HPCC-Space GmbH
High Performance Computing and Communication
News and Publications in 2006-2005
13 December 2006
Announcement:
Talks by Jean-Marie Muylaert
Head, Aerodynamics and Aerothermodynamics Section, European Space Agency,
Noordwijk (Netherlands)
Tuesday, 19th December 2006
  1. Critical Aerothermodynamic issues for hypersonic flight : an overview
  2. In flight research on ablation radiation
Talk 1: 14:00 - 14:45
Talk 2: 14:45 - 15:30
Questions and Discussions: 15:30 - 15:45
Location: Gebäude A, Raum A.1OG.02
Univ. of Applied Sciences
Karl-Scharfenberg-Str. 55-57
38229 Salzgitter-Calbecht
Directions: see http://www.fh-wolfenbuettel.de/cms/de/service/download/sz.pdf
Contact: Prof. Dr. J. H??user jh@hpcc-space.de
Tel.: (+49)5341-875-450 (201)

24 August 2006
Artificial Gravitational Field Generated in the Laboratory? (pdf)

Spacetime Physics and Advanced Propulsion Concepts. (remarks)
As a follow up of the recent AIAA JCP meeting in July,
a revised version of our  invited AIAA 2006-4608 paper can be downloaded  (5Mb,pdf)

New Book on Numerical Grid Generation available:
Selected Papers from
9th International Conference, June 12-15, 2005 on Numerical Grid Generation
in Computational Field Simulations
Published by
International Society of Grid Generation ISGG
Eds. P. Papadopoulos, J. Häuser, P. Eisemann, J. Thompson, B. Soni, R.-M. Spitaleri
order through ISGG

10 April 2006:
Extended Heim Theory, Physics of Spacetime, and Field Propulsion
In this non-mathematical overview we present a very brief introduction to some of the basic physical assumptions of Extended Heim Theory (EHT) as developed by Heim and Dröscher. We also explain the differences to the original 6-dimensional theory of Heim. These differences may be substantial, and we will show that a completely different picture of physical interactions is the result. EHT predicts six fundamental physical interactions. Heim had adopted Dröscher's idea of a 12-dimensional internal symmetry space from which the polymetric tensor, describing physical interactions, has to be constructed. Together with Dröscher, he published the book Strukturen der physikalischen Welt und ihrer nichtmateriellen Seite, Resch Verlag, 1996, Innsbruck, in which the physical consequences of this 12-dimensional internal space are discussed. Unfortunately, because of his failing health, Heim could not any more accomplish the task of rewriting his first two volumes on Elementarstrukturen der Materie, Resch Verlag, Innsbruck. The notes below are an excerpt from a forthcoming paper and are only a beginning (pdf  207kB).

March 2006: Prof. G.W. Bruhn, Dept. of Mathematics, Technical University of Darmstadt, Germany, http://www.mathematik.tu-darmstadt.de/~bruhn/IGW.html
criticized that Eq. (2) in our paper AIAA 2004-3700, a4,   letter,  will lead to a flat metric. 
We have rejected his comments as being irrelevant to the physics of Heim theory, see pdf .

In the following we present  the physical basis of Heim theory in a nutshell:
  1. The overall objective of Heim theory, as developed in our papers, is to answer the central problem of physics, namely the number, nature, and origin of the fundamental interactions that do exist in Nature.

  2. To this end, we start from GR (General Relativity) and not from quantum mechanics, following an idea of Einstein as published by him in one of his last papers in 1950, Scientific American, April, Vol 180, NO 4. Heim expressed this conviction in form of a geometrization principle that should lead to the geometrization of all physical interactions. In order to achieving this goal, the proper poly-metric tensor needs to be constructed.

  3. Therefore, spacetime is assumed to be a differentiable 4-dimensional manifold, M4, as long as quantum effects are not considered. This manifold comprises a collection of points where each point is specified by a set of four real numbers and has the same local topology as R4, i.e., it is locally but not globally (as wrongly assumed by Prof. Bruhn) like R4.  This is why we refer to spacetime sometimes as R4, but the physical  meaning is always clear from the context. This is explicitly shown in  Figs. 1 and 2 on pages 3 and 4 of our paper AIAA  2005-4521, a4, letter.

Our research work on advanced propulsion systems based on field propulsion (Heim theory) was described in a popular article by New Scientist, 7-13 January 2006.
However, not everything described there should be taken literally. The theoretical work is highly speculative, and it is not sure that there are three gravitational interactions in Nature as predicted by us. On the other hand, the benefits would be enormous if six fundamental physical interactions existed in Nature.

Dr. Häuser presented an invited lecture and paper on Advanced Propulsion (Magnetohydrodynamics and Heim Theory) at Sarod 8-9 December 2005, Hyderabad, India. Proceedings  published as:
Recent Trends in Aerospace Design and Optimization, SAROD-2005, ed. B. Uthup,
ISBN 0-07-060829-6, Tata Mc Graw-Hill, 2005.


Dröscher, W., Häuser, J.
Heim Quantum Theory: Notation, Glossary and Mathematical Definitions
( pdf, 270kB)

Dröscher, W., Häuser, J.
Magnet Experiment to Measuring Space Propulsion Heim-Lorentz Force a4, letter (pdf, 1.7 MB)
Innsbruck, Austria,
Faculty Karl-Scharfenberg, University of Applied Sciences, Salzgitter, Germany, 41st AIAA/ASME/SAE/ASEE Joint Propulsion Conference & Exhibit,Tucson,Arizona, 10-13 July,2005
As of June 1, 2005 Prof. Häuser was elected Visiting Scholar by the Aerospace and Mechanical Engineering Dept. of San Jose State University, California

W. Droscher, IGW, Innsbruck and J. Hauser have been selected to
receive the AIAA Award for 2004, best paper by the
Nuclear and Future Flight Technical Committee.
This award will be presented at the 41st AIAA Joint Propulsion
Conference in July 2005

Talk by Prof.  J. Häuser about Space flight given at the International Junior University of Salzgitter, 2005 Thursday, April, 21st.
Vorlesung von Prof. J. Häuser  an der Internationalen Junior-Universität Campus Salzgitter, 21. April 2005
"Raumfahrt - Was ist das" (pdf,1.6MB)