The dark matter phenomenon is known since 1933 and it correlates with the
formation and the stability of galaxies and other large-scale structures. In the year 1933 Fritz
Zwicky discovered a stabilization effect connected to the Coma cluster of galaxies [Zwicky,
F. Helv. Phys. Acta 6, 110 – 127 (1933)]. The first interpretation of this stabilization effect
leaded to the hypothesis of dark matter particles that could correlate with a gravitational effect
and that could be involved in the stability of galaxies. Despite the fact that the stability of
galaxies and galaxy clusters is known since more then 70 years, no consistent experimental
data is presently known to support the hypothesis of dark matter particles. The assumed dark
matter particles are presently not yet detected. The main experiment regarding dark matter
particles of the year 2004, respectively the CDMS II experiment [D.S. Akerib et al., Phys.
Rev. Lett. 93, 211301 (2004)] could not confirm the existence of dark matter particles,
respectively of WIMPs (weakly interacting massive particles).
Following an alternative interpretation of the stabilization effect performed by galaxies and
other large-scale structures connected to a boson field, a special excitation effect was found.
This special excitation effect occurs without any presently known form of excitation and it is
detectable in connection with different kind of material samples inside the cavity of a black
body during laboratory experiments as well as during experiments performed outdoors in free
nature. This excitation effect is followed by a regular pattern of emission in the spectral range
of 160 – 630 nm at 273 – 300 K. The regular pattern of emission is uninterrupted detectable
for at least 7 days in connection with samples made of granite and granodiorite.
Table of Contents
1. Introduction
2. An alternative theoretic concept of the dark matter phenomenon
2.1. An overview on the dark matter phenomenon
2.2. An alternative theoretic concept of the dark matter phenomenon based on a boson field
3. The both experimental hypotheses of an excitation effect performed by a boson field
eventual involved in the dark matter phenomenon
4. The experimental basic idea
5. The experimental assembly
6. The experimental verification of the presented hypotheses
6.1. The exposure of selected material samples to the verified boson field
6.1.1. Experimental results
6.1.2. The main findings
6.2. The exposure of material structures to the emission of particles from a force field
amplification knot of the verified boson field
6.2.1. The exposure of selected material samples to the emission of particles from a force field
amplification knot of the verified boson field
6.2.1.1. Experimental results
6.2.2. The exposure of the experimental assembly to the emission of particles from a force
field amplification knot of the verified boson field
6.2.2.1. Experimental results
6.2.3. The main findings
7. Experimental uncertainties
8. Discussion
8.1. Backgrounds
8.2. The eventual influence of low level natural radioactivity on the founded UV-VIS emission
inside the cavity of the experimental assembly
8.3. Delimitation of the UV-VIS emission inside the cavity of the experimental assembly
against thermal radiation and luminescence (phosphorescence, fluorescence, etc.)
9. Conclusions
10. The next steps
Research Objectives and Topics
This work investigates an alternative theoretical framework for the dark matter phenomenon, proposing that it is linked to a boson field rather than exclusively to non-baryonic particles. The central research question explores whether this boson field induces a detectable, special excitation effect in baryonic matter, which would explain large-scale structural stabilization without relying on undetected dark matter particles like WIMPs.
- Evaluation of cold vs. hot dark matter concepts and their limitations.
- Theoretical modeling of a background boson field acting on baryonic structures.
- Experimental verification through photon counting in a dark cavity environment.
- Analysis of excitation effects in geological and material samples (granite, granodiorite, plywood).
- Investigation of potential links between observed excitation and galactic hyperstructures.
Excerpt from the Book
The exposure of selected material samples to the emission of particles from a force field amplification knot of the verified boson field
The second hypothesis presented in section 3 was primarily verified by exposing different kind of material samples to the emission of particles from the eventual existing force field amplification knot of the form field of the Milky Way connected to the sun. If certain selected material samples would be exposed to the emission of particles from the force field amplification knot of the form field of the Milky Way that is connected to the sun, then according to the second experimental hypothesis, it could be possible that certain samples would store the force field generated by the emitted particles of the form field of the Milky Way to a certain degree, depending on the properties of the samples regarding the form field of the Milky Way. This storage effect could occur in a quite similar way, as described above in section 6.1.
If those samples that were exposed to the emission of particles from the verified force field amplification knot of the form field of the Milky Way connected to the sun, are mounted then inside the light-tight enclosed cavity of the experimental assembly, UV-VIS photon emission could occur in connection with those samples, that are able to store the force field generated by the emitted particles in the respective samples. The initial height of the UV-VIS emission inside the cavity of the experimental assembly at start of the experiment, respectively at the time of light-tight closing of the experimental assembly, could provide important information about the properties of the samples regarding the eventual existing emission of particles from a force field amplification knot of the form field of the Milky Way that is connected to the sun.
Summary of Chapters
Introduction: Provides the cosmological background, discussing the dark matter phenomenon, cosmic microwave background observations, and the current limitations in explaining large-scale structure formation.
An alternative theoretic concept of the dark matter phenomenon: Reviews existing cold and hot dark matter theories and introduces the possibility of a boson field concept as an alternative explanation for the observed mass-energy relations in the universe.
The both experimental hypotheses of an excitation effect performed by a boson field eventual involved in the dark matter phenomenon: Formulates the central experimental hypotheses, proposing that a boson field acting on baryonic matter induces an excitation effect detectable on Earth.
The experimental basic idea: Details the rationale for using a light-tight black-body cavity and photon counting detectors to register non-thermal radiation in the UV-VIS range, which should not exist under standard conditions.
The experimental assembly: Describes the construction of the light-tight, battery-powered apparatus designed to isolate experimental samples from external electromagnetic and noise influences.
The experimental verification of the presented hypotheses: Presents the methodology and results for testing various material samples, confirming that granite, granodiorite, and plywood exhibit anomalous photon emission linked to the hypothesized field.
Experimental uncertainties: Outlines the precision limitations of the measuring chain, including temperature sensors and frequency counters, ensuring the observed anomalies are statistically significant.
Discussion: Analyzes potential environmental backgrounds such as radioactivity and electromagnetic interference, concluding that the observed emission patterns cannot be attributed to known natural or systematic causes.
Conclusions: Summarizes that the experiments support the existence of a boson field interaction, providing a reproducible effect that suggests a concrete energetic link to the dark matter phenomenon.
The next steps: Proposes future research directions, including testing additional natural stone types and developing more precise experimental assemblies to map the full emission range.
Keywords
Dark matter, boson field, excitation effect, UV-VIS emission, photon counting, baryonic matter, large-scale structures, galaxy stabilization, experimental physics, energy storage, Milky Way, cosmic microwave background, particle physics.
Frequently Asked Questions
What is the primary focus of this research?
The research investigates an alternative theory for dark matter, suggesting that the phenomenon is primarily connected to a boson field acting directly on baryonic matter rather than being caused by unknown non-baryonic particles.
What are the central topics covered in the book?
The book covers the theoretical conceptualization of background boson fields, experimental methods for detecting non-thermal photon emissions, and the potential implications of these findings for galaxy stability and the evolution of the universe.
What is the core objective of the work?
The primary goal is to provide experimental evidence for a boson field by demonstrating that certain materials, when exposed to this field, exhibit a unique, steady, and temperature-coupled photon emission that cannot be explained by standard physics.
Which scientific methodology is utilized?
The study utilizes high-sensitivity photon counting within a light-tight, temperature-stabilized cavity. It compares experimental measurements against the predicted null results from Planck’s radiation law to isolate anomalous energy effects.
What is discussed in the main body of the work?
The main body details the experimental assembly, the rigorous isolation of the samples from external noise, the specific reaction of different minerals like granite and granodiorite, and a comparative analysis of these results against established physical laws.
Which keywords best characterize the study?
Key terms include Dark matter, boson field, excitation effect, UV-VIS emission, photon counting, baryonic matter, galaxy stabilization, and large-scale structure formation.
How does the author explain the difference between this boson field and the four known interactions?
The author posits that while gravity and electromagnetism act between particles of baryonic matter, this boson field acts directly on the particles themselves, characterizing it as a distinct, background energetic network.
What is the significance of the "force field amplification knots"?
These knots are hypothesized to be the sites of particle emission within the boson field, potentially correlating with energy-emitting structures such as stars and quasars, thus serving as a mechanism for star formation and galaxy-level stabilization.
- Citation du texte
- Eugen Mihailescu (Auteur), 2005, An excitation effect that could be involved in the dark matter phenomenon, Munich, GRIN Verlag, https://www.grin.com/document/35215
