In our base ten system of positional notation, we have 10 symbols, and place values defined by a decimal point. Just to the left is the ones place; to the left of it is the tens place, and so forth.
To the right of the decimal point is the tenths place, and to its right is the hundredths.
Ten is the base. But you can have base 8, base 16, base 2 or base any integer. Remember -- the number of symbols you need is equal to the base.
"Decimal" point is particular to base 10. The general term is "radix point."
To the left of the radix point is the place for the base to the zeroth (base0) power. To the left of it is the base1. Next left is base 2 .
Just to the right of the radix point is the place for the base -1. Next right is base -2 , and, and so forth.
Bases 8 and 16 are useful as shorthands for binary. Binary is useful because arithmetic can be done with arrays of two-state devices.
Wiki User
∙ 7y agoInfinite
One fewer than the base for the number system.
3
infinit
There are two digits in the binary number system. 0 and 1
Infinitely many.
unknown
two
8
9,000,000
12
Any number of forces can be added.. The 3-D system does not limit the number of forces, only their dimensionality.
In LAN we can add as many system depending upon the number of ports in switch and how many switches you are using.
As many as the number of dimensions that the coordinate system represents. 2 if it is 2-dimensional plane, 3 if 3-d space and so on.
There are number systems based on many positive integers as well as positive irrational numbers.
For the decimal number system . . . 'Ten'. For the binary number system . . . 'Two' For the octal number system . . . 'Eight' For the hexidecimal number system . . . 'Sixteen' . . etc.
10. SI units are based on the decimal system. For many purposes they can be seen as based on a system of 1000.