Cosmic Influx Theory (CIT)

Introduction

The Cosmic Influx Theory (CIT) explores the continuous influx of mass-energy in celestial bodies, contributing to planetary growth, geophysical activity, and gravitational effects. Beyond the macroscopic scale, CIT proposes that mass-energy influx also influences microscopic phenomena such as Van der Waals forces, the Casimir effect… [8.2.10], and even the trajectory of falling raindrops. These phenomena may provide subtle but crucial evidence of a pervasive cosmic influx shaping both the vast and the minuscule aspects of the universe.

By delving into the Gravitational Constant, we unveil compelling evidence for an increase in mass and heat for all celestial objects within an isotropic and homogenous universe as a result of the Lorentz Transformation of Mass- Energy (LTME) [8.1.1]. Traditionally, LTME has been considered relevant primarily for subatomic particles at high velocities. However, this study posits that LTME is equally applicable to big celestial bodies, even at relatively low velocities.

CIT introduces the concept of a universal energy influx, hypothesized as a stream of “whirlings” or “excitations” interacting with the kinetic energy of atoms, driving incremental mass increases in alignment with the Lorentz Transformation of Mass-Energy (LTME) [8.7.2]

This mechanism offers a unified explanation for geological phenomena such as volcanic activity, seafloor spreading, and planetary expansion [8.4.15] [8.4.20], while also addressing cosmological questions such as galactic rotation curves and cosmic acceleration. Key results include calculated mass-energy growth rates consistent with geological observations as described by many researchers on Earth Expansion and Expansion Tectonics [8.4.20] [8.4.21], a redefinition of gravitational acceleration through the volumetric universal influx. By integrating CIT with established physics principles and observational data, this paper highlights its potential to bridge gaps in mainstream models of dark matter and dark energy [8.1.2].

Importantly, CIT does not reject the occurrence of subduction zones. Rather, it integrates subduction as a natural consequence of localized surface adjustments during global expansion. While oceanic crust is created at mid-ocean ridges, older, denser crust may subduct along continental margins, often accompanied by mountain building. However, the net balance, according to CIT, is a continuous increase in the total mass and volume of celestial bodies. A more detailed discussion on how subduction and expansion coexist within CIT is presented in Chapter 5.3.

This pursuit contemplates the possibility of an infinitely energetic universe, where energy metamorphoses into mass through M=Ec2 $M={\frac {E}{c^{2}}}$ This interpretation proposes the existence of a Process of Continuously Created Matter, manifesting as an ongoing accretion, augmentation, and expansion, harmonizing with the universe’s ever-expansive nature [8.4.7].

CIT introduces the Preferred Distance (D_pref), derived from the Root Mean Square Velocity (VRMS) of planetary systems (see Chapter 2 for explanation)[8.7.3], as a key factor in structuring planetary orbits. This theory challenges conventional gravitational models by linking the gravitational constant (G) to the Lorentz transformation and vacuum energy properties [8.7.8].

The purpose of this Wikiversity page is to present CIT in a structured and accessible format, supported by mathematical derivations, observational data, and theoretical discussions.

CIT–VGT: An Interdisciplinary Collaboration in Gravitational and Geometric Physics

Francesco Chiaramonte

In 2026, the Cosmic Influx Theory (CIT) entered a new collaborative phase through the work of Francesco Chiaramonte, developer of Vortical Geometrodynamics Theory (VGT) [8.4.54] . While the original CIT framework was developed by Ruud Loeffen, Chiaramonte has contributed substantially to the mathematical, geometrical, and field-theoretical interpretation of several CIT-related ideas.

The collaboration between Loeffen and Chiaramonte focuses especially on the possible complementarity between CIT and VGT. In this combined approach, CIT proposes a universal influx process related to mass-energy growth, gravitational acceleration, and preferred-distance relations, while VGT explores vortical, torsional, and geometrical structures that may provide a more formal mathematical language for such processes.

Chiaramonte’s contribution is particularly important in the development of the CIT–VGT research line, including discussions on planetary torsional coupling, gravitational lensing, vortical constraint algebra, Gaia DR3 harmonic density structures, and possible links between vacuum dynamics, angular momentum, and large-scale cosmic organization. These ideas remain exploratory and should not be presented as established physics, but they represent a serious attempt to make the CIT framework more mathematically explicit and testable.

For that reason, Francesco Chiaramonte is introduced here as co-author and theoretical collaborator for the CIT–VGT convictions, reasoning, insights, and related publications developed from 2026 onward. The aim of this collaboration is not merely to confirm CIT, but to examine, strengthen, criticize, formalize, and where necessary correct the theory through mathematical reasoning, observational comparison, and open scientific discussion.

Professor Suresh Kumar S.

Professor S. Suresh Kumar contributes advanced knowledge in mathematical physics, particularly in metric-affine geometry, torsion, Palatini formulations, SU(2) structures, hypermomentum, field theory, and the geometric foundations of gravitation. These areas are closely related to the effort within CIT–VGT to describe gravity not only as an observed force, but as a deeper interaction between cosmic influx, matter, motion, and spacetime structure.

His contribution is expected to strengthen the mathematical and theoretical basis of the combined CIT–VGT framework. In particular, he can help investigate whether the proposed influx processes can be represented through torsion, affine connections, matter–geometry coupling, and microscopic degrees of freedom. This may provide a bridge between the macroscopic phenomena emphasized in Cosmic Influx Theory and the more formal geometric structures developed within VGT.

Professor Kumar may also contribute to the formulation of consistent field equations, action principles, conservation relations, and possible links between nuclear, atomic, astrophysical, and cosmological scales. His expertise is therefore especially valuable in testing the internal consistency of CIT–VGT, identifying necessary mathematical improvements, and translating its physical concepts into a more rigorous theoretical framework suitable for further scientific discussion, comparison, and development.

RMM Loeffen

Ruud Loeffen is the originator and principal developer of Cosmic Influx Theory (CIT). His work begins with observable gravitational, geological, planetary, and cosmological phenomena and explores the possibility that gravity is associated with a continuous inward influx of energy and matter-forming potential.

Using accessible mathematics, numerical comparisons, and dimensional analysis, he has developed relationships involving surface gravity, planetary mass, the Lorentz transformation of mass-energy, the characteristic (V_{\mathrm{RMS}}) velocity, the gravitational constant, and possible mass-energy increase over time. His research also investigates connections between gravitational processes at planetary scales and matter formation at atomic and nuclear scales.

Within the broader CIT–VGT collaboration, Ruud provides the foundational physical concepts, numerical discoveries, observational interpretations, and cross-scale hypotheses. His aim is to encourage critical examination, mathematical development, and independent testing of CIT as an alternative framework for understanding gravity and cosmic evolution.