I have heard of such idea:
A sphere of fractional dimension 0<s<1 is understood as a probability sphere with probability s to have an electron at a certain position
for example the volume of the sphere S^{n-1} in \Re^n has volume
Vol(S^{n-1})= (2\Pi^{n/2})/(\Gamma(n/2)
and we can...
The following was gathered in an experiment.
r(m)----- N1------N2-----N3----N4-------N5---N_avg---delta N
0.001---131------139---175---140-----158----148.6----15.882
0.002----90-------96---102-----87------85----92------6.228
0.003----52-------53----73-----65------55----59.6----8.139...
Hi all, I've been trying to get back into mathematics by teaching myself calculus. I've been starting with the book "Calculus Made Easy" and have been doing fine except for one little thing I encountered on page 57.
He shows a mathematical proof of why the derivative of
y = x^\frac {1} {2}...
Hello,
I have posted a while ago wondering how to make a coil that was tuned to Earth resonance (~7.8 Hz). I realize that the wavelength at that frequency range is ridiculously low and would require an antenna the size of Texas to couple too normally. But I heard something about fractional...
sooo ...
i am kind of clueless about how to determine a linear fractional transformation for a circle that maps on to a line or vice versa ...
like i do *kinda* get how to map a circle on to a circle ... or a line on to a line ...
The book and lecture notes do not give a good example of how to solve this type of problem. After writing out f' I don't know how to simplify. Any hints?
\begin{array}{l}
f(x) = x - 5(x - 1)^{2/5} \\
\\
f'(x) = \frac{{f(x + h) - f(x)}}{h} = \frac{{(x + h) - 5((x + h) - 1)^{2/5} -...
We have been working with Gibbs factors and the grand partition function in my thermodyamics class. There is an example in the text that deals with a system that is either occupied or not occupied (energy = 0 or energy = E). The "fractional occupation" is then defined as the Gibbs factor for...
So it is well-known that for n=2,3,... the following equation holds
\zeta(n)=\int_{x_{n}=0}^{1}\int_{x_{n-1}=0}^{1}\cdot\cdot\cdot\int_{x_{1}=0}^{1}\left(\frac{1}{1-\prod_{k=1}^{n}x_{k}}\right)dx_{1}\cdot\cdot\cdot dx_{n-1}dx_{n}
My question is how can this relation be extended to...
Hello all!
I was wondering if anyone knew of any good internet leads(besides mathworld, which does not have that much) on the topic of Fractional Differential Equations. I am wanting to investigate Tsallis's Non-Extensive entropy and from what I have come to understand he came to his...
Hi,
I've got this particular polynomial a^{3/2}+x^{3/2} and I need to factorize it as far as possible.
I've come to the conclusion that there are no factors.
Am I wrong?
Because I can't write squared, if x is squared, I will just write it like this: xsquared
x/x +2 MINUS x/xsquared - 4 = x+3/x+2
I get an LCD for each fracton and then I subtract getting this:
xsquared - 2x MINUS x/xsquared - 4 = (x+3)(x-2)/xsquared - 4
What do I do now?
If you...
from the expression for a Fractional integral of arbitrary order:
D^{-r}=\frac{1}{\Gamma(r)}\int_c^xf(t)(x-t)^{r-1}
if we set r=-p then we would have for the Fractional derivative:
D^{p}=\frac{1}{\Gamma(-p)}\int_c^xf(t)(x-t)^{-(p+1)}
is my definition correct?..i mean if its correct...
Last year I made a more modern version of a QM simulation
I did a long long time ago, It makes movies of time evolutions
of arbitrary wave functions in a QM harmonical oscillator.
(You can see the movies via the links below)
http://www.chip-architect.com/physics/gaussian.avi...
hello reader
i have a problem understanding the following type of equation.
(n+x)/nth root of x
n being a fixed numerical value and x being the unknown
how would i differentiate such a problem
an example of this is:
(1+x)/4th root x
thank you
...having at least one fixed point.
let g be a given function with fixed point p.
say g is defined on R though it could be C.
here's how we can approximate the fractional iterates of g:
expand the series for the nth iterate of g, denoted g^n, about p.
g^n(p)=p...
Instead of superstrings having 10 unitary dimensions (6 of compactified space and 3+1 of ordinary spacetime), imagine these 6 compactified spatial dimensions being of fractal value (3/6=1/2) relative to the 3 apparent dimensions of space.
This corresponds as a dimensional duality to the 6...
Such as sqrt 5: (2.236067977...)
Start with the fractional seeds 2/1, 9/4,...
New members are generated (both numerators and denominators) by the rule new member = 4 times the current plus the previous.
Which generates the progrssion 2/1, 9/4, 38/17, 161/72, 682/305, 2889/1292...
Has any menaing the use of fractional calculus in..physics?.i have used it several time to quantizy non-polynomial hamiltonians in quantum mechanics...(such us H=p**e e not an integer).but does the fractional calculus have a meaning or utility in physics?..to cancel infinities to calculate...