Results for 'LIGO'

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  1. Wave detected by LIGO is not gravitational wave.Alfonso Leon Guillen Gomez - manuscript
    General Relativity defines gravity like the metric of a Lorentzian manifold. Einstein formulated spacetime as quality structural of gravity, i.e, circular definition between gravity and spacetime, also Einstein denoted "Space and time are modes by which we think, not conditions under which we live" and “We denote everything but the gravitational field as matter”, therefore, spacetime is nothing and gravity in first approximation an effect of coordinates, and definitely a geometric effect. The mathematical model generates quantitative predictions coincident in high (...)
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  2. ¿Las ondas detectadas por LIGO son las de Einstein, Pirani, Bondi, Trautmann, Kopeikin o qué son?Alfonso Guillen Gomez - manuscript
    Desde la formulación geométrica de la gravedad, según la ecuaciones de Einstein-Grosmann-Hilbert, de noviembre de 1915, como el movimiento geodésico en la variedad semirimenniana de curvatura positiva, espaciotiempo, donde por ausencias de simetrías, no es posible la conservación de la energía-impulso tomando en conjunto los procesos materiales y el del campo geométrico gravitacional, sin embargo, dadas esas simetrías en el espaciotiempo plano de Minkowski, usando el modelo de De Sitter, Einstein linealizando la gravitación, por supuesto, realmente en ausencia de gravedad, (...)
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  3. Are the waves detected by LIGO the waves according to Einstein, Pirani, Bondi, Trautmann, Kopeikin or what are they?Alfonso Guillen Gomez - manuscript
    From the geometric formulation of gravity, according to the Einstein-Grosmann-Hilbert equations, of November 1915, as the geodesic movement in the semirimennian manifold of positive curvature, spacetime, where due to absence of symmetries, the conservation of energy-impulse is not possible taking together the material processes and that of the gravitational geometric field, however, given those symmetries in the flat Minkowski spacetime, using the De Sitter model, Einstein linearizing gravitation, of course, really in the absence of gravity, in 1916, purged of some (...)
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  4.  31
    Consciousness and Temporal Physics: A Unified Theory of Observation and Navigation.Robert Somazze - manuscript
    This paper synthesizes recent empirical observations of extreme gravitational phenomena with theoretical frameworks concerning consciousness's role in temporal navigation. By combining observational evidence from the Event Horizon Telescope and LIGO with theories of consciousness as a temporal navigation mechanism, I propose a unified framework for understanding both the physical nature of spacetime and our conscious experience of it. Central to this synthesis is the recognition that consciousness, the brain, and the universe itself function as open systems, suggesting a fundamental (...)
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  5. What is spacetime?Alfonso León Guillén Gómez - manuscript
    Based on the Russian school of Logunov and others, with the contribution of Tom van Flandern, and his previous works on space-time, gravitational waves and speed of the gravity, the author discusses the theory of the time-space fluid that results from the supposed gravitational waves that would have detected LIGO, and reaffirms the space-time as a structural geometric property of the dynamic matter (radiation, matter and quantum vacuum), now with the strong argument that without escape, in an unnatural way, (...)
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  6. Epistemological and Ethical Aspects of Time in Scientific Research.Daria Jadreškić - 2020 - Dissertation, Leibniz University Hannover
    This dissertation explores the influence of time constraints on different research practices. The first two parts present case studies, which serve as a basis for discussing the epistemological and ethical implications of temporal limitations in scientific research. Part I is a case study on gravitational wave research, conducted by the LIGO Scientific Collaboration. This exemplifies fundamental research – without immediate societal applications, open-ended in terms of timeline and in terms of research goals. It is based, in part, on qualitative (...)
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    CODES_ The Last Theory of Everything.Devin Bostick - manuscript
    Abstract (updated on Zenodo, adding here) -/- This paper introduces CODES (Chirality of Dynamic Emergent Systems), a unifying theoretical framework that reconciles general relativity and quantum mechanics through structured resonance. By redefining fundamental assumptions about mass, gravity, dark matter, and singularities, CODES introduces a resonance-driven metric formulation where mass is defined as a function of coherence: -/- m = f(λ) -> 0 as resonance coherence collapses, allowing mass to dissolve back into its energy wave state. -/- By rejecting probability as (...)
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    The Missing Phase in E=mc²—Plasma as the Foundational State of Energy-Mass Equivalence.Devin Bostick - manuscript
    Abstract: The Missing Phase in E=mc²—Plasma as the Foundational State of Energy-Mass Equivalence -/- 1. Problem Statement • E=mc² assumes an instantaneous energy-mass transition but lacks an intermediary stabilization state. • Mass should not be treated as a fundamental property but as an emergent resonance of structured energy. • Without a structured intermediary, mass formation remains incomplete, leaving gaps in quantum field theory and cosmology. -/- 2. Core Hypothesis – Plasma-First Theory (PFT) • Mass does not emerge directly from energy (...)
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  9.  25
    Preliminary Detection of GW190521 Using the Coherent Oscillation Detection and Encoding System (CODES)_ A Novel Approach to Gravitational Wave Analysis with Ongoing Validation.Devin Bostick - manuscript
    Abstract -/- We present a preliminary application of the Coherent Oscillation Detection and Encoding System (CODES), a novel method for detecting gravitational waves using prime-based encoding and phase-locking, to the GW190521 event detected by LIGO. CODES encodes strain data into a complex function C(x,t)=∑p=2,3,5,71pei(2πlog⁡(p)t+χpx) C(x,t) = \sum_{p=2,3,5,7} \frac{1}{p} e^{i(2\pi \log(p) t + \chi_p x)} C(x,t)=∑p=2,3,5,7​p1​ei(2πlog(p)t+χp​x), enhancing coherence through phase alignment to compute a Coherence Score (CCS). Using H1 detector data from GPS 1242442965.779297 to 1242442968.220459, CODES identified a peak CCS (...)
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