Examples of using Imaginary number in English and their translations into Danish
{-}
-
Colloquial
-
Official
-
Medicine
-
Financial
-
Ecclesiastic
-
Official/political
-
Computer
Imaginary number?
So I is an imaginary number.
But with that said,any number times this imaginary unit i is an imaginary number.
There are imaginary numbers now?
You can't add a real number plus an imaginary number.
So we know when we multiply an imaginary number times its conjugate, we get a real number. .
On his return to Tokyo in 1903 Takagi proved a conjecture on abelian extensions of imaginary number fields made by Kronecker.
And just remember,when you have two imaginary numbers times each other, the i's, when multiplied times each other, and you get negative one.
I give a shit about your imaginary numbers.
But imaginary numbers tend to get a bad rap because they're called imaginary numbers, so some people think that they exist less than other things.
And threei we can call an imaginary number.
And since you have a degree in complicated systems and imaginary numbers, you know that what appears to be synchronicity-luck- is nothing more than a sophisticated array of cause and effect.
Now I won't go into all of the philosophical musings about whether i, as a number i, or any imaginary numbers actually exist.
In the first Knuth describes an imaginary number system using the imaginary number 2i as its base, giving methods for the addition, subtraction and multiplication of the numbers. .
But you can most definitely scale an imaginary number by a real number. .
We learned in the imaginary numbers video, that hopefully you have watched, that every now and then in certain equations you end up with a square root of a negative number. .
If you end up with a negative number under the square root sign,at least if we haven't learned imaginary numbers yet, you don't know what to do.
These were An imaginary number system and On methods of constructing sets of mutually orthogonal Latin squares using a computer I the latter paper being written jointly with R C Bose and I M Chakravarti.
On his return to Tokyo in 1903 Takagi proved a conjecture on abelian extensions of imaginary number fields made by Kronecker. Kronecker described this conjecture as.
He wrote an important article in 1768 Von den Logarithmen vermeinter Grössen in which he discussed logarithms of negative and imaginary numbers, giving a geometric interpretation of logarithms of complex numbers as hyperbolic sectors, based on the similarity of the equations of the circle and of the equilateral hyperbola.
This is a magical thing because"e" comes out of compound interest, and exponential growth and decay;"i" squared is negative one,it seems this very bizarre, imaginary number; π("pi") is the ratio of the circumference of a circle to its diameter, and -1 is, well.
The first of the two papers proved a conjecture of Gauss on imaginary quadratic number fields using ideas of Hecke, Deuring and Mordell.
The first of the two papers proved a conjecture of Gauss on imaginary quadratic number fields using ideas of Hecke, Deuring and Mordell. Heilbronn proved the conjecture which asserts that the class number of the quadratic number field Q(√-d) tends to infinity as d tends to infinity.