Walter Dröscher's research while affiliated with Ostfalia University of Applied Sciences and other places

... Hauser and Dröscher maintain that in their theoretical description of Tajmar's experiments these different results can be explained by different thermal environments in which the detectors operated. They have proposed a new geometric approach for describing physical interactions, called Extended Heim Theory [69][70][71][72]. This approach predicts the existence of three gravitational fields (both attractive and repulsive), of stable neutral leptons and of particles of imaginary mass, which might be a component of dark matter. ...

... In this article our argumentation, as in Part I [2] and Part II [3], will be mostly based on experimental data and to a lesser extent on speculative ideas, which are nevertheless needed if new physics is to be introduced. Keeping in line with Part I and Part II, emphasis is on the presentation of physical concepts, and mathematical derivations have been minimized. ...

... Signals were observed from Al, Nb and YBCO disks, but only for clockwise rotation. The experiments of 2009 [63] showed that liquid and superfluid [69][70][71][72]. This approach predicts the existence of three gravitational fields (both attractive and repulsive), of stable neutral leptons and of particles of imaginary mass, which might be a component of dark matter. ...

... These particles are deemed to be essential for the generation of the axial gravity-like field in the proposed Heim experiment, see. 34,35 In group SU G (2) it is assumed that ν 02 gp → ν g + ν q occurs, where ν g , the graviton, is responsible for attractive Newtonian gravity, but there is also the repulsive quintessence particle ν q , expanding the spacetime filed, that has a different gravitational coupling constant. That is, gravitation can be both attractive and repulsive. ...

... The purpose of this chapter is to present a brief overview on the novel physics that might lead to propulsion without fuel and to present experiments that might have measured gravity-like fields that cannot be described by GR (general relativity). A much more comprehensive discussion is given in our forthcoming book entitled Introduction to the Physics and Astrophysics of Gravity-Like Fields [1]. We also would like to mention the excellent recent comprehensive treatment of novel physical ideas aiming at the description of a unified field theory by V. Weberruss234 that lead to similar conclusions. ...

... Concerning this matter, we now study Example 2.14 accompanied by Figures 2.20 and 2.21 and Figures 2. 22 and 2.23, developing the scheme of calculation of the geodesics related to the 1s orbital of the electron of the hydrogen atom, then speaking of "electron geodesics". Well, we realize that the electron geodesics here are simple circles showing the radius r 0 around the center x = 0 defined by the nucleus, and these are determined by the vectorial relation (2.186) where n represents the normal vector of the circular area which is established by the basis vectors u and v placed within the circular area. ...

... As has been discussed for more than a decade in a series of papers [15][16][17][18][19][20][21][22][23][24][25][26][27][28], if spaceflight as envisaged by Wernher von Braun is going to take place, a paradigm shift in space propulsion is needed, for details see [28]. As long as only the four fundamental forces are known, i.e., Newtonian (Einsteinian) gravitation (attractive, infinite range) and electrodynamics (Maxwell, infinite range) as well as the weak force (radioactive decay, range 10 −15 m) and the strong force (atomic nuclei, range about 10 −14 m), there is no possibility to escape the coercion of a propulsion technology requiring fuel. ...

... Four fundamental physical forces are known since the 1930s, and their mathematical description, to a large extent, was completed about five decades ago. As has been discussed for more than a decade in a series of papers1516171819202122232425262728, if spaceflight as envisaged by Wernher von Braun is going to take place, a paradigm shift in space propulsion is needed, for details see [28]. As long as only the four fundamental forces are known, i.e., Newtonian (Einsteinian) gravitation (attractive, infinite range) and electrodynamics (Maxwell, infinite range) as well as the weak force (radioactive decay, range 10 −15 m) and the strong force (atomic nuclei, range about 10 −14 m), there is no possibility to escape the coercion of a propulsion technology requiring fuel.Figure 2. The picture depicts thrust as a function of specific impulse (multiplied by 9.81 m/s 2 one obtains the fuel exit velocity). ...

... As has been discussed for more than a decade in a series of papers [15][16][17][18][19][20][21][22][23][24][25][26][27][28], if spaceflight as envisaged by Wernher von Braun is going to take place, a paradigm shift in space propulsion is needed, for details see [28]. As long as only the four fundamental forces are known, i.e., Newtonian (Einsteinian) gravitation (attractive, infinite range) and electrodynamics (Maxwell, infinite range) as well as the weak force (radioactive decay, range 10 −15 m) and the strong force (atomic nuclei, range about 10 −14 m), there is no possibility to escape the coercion of a propulsion technology requiring fuel. ...

... Al-ternatively, if a 1g gravity-like field could be generated by a mechanism the size of an ICE (internal combustion engine) then a great diversity of applications would become possible. In the short version of their 2007 paper, "Advanced Propulsion Systems from Artificial Gravitational Fields" [4] , Dröscher and Hauser discussed how they would reconfigure the apparatus employed by Martin Tajmar [5] as a "bench test" experiment employing a spinning superconductor ring, though with some key differences in configuration. This apparatus would have two advantages: 1. ...