EDIT: Sorry didn't write the question right: I can't quite understand, why would strain decrease with frequency (if you keep flux constant)? Shouldn't strain get higher (e.g. inspiral of black holes)??
Sorry, I didn't write correctly (I am going to edit now). Actually both my questions are regarding strain. In the first equation, if you want to keep flux constant, than with higher frequency you get lower strain?? Why would that be?
Hi guys. I am having a little trouble understanding a few relations professor mentioned at lectures, regarding gravitational waves - flux of energy and strain.
First one expresses how is the flux of energy F related to frequency of radiation f and inflicted strain h. And the second one is for...
Here's the code (Python). I added comments for easier interpretation. I honestly have no idea, what could I be doing wrong...
# -*- coding: utf-8 -*-
from scipy import *
from scipy.integrate import ode, odeint
from math import *
from pylab import *
from mpl_toolkits.mplot3d import Axes3D
def...
Hey guys!
I am trying to simulate distribution of cosmic ray particles, which change their trajectory due to planet's magnetic field (no atmosphere; dipole approximation). I tried considering protons with non-relativistic velocities, falling on an Earth-like planet, which has rotational axis...