The Solid, Quantified, Growing and Radiating Earth

Stavros T. Tassos
Institute of Geodynamics, Athens, Greece

Space is the infinite source of all mass that becomes measurable as energy-traveling and matter-standing waves, i.e., waving space itself at 299792458 m/s. Energy and matter are sine waveforms of local anisotropy in the elastic, large-scale isotropic continuum, which is lossless and has infinite elasticity to any velocity < light speed, and infinite rigidity at v³c. Gravity is tension and its inverse quantity is ‘mass'-space density. All wave-particles contain a constant quantum of tensional elastic potential, irrespective of wavelength, as per E=hf. Due to constant linear stretching, the total tensional elastic energy (E), i.e., frequency, raises proportionally counteracting entropic dissipation, whilst local space density (m), inversely and proportionally increases, as one entity, thus the constancy of the square root of their ratio. In the context of Excess Mass Stress Tectonics – EMST, Earth is a quantified solid black body that appears to grow with time. Earth's inner core is an equilibrium high-tension/high-frequency location, wherein energy-traveling waves transform into matter-standing waves, so that the conservation principle is not violated. Form new elements, i.e., ‘Excess Mass', which are added atom-by-atom, the greater bulk concentrically, whereas the ‘active' part rises in the cold and increasingly rigid with depth mantle, as the seismic wave velocity data indicate. Upon oxidation-decompression the reduced form releases its ‘excess' electrons. Iron with the highest nuclear binding energy of 8.8 MeV should be the last element to form; thus the absence of true oceanic crust older than 200 m.y. High temperatures and melting are local and episodic phenomena, sourced by radiant heat, i.e., electron resonance in 10^-6 m micro-cracks at 10¹⁴ Hz, at depths lower than 5 km; the maximum depth horizontal micro-cracks can remain permanently open.

AAPG Search and Discovery Article #90072 © 2007 AAPG and AAPG European Region Conference, Athens, Greece