + b = c you can make n = 0 for digit 1 and you still have digit 0 where b = c. b = c has a base also, but it does not have to be 0.
I think base is also the count of the symbols of the digit, including 0. However I cannot prove that. Base = 0 violates that since there are no symbols. Base starting at 1 has one symbol but no states.
So maybe we can say that base 0 numbers are always 0 and base 1 numbers are all 1. Can't prove that either.
d1*b1^2 + d2*b2 + d3 = c is a number evern when b1 <> b2.
What kind of number?
Also, do negative bases make a mirror image number?
 
  • #8
Base 0 has no "numbers" but base 1 certainly does. It has the one digit "0" (except that normally we replace it with the symbol 1) and

1: 1
2: 11
3: 111
4: 1111
5: 11111
6: 111111
7: 1111111

Look familiar?
 
  • #9
Yes.
Base 1 numbers have one symbol. Matters not what the symbol is.
As you have shown, it is always that symbol.

Thanks for the comments. Nothing much more to say on this subject.
 

1. What is the concept of "Exploring Two-Digit Number Counting with Different Bases"?

The concept of "Exploring Two-Digit Number Counting with Different Bases" involves understanding how numbers can be represented in different counting systems or bases. In this case, we will focus on two-digit numbers and how they are counted using different base systems, such as binary, decimal, and hexadecimal.

2. Why is it important to explore different bases when counting two-digit numbers?

Exploring different bases when counting two-digit numbers helps us understand the underlying principles of number systems and how they work. It also allows us to compare and contrast different counting systems and their advantages and limitations.

3. What are the most commonly used bases in mathematics?

The most commonly used bases in mathematics are decimal (base 10), binary (base 2), and hexadecimal (base 16). Decimal is the most familiar to us, as it is the base system we use in our everyday lives. Binary is used in computer programming, and hexadecimal is often used in computer science and engineering.

4. How do you convert a two-digit number from one base to another?

To convert a two-digit number from one base to another, you can use the place value system. For example, to convert a decimal number to binary, you would divide the number by 2 and record the remainder. Then, you divide the quotient by 2 and record the remainder. This process is repeated until the quotient is 0. The binary number is then read from bottom to top. The same process can be applied to convert a decimal number to hexadecimal, except the number is divided by 16 and the remainders are replaced by the corresponding hexadecimal digits.

5. How can exploring two-digit number counting with different bases be applied in real-life situations?

Exploring two-digit number counting with different bases can be applied in various fields, such as computer science, engineering, and finance. In computer science, binary is used to represent data and perform calculations in computer systems. In engineering, hexadecimal is often used to represent memory addresses and machine code. In finance, different bases are used in financial calculations, such as binary options and interest rate conversions.

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