A Cosmological Explanation to the Pioneer Anomaly

Masreliez, C. Johan

doi:10.1007/s10509-005-4321-6

Cited by 3 publications

(7 citation statements)

References 22 publications

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“…It turns out that at low luminosities there is very poor agreement with the SCM theory's number-count prediction, while the SEC theory agrees excellently with the observations (Masreliez 1999(Masreliez , 2004a(Masreliez , 2006c. Figure 2 shows a summary from 16 different number-count programs taken from a paper by Metcalf et al (1995).…”

Section: The Number-count Testmentioning

confidence: 64%

“…The author has investigated this possibility in a series of papers that introduce and explore the scale expanding cosmos (SEC) model and has found that it describes our universe as observed (Masreliez 1999(Masreliez , 2004a(Masreliez , 2006c. The SEC model better agrees with observational data than the standard cosmological model (SCM) based on the Big Bang theory.…”

Section: This Is 4d Scale-equivalencementioning

confidence: 99%

“…Consider, for example, the cosmological line element of the SEC theory as expressed by GR, assuming a fixed pace of proper time as given by the increments ds (Masreliez 1999(Masreliez , 2004a(Masreliez , 2006c:…”

Section: The Sec Theorymentioning

confidence: 99%

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Dynamic incremental scale transition with application to physics and cosmology

Masreliez¹

2007

Phys. Scr.

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A new dynamic process, dynamic incremental scale transition (DIST), is proposed that could resolve longstanding issues in physics and cosmology. The DIST process implies that general relativity (GR) is generalized to also model discrete scale adjustments that will not alter Einstein's GR equations. A cosmos model based on the DIST process better agrees with observations than the standard cosmological model, and resolves several enigmatic cosmological puzzles including the progression of time, the connection between GR and quantum theory and the origin of inertia.

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Section: The Number-count Testmentioning

confidence: 64%

Section: This Is 4d Scale-equivalencementioning

confidence: 99%

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Dynamic incremental scale transition with application to physics and cosmology

Masreliez¹

2007

Phys. Scr.

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“…But indirect identifications could be fruitful: for instance, the expansion coefficient could be deduced from (26), the mass repartition parameters can be deduced from close observations of such curves as shown fig.1, etc. More simply, close observation of plain "linear" movement of "free" spacecrafts (Masreliez, 2005;Minguzzi, 2006;Nottale, 2003) could be of particular interest to verify such accelerations as stated by (4) or (30).…”

Section: Conclusion and Commentsmentioning

confidence: 95%

“…1, etc. More simply, close observation of plain "linear" movement of "free" spacecrafts (Masreliez, 2005;Minguzzi, 2006;Nottale, 2003) could be of particular interest to verify such accelerations as stated by ( 4) or (30).…”

Section: Conclusion and Commentsmentioning

confidence: 95%

Towards a new generalized space expansion dynamics applied to the rotation of galaxies and Tully Fisher law

Fleuret¹

2014

Astrophys Space Sci

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Up to now, the rotational velocities of galaxies are not clearly understood and the experimental Tully Fisher rule, linking the total galactic mass to the fourth power of the velocity, through an acceleration coefficient of about 10 -10 m/s 2 has not found a deep theoretical explanation. Tentative proposals (MOND theory of a modified Newton's law and extraneous dark matter) do not bring a definite clarification. We propose here a new approach to this problem, without exotic matter and using the classical Newton force. But we introduce a new additional universal acceleration, which could represent a universal expansion law valid at the scale level of a galaxy. We show that this hypothesis leads to a good description of the observed variations of the galactic transverse velocity. It can be considered as a consequence of the Scale Expansion Cosmos theory (SEC) introduced by J. Masreliez, but we postulate that the space expansion acceleration universally applies at any scale. We obtain a formal derivation of the Tully Fisher law, linking the constant galactic transverse velocity to its total mass, via the universal minimum acceleration. We derive a good estimate of the TF acceleration coefficient and show that expansion should be proportional to the square root of the local volumic mass density. Our conjecture is in fact a new dynamics principle which could be applied to many other physical problems at different scales.Applying it to the range of the solar planet system confirms the well known Kepler laws, at least as a valid approximation for the order of magnitude of the solar system.

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Astrophysics in 2006

2007

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The fastest pulsar and the slowest nova; the oldest galaxies and the youngest stars; the weirdest life forms and the commonest dwarfs; the highest energy particles and the lowest energy photons. These were some of the extremes of Astrophysics 2006. We attempt also to bring you updates on things of which there is currently only one (habitable planets, the Sun, and the universe) and others of which there are always many, like meteors and molecules, black holes and binaries.Comment: 244 pages, no figure

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A Cosmological Explanation to the Pioneer Anomaly

Cited by 3 publications

References 22 publications

Dynamic incremental scale transition with application to physics and cosmology

Dynamic incremental scale transition with application to physics and cosmology

Towards a new generalized space expansion dynamics applied to the rotation of galaxies and Tully Fisher law

Astrophysics in 2006

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