Abstract

Total heat generation in a vertically-shaped closed hydraulic circuit of specific section, supplied with a special device (SD) used to lock the circulating liquid medium, i.e. regular water, is analyzed in order to detect possible excess heat with regards to input electric or mechanical power. Long experimental runs were carried out in order to extract transient continuous equilibrium periods, i.e. constant water temperature, distinguished by the imposed recovery pressure and the SD model, while equilibrium series were obtained after connecting the main circuit to a heat exchanger with adjustable dissipation power. The generated heat was measured after observing the flow to the heat exchanger and the temperature difference between the supply and return lines. The heat dissipation from the main circuit was measured as a function of the difference between the circuit and environmental temperatures, as well as a calibration test without any SD was carried out in order to estimate the pump’s motor efficiency on the basis of classical energy conservation. The results show a sharp dependence of excess heat generation from height of installation and statistically significant dependence of excess heat generation upon both water temperature and hydraulic pressure. This evidence agrees with predictions from the theory of byuons about the occurrence of a new force of nature acting upon quickly rising substance in the Earth’s gravitational field, the work performed by such force increasing with the vertical distance traveled by the substance. The results of experiments with heat installation practical show a decision of problem of A. Einstein, i.e. the creation of Joint Theory of Fields.

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