A New Perspective on Advanced Space Travel

Affiliation(s)

Calle 9 #7-40, Apartado Postal 365837, Fusagasuga, Cundinamarca, Colombia, South America.

Calle 9 #7-40, Apartado Postal 365837, Fusagasuga, Cundinamarca, Colombia, South America.

ABSTRACT

This paper attempts to delve into the mystery of space travel. Consequently, it will be necessary to re-examine concepts which scientists hold dear. In addition, it is the author’s contention that the so-called weak force is the seat of a powerful new energy source which can be used to propel spacecraft to be unheard of velocities utilizing a variable scalar gravitational “constant”. One of the major obstacles faced is that normally the so-called “arc length” ds will be equal to zero at the speed of light (because of its dependence upon relative velocity), and since ds is used in the denominator of equations of motion, such equations will become meaningless. This paper will continue to use the arc length ds, along with its implied proper time; however, this paper will use a different method of approach to this problem which will involve divorcing ds from its dependence upon relative velocity as a result of the aforementioned generalization. The approach will be to use a complex mass-velocity vector (not momentum vector) over the usual four dimensional space-time manifold domain. The mass-velocity vector is introduced, because it is assumed that a gradient in φ or φ/μ (to be controlled from within the spacecraft) will cause not only a change in the velocity of the spacecraft, but also a change in the apparent inertial/gravitational mass mo of the spacecraft in a coordinated way. This is the guiding principle of this paper!

This paper attempts to delve into the mystery of space travel. Consequently, it will be necessary to re-examine concepts which scientists hold dear. In addition, it is the author’s contention that the so-called weak force is the seat of a powerful new energy source which can be used to propel spacecraft to be unheard of velocities utilizing a variable scalar gravitational “constant”. One of the major obstacles faced is that normally the so-called “arc length” ds will be equal to zero at the speed of light (because of its dependence upon relative velocity), and since ds is used in the denominator of equations of motion, such equations will become meaningless. This paper will continue to use the arc length ds, along with its implied proper time; however, this paper will use a different method of approach to this problem which will involve divorcing ds from its dependence upon relative velocity as a result of the aforementioned generalization. The approach will be to use a complex mass-velocity vector (not momentum vector) over the usual four dimensional space-time manifold domain. The mass-velocity vector is introduced, because it is assumed that a gradient in φ or φ/μ (to be controlled from within the spacecraft) will cause not only a change in the velocity of the spacecraft, but also a change in the apparent inertial/gravitational mass mo of the spacecraft in a coordinated way. This is the guiding principle of this paper!

KEYWORDS

Variable Gravitational “Constant”, Space Travel, Greater than the Speed of Light, Weak Force

Variable Gravitational “Constant”, Space Travel, Greater than the Speed of Light, Weak Force

Cite this paper

Bissonnet, P. (2015) A New Perspective on Advanced Space Travel.*Journal of High Energy Physics, Gravitation and Cosmology*, **1**, 14-24. doi: 10.4236/jhepgc.2015.11002.

Bissonnet, P. (2015) A New Perspective on Advanced Space Travel.

References

[1] Bissonnet, P. (2004) On the Concepts Which Lie at the Foundation of Field Flow Mechanics. Hadronic Journal, 27, 509-520.

[2] Bissonnet, P. (2010) On a Hypothesis Regarding the Physical Nature of the Weak Interaction. Hadronic Journal, 33, 145-150.

[3] Leighton, R.B. (1959) Principles of Modern Physics. McGraw-Hill Book Company, New York.

[1] Bissonnet, P. (2004) On the Concepts Which Lie at the Foundation of Field Flow Mechanics. Hadronic Journal, 27, 509-520.

[2] Bissonnet, P. (2010) On a Hypothesis Regarding the Physical Nature of the Weak Interaction. Hadronic Journal, 33, 145-150.

[3] Leighton, R.B. (1959) Principles of Modern Physics. McGraw-Hill Book Company, New York.