1.1: Exploring the Current Understanding of the Universe's Origin
This chapter delves into the prevailing theories and models, including the Big Bang theory, that seek to explain the formation of the universe. We discuss recent breakthroughs that offer new perspectives on this enigmatic phenomenon.
1.2: Origin of Solar Energy: Shedding Light on the Enigmatic Source
The long-standing question of how the Sun generates its immense energy is examined in detail. While nuclear fusion has been central to our understanding, we introduce alternative theories that challenge conventional explanations.
1.3: Unlocking the Secrets of Solar Dynamics: A Comprehensive Exploration
This chapter explores the complex dynamics of the Sun, including solar flares, coronal mass ejections, and sunspots, with the latest research and data offering deeper insights into solar behavior.
1.4: The Sun—An Inter-Universe Phenomenon Unveiled
Here, we explore the possibility that the Sun’s behavior is influenced by collapsing stars in other universes. This chapter presents evidence and theoretical models that propose inter-universal interactions and their implications for astrophysics.
1.5: The Enigma of Mass—Decoding its Appearance in Our Universe
We investigate the fundamental nature of mass and its role in shaping cosmic structures, such as galaxies. This chapter also explores the concept of dark matter and the evidence supporting its existence.
1.6: Hyper-Rotating Black Holes: Understanding the 6.3x Speed of Light Mystery
This chapter examines hyper-rotating black holes that challenge our understanding of relativity, exploring the phenomenon of black holes rotating faster than the speed of light and its potential implications for theoretical physics.
1.7: Seasonal Gravitational Force Variations on Earth: Unraveling the Puzzle
We explore the causes of seasonal variations in Earth's gravitational forces, including the influence of the Moon, and discuss their impact on natural processes and climate.
1.8: Another Universe Unveiled: Time Distortion and Mass Transmission
The existence of other universes is discussed alongside theories of time distortion and mass transmission between universes. This chapter examines how mass from collapsing stars reaches our universe and the implications for cosmic structure.
1.9: Stardust Origins: Illuminating the Birth of Cosmic Particles
We explore the origins of stardust and cosmic rays, investigating the processes that create and distribute these particles across the universe, shaping galaxies and other cosmic structures.
1.10: The Gravitational Dance: Gravity’s Role in Shaping Planetary Inclinations
This chapter examines the role of gravity in shaping planetary orbits and axial tilts, with recent research shedding new light on the forces that govern planetary motion.
1.11: Solar Magnetism Revealed: Tracing the Source of a Celestial Force
The mysteries of solar magnetism are explored, particularly the formation of magnetic fields and their effects on solar phenomena. We examine the connection between solar magnetism and various solar events.
1.12: Stabilizing the Cosmic Dance: Unveiling the Secrets of Disk Orbits
We investigate the formation and stability of disk-shaped structures, such as planetary rings and protoplanetary disks, analyzing the gravitational forces that maintain their stability.
1.13: Elliptical Motion Decoded: Tracing the Origins of Planetary Paths
This chapter explores the elliptical orbits of planets, discussing the role of gravitational forces exerted by other celestial bodies and presenting observational and theoretical evidence that supports our understanding of elliptical motion.
1.14: "Fiery Looping Rain on the Sun": Unraveling the Enigmatic Phenomenon
We examine the phenomenon of solar prominences, or "fiery looping rain," and explore the mechanisms behind their formation, with cutting-edge simulations and observations enhancing our understanding.
1.15: Earth's Hidden Depths: Unveiling the Presence of Gas and Fuel
This chapter discusses the presence of natural resources, such as gas and fuel, deep within Earth’s layers, investigating their formation, accumulation, and extraction processes.
1.16: Planetary Spin Stabilized: Exploring the Gravitational Force at Work
We explain the stabilization of planetary spin and its connection to gravitational forces, exploring the role of tidal interactions and angular momentum conservation in maintaining stable planetary rotation.
1.17: Planetary Orbits Deciphered: The Role of Gravity in Solar Systems
This chapter explores the formation and dynamics of planetary orbits, discussing the influence of gravity on the structure and stability of solar systems, with insights from exoplanet studies.
1.18: Conclusive Proof: Empirical Evidence Supporting our Paradigm-Shifting Discoveries
We summarize the compelling empirical evidence presented throughout the book, highlighting the convergence of observations, experiments, and theoretical models that have reshaped our understanding of astrophysics.
1.19: Reshaping Knowledge Foundations: Implications for Global Educational and Research Institutions
This chapter discusses the impact of these paradigm-shifting discoveries on educational and research institutions, emphasizing the need to update curricula and teaching methods to incorporate these findings.
In this comprehensive research work, we have embarked on a journey to uncover the mysteries of the universe and solar phenomena. By exploring topics such as the formation of the universe, the origin of solar energy, and the enigma of mass, we have presented groundbreaking discoveries that challenge and expand the current understanding of astrophysics. From hyper-rotating black holes to inter-universe connections and the gravitational forces that guide the motion of planets, each chapter offers captivating insights backed by empirical evidence. These discoveries have far-reaching implications for the future of astrophysical research and education, inspiring new generations to explore the vast wonders of the cosmos.
In an important discovery, we have identified the mechanism behind the observation that black holes seem to rotate at speeds 6.3 times faster than the speed of light. This phenomenon is supported by data from NASA, which describes the dynamics of accretion disks around black holes. As stated in a NASA article:
"When matter gets close enough to a black hole, it enters into a swirling pattern called an accretion disk. Some material from the inner part of the accretion disk falls onto the black hole, while some of it is redirected away from the black hole in the form of narrow beams, or jets, of material along magnetic field lines. Because this infall process is irregular, the jets are made of clumps or knots that can sometimes be identified with Chandra and other telescopes."
The researchers, utilizing Chandra observations from 2012 and 2017, tracked the motion of two X-ray knots within these jets, located approximately 900 and 2,500 light-years from the black hole. The X-ray data revealed apparent speeds of 6.3 times the speed of light for the knot closer to the black hole, and 2.4 times the speed of light for the more distant knot.
This apparent superluminal motion is explained by the extreme time distortion between universes. As matter rotates within the accretion disk near the black hole, the Sun, rotating at approximately 2 km per second, induces a visible motion on the black hole’s side that appears to exceed the speed of light—an effect driven by the time dilation and relativistic properties of black holes in the context of inter-universal dynamics.
We have identified the cause behind the observed seasonal variations in gravitational (G) forces on Earth. These seasonal gravity changes have been captured through data from the GRACE (Gravity Recovery and Climate Experiment) mission. For further reference, please see the following source: Seasonal Gravity Changes.
As illustrated in the accompanying data, the gravitational pull from a star undergoing collapse in another universe— the same force responsible for generating electricity in the Sun's internal coil—exerts a periodic gravitational influence on Earth. This external force modulates Earth's gravitational field, causing a seasonal reduction in gravitational strength in regions where the pull from the collapsing star is most pronounced.
This discovery highlights the dynamic nature of Earth's gravitational field and reveals how inter-universal forces contribute to the seasonal fluctuations observed in Earth's gravity.
We have uncovered evidence for the existence of another universe, distorted in time, from which mass reaches our own universe. This discovery is supported by our demonstration of the dynamic nature of Earth's axial inclination. Without the presence of an external force to account for this dynamic behavior, the existence of such a force becomes clear.
Our findings present a comprehensive explanation of the source of this force. As observed, an inclination caused by a one-time external event would not exhibit the recurring, periodic halts that we see—specifically, twice a year, where Earth's inclination pauses for several days. This cyclical pause cannot be explained by conventional models and points directly to an external force originating from a time-distorted universe, affecting our planet in precise intervals.
Our research has uncovered the origin of natural stardust within our universe. Through a detailed study of stellar evolution, we have identified that stardust represents the first stage in the evolutionary chain of star formation. As illustrated in the image below, the chain begins with Nebulae—vast clouds of stardust. Additionally, we observe that many stars ultimately end their lifecycle by collapsing into black holes.
Within this intricate system, a theory has emerged proposing that stardust is ejected from black holes, forming Nebulae. While this hypothesis may initially seem speculative, it aligns with the confirmed understanding of significant time distortion between universes. This distortion supports the creation of vibrant, ingredient-rich stardust as part of the process.
If mass can disappear into a black hole, it is reasonable to consider that mass may also emerge from a black hole, appearing spontaneously. Following this reasoning, we observed stardust surrounding a solar system, further supporting our conclusion that time distortion between universes allows for the continuous formation of stardust. This process feeds the mass of the Sun and provides the energy that sustains it.
We have identified the gravitational force responsible for the inclination of all planets. The various phenomena observed in the Sun suggest the existence of a gravitational pull exerted by a collapsing star in another universe. This gravitational force passes through the narrow opening of a black hole in two opposite directions, influencing the dynamics of our solar system.
This unique gravitational force provides the only plausible explanation for the inclination of all the planets. Moreover, by incorporating seasonal gravitational changes, as observed through GRACE data, we have further substantiated the presence of an external force that governs these planetary inclinations. This data serves as empirical proof of an external gravitational influence acting upon the solar system.
We have identified the source of solar magnetism through the discovery of an electromagnet formed within the Sun. Understanding its formation, functioning, and effects allows us to explain the presence of magnetic poles observed within the Sun. The accompanying image illustrates the polarity of the Sun, revealing a persistent and enhanced magnetic field large enough to be measured.
In the close-up images below, the Sun’s surface appears segmented, resembling a honeycomb structure. This observation carries significant implications. First, it suggests that nuclear fusion alone cannot account for this level of structural heterogeneity. Second, it indicates that each distinct unit on the Sun’s surface must possess mechanisms that maintain its uniqueness.
This implies that each of these "cells" was once part of the interrupted electromagnet, functioning as both a coil and a core. Despite the interruption, magnetism is preserved within each cell. Due to the varying sizes of these cells, the magnitude of the magnetic charge differs across them, thus maintaining the unique characteristics of each individual unit.
We have identified two key forces responsible for stabilizing the motion of planets in a disk orbit:
Gravitational Force: The gravitational pull from a collapsing star in another universe, which acts in two alternating directions—pulling the planets toward the south and then the north, as depicted in the illustration.
Electromagnetic Force: This force interacts with the metallic components within the planets, ensuring that they remain on their orbital paths. It plays a crucial role in maintaining the planets' motion along their orbits, thereby preserving the stability of the disk structure.
Our research has uncovered the origin of the elliptical motion of all planets, as described by Kepler's First Law, which states that the orbits of planets are elliptical rather than circular.
By examining the combined effects of two forces—(1) the gravitational influence of a collapsing star in another universe, which causes the inclination of the planets, and (2) the electromagnetic force generated by the Sun’s internal electromagnet, which provides solar energy—we have arrived at a comprehensive explanation for this elliptical motion.
The analysis of these forces reveals that when the gravitational force from the collapsing star acts on the North Poles of the planets, it causes them to tilt toward the Sun. At the same time, the Sun’s + magnetic force (from its internal electromagnet) repels the magnetic + North Poles of the planets, pushing them away from the Sun.
Conversely, when the gravitational force acts on the South Poles of the planets, tilting them toward the Sun, the + magnetic force in the Sun attracts the - magnetic South Poles of the planets, pulling them closer to the Sun.
This interplay between gravitational and magnetic forces results in the elliptical orbits of the planets, thus providing a physical explanation for Kepler's First Law.
We have identified the source of the phenomenon known as "Fiery Looping Rain" on the Sun. This striking event corresponds to the periodic exposure of a black hole’s exit, which is revealed approximately every 5.5 years for a few minutes. During this time, mass exits the black hole in two opposite directions.
This phenomenon is closely linked to the solar magnetic pole flip, which occurs roughly every 11 years. The Sun’s magnetic field reverses polarity with remarkable precision, a process that has long been one of the most perplexing unresolved mysteries in solar physics. The key to understanding this lies in the oscillations of the black hole’s accretion disk, which drive the Sun's polarity reversal.
At the end of each oscillation cycle of the accretion disk, the black hole's exit aligns with the surface of the Sun. This alignment happens every 5.5 years, presenting a high likelihood of observing the black hole’s mass ejection above the Sun’s surface.
This ejection of mass in two opposite directions creates the observable loop structure, which we perceive as the "Fiery Looping Rain" on the Sun. This discovery not only explains the origin of the phenomenon but also sheds light on the precise mechanisms behind the Sun's magnetic field reversal.
It is widely accepted by scientists that, in its distant past, Earth was once akin to the Sun. By understanding how the Sun functions—specifically, the process of energy-rich stardust being injected into it—the origin of liquefied natural gas and fuel trapped deep within the Earth becomes clearer.
During the formation of the Earth, these natural gases and fuels were once active within the Sun-like body. However, as the star’s formation reached its conclusion, the combustion of these gases ceased, and they no longer escaped through the exit of the black hole back into the universe from which the star originated.
As Earth's formation stabilized, these masses of natural liquefied gas and fuel became trapped deep within the planet, preserved beneath the surface. This discovery provides a clear explanation for the presence of these valuable resources within Earth's depths.
We have uncovered the origin of the universe through the collapse of a star in another universe—a process that initiates the formation of a new universe. According to the presentation by the Alien-Science Association of Astronomy Org.il, it has been demonstrated that a collapsing star in another universe can create a new sun in our universe. The process relies on the presence of a significant time distortion between universes, enabling the flow of stardust into the forming sun, which generates the electricity necessary to provide the sun's energy.
The proof of this concept also confirms the existence of multiple universes. However, the critical question remains: how can we be certain that the collapse of the first star in another universe truly creates a new universe, rather than penetrating into an existing one?
The answer lies in the nature of massive time distortion between universes. For suns to form, the collapsing star must enter a universe where time distortion allows for the flow of stardust and the creation of the sun. If such a distortion were already present in an existing universe, it would be impossible for additional suns to form there.
The probability of a star collapsing into a universe that already contains a built-in time distortion is effectively zero. In a chain of universes connected by massive time distortions, it is highly unlikely that universes would be pre-adapted to the exact requirements needed for the formation of suns. The stardust produced by a collapsing star is uniquely suited to interact with the specific conditions necessary for the regular activity of a sun.
For instance, if a collapsing star were to "skip" the universe it was intended to enter and instead jump to a different universe further along the chain, the mass exiting the black hole would slow down significantly, preventing the creation of the coil inside the sun, thus halting the formation of the sun itself. Without this process, the stardust would remain unutilized, and the universe would not develop in the intended way.
On the other hand, when a space fissure occurs and a massive body is forced into the opening, the lack of alternative physical pathways creates the massive time distortion between universes. The threshold for creating a new universe is inherently higher than the threshold for entering an existing universe.
This understanding is supported by the fact that our universe contains many suns and stars. If the process worked differently, we would expect to find only a single sun in each universe. Therefore, we conclude that only a collapsing star can create a new universe, with the necessary time distortion between universes allowing for the formation of multiple stars and suns.
We have provided conclusive proof supporting our claims, based on the observed dynamics of Earth's axial inclination. Our research demonstrates that Earth's inclination is dynamic, without any known internal source that could generate this variability. More notably, we have shown that Earth's inclination halts twice a year, for approximately 25 days each time.
It is evident that a cyclical, natural inclination of Earth cannot stop on its own without the influence of an external force. This irregularity is precisely illustrated by the graph of Earth's inclination, which aligns with the findings presented in our research.
In a video presentation, we further demonstrated how the gravitational pull of a collapsing star in another universe directly influences Earth's inclination. Specifically, when Earth reaches the poles of the black hole's exit, the gravitational effect ceases, causing the temporary halting of Earth's inclination. This provides definitive evidence for the external forces at play in shaping Earth's motion.
We have discovered the gravitational force responsible for the rotation of planets on their axes and for their orbits around the Sun. However, the mysteries of our solar system are far from fully resolved. The research material presented here, as in previous findings, is unique to our studies and has not yet been documented elsewhere.
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The Alien-Science Association of Astronomy Org.il continues to conduct groundbreaking research and make new discoveries. However, the opportunity to further explore these phenomena and perform deeper measurements remains available to all researchers. It has been established that a collapsing star in another universe, distorted in time compared to ours, supplies energy to the Sun.
This gravitational force from the collapsing star passes through a narrow opening of the black hole in two opposite directions. This interaction causes stardust to spiral in the form of a coil within the Sun, generating electrical energy and creating an electromagnet that affects the entire solar system. This same gravitational force, as discovered by our association, not only generates the Sun’s energy but also governs the inclination of the planets.
In this chapter, we will discuss additional phenomena. First, we will present the observations, and then we will explore a single explanation that ties them all together. While this chapter does not yet provide conclusive evidence, the goal is to open new avenues of research.
Tidal Phenomena: It is commonly understood that the tides on Earth, occurring twice daily, are influenced by the Moon and the Sun. However, in the Gulf of Thailand, there is only one tide cycle in 24 hours. From November to early April, high tide persists throughout the day, while from May to early October, low tide dominates the daytime hours. The months of April and October act as transitional periods. This phenomenon raises questions about the seasonal influence on tides beyond what is caused by the Sun and Moon. Could this be the result of a seasonal gravitational force?
Planetary Acceleration at Perihelion: It has been observed that planets accelerate when they reach perihelion, the closest point to the Sun, which remains a puzzling phenomenon.
Uniform Direction of Planetary Rotation: Remarkably, all planets rotate in the same direction—a characteristic that suggests the influence of an external gravitational force.
Orbital Speeds of Planets: The farther a planet is from the Sun, the slower its orbital speed. This inverse relationship between distance and speed remains a key feature of planetary motion.
Preservation of Orbital and Rotational Speeds: The planets have maintained their rotation speed around their axes and their orbital speed around the Sun for billions of years. Given that Earth's tilt is sustained by a continuous external force, the preservation of these motions may be driven by similar forces.
Just as we began our study of the universe's origin and the mechanisms driving solar activity by grouping phenomena and pointing to the influence of a collapsing star in another universe, we apply the same approach here. It appears that the gravitational force of the collapsing star is responsible for all these phenomena.
Tides: Similar to the Moon's gravitational influence, the seasonal gravitational pull of the collapsing star likely explains the occurrence of Spring Tides and Neap Tides.
Planetary Acceleration at Perihelion: While this subject has not been fully explored, the gravity of the collapsing star may interact with Earth's poles, accelerating its rotation as the planet moves through the region affected by the star's gravity.
Uniform Direction of Rotation: The collapsing star’s tangential gravitational force impacts the planets at the same location, causing them to rotate in the same direction. This influence continues until approximately three-quarters of each planet is affected by the star’s gravity.
Orbital Speeds: The strength of the collapsing star’s gravitational pull diminishes with distance. Planets farther from the Sun experience a weaker force, resulting in slower orbital speeds, while those closer to the Sun encounter a stronger force, leading to higher orbital speeds.
Preservation of Rotation and Orbital Speeds: This ongoing gravitational influence explains the stability of both the rotational and orbital speeds of the planets over billions of years.
For further exploration of these phenomena, you can watch our video presentation on YouTube: https://youtu.be/22MtguhnAhg.
On November 16, NASA released a remarkable satellite image captured by the James Webb Space Telescope. The image, which can be viewed in NASA's official publication here, provides further evidence supporting a claim we made four years ago: that stardust emerges from a black hole in two opposite directions. This image, depicting the formation of a new star and the "fiery hourglass" structure, aligns with our hypothesis, reinforcing the idea that black holes play a crucial role in the distribution of stardust within the universe.
Our discoveries necessitate that educational and research institutions worldwide fundamentally reconsider the foundational knowledge upon which they have built their curricula and research frameworks. These paradigm-shifting findings challenge the established principles in astronomy and astrophysics, requiring a complete re-evaluation of the information that has guided scientific inquiry and education to date.
The gravitational force exerted by a collapsing star in another universe is responsible for both the rotation of planets around their axes and their orbits around the Sun. This chapter presents a complex concept that may be challenging to grasp, requiring viewers to engage their imagination to fully understand the presentation.
We will explore how Earth's rotation around its axis is established and how the stability of its rotational speed is maintained. The process begins with Earth's orbit around the Sun and is influenced by the gravitational force of the collapsing star, which passes through the narrow opening of a black hole in two opposing directions. As Earth travels along its orbit, it periodically encounters the gravitational pull of the collapsing star—during the summer in the northern hemisphere and during the winter in the southern hemisphere for those living in the northern part of the planet.
For five days, twice a year, the gravitational force of the collapsing star becomes inactive. This occurs due to the specific angle of exposure between Earth and the collapsing star, which, when passing through the narrow black hole opening, no longer reaches Earth. In the accompanying simulation, you can visualize how Earth's tilt is affected and how its rotational speed is preserved.
In the simulation, the white rectangle represents the gravitational force of the collapsing star. As Earth enters the gravitational field, only the left side of the northern hemisphere—tangential to the force—experiences its influence. This interaction creates rotational torque, which pulls and rotates Earth around its axis, maintaining its rotational speed and initiating its axial tilt. Simultaneously, the gravitational force acting on the northern hemisphere causes a movement along the Y-axis, shifting Earth southward out of the direct path of the collapsing star’s gravity.
At perihelion (the closest point to the Sun), Earth's rotational speed is accelerated by the gravitational force, while at aphelion (the farthest point), the speed is conserved. Near the end of this phase, the gravitational force weakens as Earth moves southward, allowing the conservation of its rotational speed to dominate.
Later, Earth reaches a region where the gravitational force of the collapsing star becomes inactive because Earth is aligned with the poles of the black hole’s exit. Following this phase, as Earth continues southward, the southern hemisphere becomes exposed to the star’s gravity—though only tangentially. This gravitational pull creates a similar rotational torque, accelerating Earth’s rotation around the axis and maintaining its speed. As the gravitational force acts on the southern hemisphere, it shifts Earth northward along the Y-axis, again pulling Earth out of the direct gravitational path.
This cyclical interaction between the gravitational pull of the collapsing star and Earth's position relative to the Sun ensures that Earth’s rotational speed around its axis is consistently maintained. This same mechanism governs the rotational speeds of all the planets in the solar system.
For a more detailed explanation, watch the video presentation: https://youtu.be/kKJyn-RJIxw.
We have also identified the force responsible for the inclination of the planets, their rotation around their axes, and their orbits around the Sun, further expanding our understanding of the dynamics that govern planetary motion.