Showing posts from 2016

Lorenz Curve of the Universe's Elements

Lorenz Curve of the Universe's Elements Update May 2017 I have published a working paper on the Lorenz curve being a fractal property at . Abstract Global income has increased exponentially over the last two hundred years; while, and at the same time respective Gini coefficients have also increased: this investigation tested whether this pattern is a property of the mathematical geometry termed a fractal attractor. The Koch Snowflake fractal was selected and inverted to best model economic production and growth: all triangle area sizes in the fractal grew with iteration-time from an arbitrary size – growing the total set. Area of the triangle the ‘bits’ represented wealth. Kinematic analysis – velocity and acceleration – was undertaken, and it was noted growing triangles propagate in a sinusoidal spiral. Using Lorenz curve and Gini methods, bit size distribution – for each iteration-time – was graphed. The curves produced matched the regular Lorenz curve sh


I have now published my theory of the atmosphere.  Augmenting 19th Century Thermoelectric Greenhouse Theory with 20th Century Quantum Mechanics Raman Spectroscopy: Towards a Coherent Radiation Theory of the Atmosphere THE FULL COMPLEMENT OF GREENHOUSE GASES This is a diagram of all the vibrational modes ('absorption bands') of the Earth's atmospheric gases; in the near-infrared range of the electromagnetic spectrum. Gases are detected by thermoelectric thermopile or bolometer detectors (below), 'what is incorrectly termed 'IR spectroscopy'; and by thermoelectric's complement, Raman (Laser Lidar) spectroscopy (above). Notice O2 and N2 (some 99% of the dry atmosphere) are only detected by means of Raman spectroscopy. This is due to them both having their one (and only) vibrational mode being non-thermoelectric:  they both have only symmetric vibrational modes, with no electric dipole moments to generate, by the thermopile, an electric charge and so ar