Quantum Physics

We study the implications of minimal flavor violating low energy supersymmetry scenarios for the search of new physics in the B and Higgs sectors at the Tevatron collider and the LHC. We show that the already stringent Tevatron bound on the decay rate B s → µ + µ -sets strong constraints on the possibility of generating large corrections to the mass difference ∆M s of the B s eigenstates. We also show that the B s → µ + µ -bound together with the constraint on the branching ratio of the rare decay b → sγ has strong implications for the search of light, non-standard Higgs bosons at hadron colliders. In doing this, we demonstrate that the former expressions derived for the analysis of the double penguin contributions in the Kaon sector need to be corrected by additional terms for a realistic analysis of these effects. We also study a specific non-minimal flavor violating scenario, where there are flavor changing gluino-squark-quark interactions, governed by the CKM matrix elements, and show that the B and Higgs physics constraints are similar to the ones in the minimal flavor violating case. Finally we show that, in scenarios like electroweak baryogenesis which have light stops and charginos, there may be enhanced effects on the B and K mixing parameters, without any significant effect on the rate of B s → µ + µ -.

The conventional method using "Low Energy Theorems" derived by Chanowitz et al. [3] does not seem to lead to explicit unitarity limit in the scattering processes of longitudinally polarized gauge bosons for the high energy case in the extra ) 1 ( U superstring inspired models, commonly known as η model, emanating from 6 E group of superstring theory. We have made use of an alternative procedure given by Durand & Lopez [14], which is applicable to supersymmetric grand unified Theories. Explicit unitarity bound on the superpotential couplings (identified as Yukawa couplings) are obtained from both using unitarity constraints as well as using RGE analysis at one loop level utilizing critical couplings concept implying divergence of scalar coupling at G M . These are found to be consistent with finiteness over the entire range i.e. from grand unification scale to weak scale. For completeness the similar approach has been made use of in other models i.e. -χ,ψ, and ν models emanating from 6 E and it has been noticed that at weak

DJP continues to optimize the collection of tax returns by facilitating a technology-based tax service system, one of which is e-filing that has been running since 2016. However, e-filing turned out to have less influence on the delivery of Tax Returns (SPT) as reflected in the electronic SPT monitoring data that only met 78% of the 2017 target. This is caused by various problems that arise during the use of e-filing such as individual technology capabilities, loss of efin, forgetting DJP Online account passwords to lack of awareness about the importance of submitting SPT. Problems encounter during the use of e-filing are the basis for evaluating the continued use of e-filling in Palembang. The development of a conceptual model was conducted to evaluate the sustainability of the use of e-filing. The development of a conceptual model basically has a scarcity of supporting theories used and has a complex model. To overcome this problem, Partial Least Squares (PLS) Structural Equation ...

In the nowadays Science of Classic Physics, Einstein's Relativity theories are the leading acceptable theories of the Classic Physics.

However, the nowadays Science of Physics still embeds unresolved Paradoxes, incompatibilities between various branches of Physics, and Einstein's Relativity theories also rendered Human's perception of the Free Choice as an illusion, misleading perception.

But, additional papers, by the author of this paper, present significant and reasonable arguments, which argue that the nowadays branch of the Classic Physics might be misleading in how it presents the concept of the Space-Time.

By presenting an alternative view of how the nowadays Science of Physics might refer to the concept of the Space-Time, this paper, and the above-mentioned additional papers argue, that leads for bridging between several incompatible branches of Physics might be presented, new explanations to unresolved Paradoxes might be provided, and a reinstating of the Human's perception of the Free Choice as an appropriate perception might be also achieved.

The above-mentioned additional papers also proposed experiments, based only on the Classic Physics, which if implemented successfully, might provide validity to what is presented in this paper and the above-mentioned additional papers.

Thus, an implementation of the above-mentioned experiments, or any other experiments that might provide validity to the alternative view of how the Science of Physics should refer to the concept of the Space-Time, as presented in the above-mentioned papers, should be an important and a significant endeavor.

We consider the processes e + e -→ ℓ + ℓ ′-ν ν′ , including all the possible charged lepton combinations, with regard to measuring parameters characterizing the W boson. These reactions all proceed via virtual W pair production as well as a number of undistinguished s-and t-channel modes. In addition, some of the processes also have contributions from other diagrams of interest, those which contain the γW W or ZW W vertices with gauge bosons in the t-channel. Consequently, the processes are sensitive to anomalous couplings such as κ γ and κ Z . We here calculate at what level these processes can be used to measure these anomalous couplings for the cases of e + e -colliders at 500 GeV and 1 T eV center of mass energies. Further, we present helicity information which should be useful in distinguishing between deviations of κ γ from its standard model value and deviations of κ Z .

We consider the possibility that physics beyond the standard model contributes to the decays B → V 1 V 2 , where V 1 and V 2 are vector mesons. We show that a time-dependent angular analysis of B → V 1 V 2 decays provides many tests for this new physics (NP). Furthermore, although one cannot solve for the NP parameters, we show that this angular analysis allows one to put bounds on these parameters. This can be useful in estimating the scale of NP, and can tell us whether any NP found directly at future high-energy colliders can be responsible for effects seen in B → V 1 V 2 decays.

Recently, it was argued that new-physics (NP) effects in B decays can be approximately parametrized in terms of a few quantities. As a result, CP violation in the B system allows one not only to detect the presence of new physics (NP), but also to measure its parameters. This will allow a partial identification of the NP, before its production at high-energy colliders. In this paper, we examine three methods for measuring NP parameters. The first uses a technique involving both b → s and b → d penguin B decays. Depending on which pair of decays is used, the theoretical error is in the range 5-15%. The second involves a comparison of B → πK and B → ππ decays. Although the theoretical error is large ( > ∼ 25%), the method can be performed now, with presently-available data. The third is via a time-dependent angular analysis of B → V 1 V 2 decays. In this case, there is no theoretical error, but the technique is experimentally challenging, and the method applies only to those NP models whose weak phase is universal to all NP operators. A reliable identification of the NP will involve the measurement of the NP parameters in many different ways, and with as many B decay modes as possible, so that it will be important to use all of these methods.

We study the decays of heavy chiral (t ′ , b ′ ) quarks in a four-generation extension of the Standard Model. If the difference between the t ′ and b ′ masses is smaller than the W ± mass, as favored by precision electroweak measurements, then the Cabibbo-Kobayashi-Maskawa favored, on-shell decay t ′ → b ′ W + is forbidden. As a result, other t ′ decays have substantial branching fractions, which are highly sensitive to the magnitude of the diagonal CKM matrix element V t ′ b ′ . We show that |V t ′ b ′ | can be determined from the ratio of the two-body and three-body t ′ -decay branching fractions and estimate the precision of such a measurement at the LHC. We discuss the hadronization of a t ′ for large enough values of |V t ′ b ′ |.

We present a new and sensitive method to observe direct CP violation in D mesons using Bose symmetry and Dalitz plot. We apply the method to processes such as B → D 0 D 0 P , where P is either a K or a π. By choosing to reconstruct D mesons only through their decays into CP eigenstates, we show that any asymmetry in the Dalitz plot can arise only through direct CP violation. We further show how CP violation parameters can be determined. Since the approach involves only Bose symmetry, the method is applicable to any multi-body process that involves D 0 D 0 in the final state. We briefly discuss how B → D * D * P can also be used in a similar way.

We present a technique to determine the CP violating phases, as well as, the lifetime differences of the mass eigenstates for both B d and B s , by considering correlated B B pairs produced at the Υ resonances. We do not require a detailed time dependent study, but only partial time integrated rates, with the tag time, either preceding or following the decay of the other B meson to a final state f . f may be a CP eigenstate or a non-CP eigenstate.

It is well known that one can use B → ππ decays to probe the CP-violating phase α. In this paper we show that these same decays can be used to search for new physics. This is done by comparing two weak phases which are equal in the standard model: the phase of the t-quark contribution to the b → d penguin amplitude, and the phase of B 0 d -B 0 d mixing. In order to make such a comparison, we require one piece of theoretical input, which we take to be a prediction for |P/T |, the relative size of the penguin and tree contributions to B 0 d → π + π -. If independent knowledge of α is available, the decay B 0 d (t) → π + π -alone can be used to search for new physics. If a full isospin analysis can be done, then new physics can be found solely through measurements of B → ππ decays. The most promising scenario occurs when the isospin analysis can be combined with independent knowledge of α. In all cases, the prospects for detecting new physics in B → ππ decays can be greatly improved with the help of additional measurements which will remove discrete ambiguities.

The short-distance Hamiltonian describing b → s(d)e -e + in the standard model is used to obtain the decay spectrum of B → K -π + e -e + and B → π -π + e -e + , assuming the Kπ and ππ systems to be the decay products of K * and ρ respectively. Specific features calculated are (i) angular distribution of K -(or π -) in the K -π + (or π -π + ) centre-of-mass (c.m.) frame; (ii) angular

We study the spin polarizations of both τ leptons in the decay b → sτ + τ -. In addition to the polarization asymmetries involving a single τ , we construct asymmetries for the case where both polarizations are simultaneously measured. We also study forward-backward asymmetries with polarized τ 's. We find that a large number of asymmetries are predicted to be large, > ∼ 10%. This permits the measurement of all Wilson coefficients and the b-quark mass, thus allowing the standard model (SM) to be exhaustively tested. Furthermore, there are many unique signals for the presence of new physics. For example, asymmetries involving triple-product correlations are predicted to be tiny within the SM, O(10 -2 ). Their observation would be a clear signal of new physics.

Spin-averaged asymmetries in the azimuthal distributions of positive and negative hadrons produced in deep inelastic scattering were measured using the CERN SPS muon beam at 160 GeV/c and a 6 LiD target. The amplitudes of the three azimuthal modulations cos φ h , cos 2φ h and sin φ h were obtained binning the data separately in each of the relevant kinematic variables x, z or p h T and binning in a three-dimensional grid of these three variables. The amplitudes of the cos φ h and cos 2φ h modulations show strong kinematic dependencies both for positive and negative hadrons.

The gluon polarization in the nucleon was measured using open charm production by scattering 160 GeV=c polarized muons off longitudinally polarized protons or deuterons. The data were taken by the COMPASS Collaboration between 2002 and 2007. A detailed account is given of the analysis method that includes the application of neural networks. Several decay channels of D 0 mesons are investigated. Longitudinal spin asymmetries of the D meson production cross sections are extracted in bins of D 0 transverse momentum and energy. At leading order QCD accuracy, the average gluon polarization is determined as hÁg=gi LO ¼ À0:06 AE 0:21ðstat:Þ AE 0:08ðsyst:Þ at the scale h 2 i % 13 ðGeV=cÞ 2 and an average gluon momentum fraction hxi % 0:11. The average gluon polarization is also obtained at next-to-leading order QCD accuracy as hÁg=gi NLO ¼ À0:13 AE 0:15ðstat:Þ AE 0:15ðsyst:Þ at the scale h 2 i % 13 ðGeV=cÞ 2 and hxi % 0:20.

A measurement of the W boson pair production cross section in proton-proton collisions at √ s = 8 TeV is presented. The data collected with the CMS detector at the LHC correspond to an integrated luminosity of 19.4 fb -1 . The W + W -candidates are selected from events with two charged leptons, electrons or muons, and large missing transverse energy. The measured W + W -cross section is 60.1 ± 0.9 (stat) ± 3.2 (exp) ± 3.1 (theo) ± 1.6 (lumi) pb = 60.1 ± 4.8 pb, consistent with the standard model prediction. The W + W -cross sections are also measured in two different fiducial phase space regions. The normalized differential cross section is measured as a function of kinematic variables of the final-state charged leptons and compared with several perturbative QCD predictions. Limits on anomalous gauge couplings associated with dimension-six operators are also given in the framework of an effective field theory. The corresponding 95 % confidence level intervals are -5.7 < c WWW / 2 < 5.9 TeV -2 , -11.4 < c W / 2 < 5.4 TeV -2 , -29.2 < c B / 2 < 23.9 TeV -2 , in the HISZ basis.

This Letter describes the search for an enhanced production rate of events with a charged lepton and a neutrino in high-energy pp collisions at the LHC. The analysis uses data collected with the CMS detector, with an integrated luminosity of 5:0 fb À1 at ffiffi ffi s p ¼ 7 TeV, and a further 3:7 fb À1 at ffiffi ffi s p ¼ 8 TeV. No evidence is found for an excess. The results are interpreted in terms of limits on a heavy charged gauge boson (W 0 ) in the sequential standard model, a split universal extra dimension model, and contact interactions in the helicity-nonconserving model. For the last, values of the binding energy below 10.5 (8.8) TeV in the electron (muon) channel are excluded at a 95% confidence level. Interpreting the ' final state in terms of a heavy W 0 with standard model couplings, masses below 2.90 TeV are excluded.

An inclusive search for supersymmetric processes that produce final states with jets and missing transverse energy is performed in pp collisions at a centre-ofmass energy of 8 TeV. The data sample corresponds to an integrated luminosity of 11.7 fb -1 collected by the CMS experiment at the LHC. In this search, a dimensionless kinematic variable, α T , is used to discriminate between events with genuine and misreconstructed missing transverse energy. The search is based on an examination of the number of reconstructed jets per event, the scalar sum of transverse energies of these jets, and the number of these jets identified as originating from bottom quarks. No significant excess of events over the standard model expectation is found. Exclusion limits are set in the parameter space of simplified models, with a special emphasis on both compressedspectrum scenarios and direct or gluino-induced production of third-generation squarks. For the case of gluino-mediated squark production, gluino masses up to 950-1125 GeV are excluded depending on the assumed model. For the direct pair-production of squarks, masses up to 450 GeV are excluded for a single light first-or second-generation squark, increasing to 600 GeV for bottom squarks.

Results are reported from a search for new physics processes in events containing a single isolated high-transverse-momentum lepton (electron or muon), energetic jets, and large missing transverse momentum. The analysis is based on a 4.98 fb -1 sample of proton-proton collisions at a center-of-mass energy of 7 TeV, obtained with the CMS detector at the LHC. Three separate background estimation methods, each relying primarily on control samples in the data, are applied to a range of signal regions, providing complementary approaches for estimating the background yields. The observed yields are consistent with the predicted standard model backgrounds. The results are interpreted in terms of limits on the parameter space for the constrained minimal supersymmetric extension of the standard model, as well as on cross sections for simplified models, which provide a generic description of the production and decay of new particles in specific, topology based final states.

We present a class of asymptotically anti-de Sitter charged rotating black hole solutions in $f(T)$ gravity in $N$-dimensions, where $f(T)=T+\alpha T^{2}$. These solutions are nontrivial extensions of the solutions presented in \cite{Lemos:1994xp} and \cite{Awad:2002cz} in the context of general relativity. They are characterized by cylindrical, toroidal or flat horizons, depending on global identifications. The static charged black hole configurations obtained in \cite{Awad:2017tyz} are recovered as special cases when the rotation parameters vanish. Similar to \cite{Awad:2017tyz} the static black holes solutions have two different electric multipole terms in the potential with related moments. Furthermore, these solutions have milder singularities compared to their general relativity counterparts. Using the conserved charges expressions obtained in \cite{Ulhoa:2013gca} and \cite{Maluf:2008ug} we calculate the total mass/energy and the angular momentum of these solutions.

We present results for the total top-pair production cross section at the Tevatron and the LHC. Our predictions supplement fixed-order results with resummation of soft logarithms and Coulomb singularities to next-to-next-to-leading (NNLL) logarithmic accuracy and include top-antitop bound-state effects. The effects of resummation, the dependence on the PDF set used, the residual sources of theoretical uncertainty and their implication for measurements of the top-quark mass are discussed.

Pair production of massive coloured particles in hadron collisions is accompanied by potentially large radiative corrections related to the suppression of soft gluon emission and enhanced Coulomb exchange near the production threshold. We recently developed a framework to sum both series of corrections for the partonic cross section using soft-collinear and non-relativistic effective theory. If it can be argued that the resummed cross section approximates the complete result over a significant kinematic range, an improvement of the hadronic cross section results, even when the production is not kinematically constrained to the threshold. This is discussed here for the case of top quark production.

We consider the factorization and resummation of soft and Coulomb gluons for pair-production processes of heavy coloured particles at hadron colliders, and discuss: the construction of a colour basis that diagonalizes the leading soft function to all orders in perturbation theory; the determination of the two-loop soft anomalous dimension needed for NNLL resummations; and a general formula that provides all logarithmically enhanced O(α 2 s ) correction requiring as processindependent input only the one-loop hard matching coefficients.

In this work we present a calculation of both t-channel and s-channel singletop production at next-to-leading order in QCD for the Tevatron and for the LHC at a centre-of-mass energy of 7 TeV. All the cross sections and kinematical distributions presented include leading non-factorizable corrections arising from interferences of the production and decay subprocesses, extending previous results beyond the narrow-width approximation. The new off-shell effects are found to be generally small, but can be sizeable close to kinematical end-points and for specific distributions.

We determine an approximate expression for the O(α 3 s ) contribution χ 2 to the kernel of the BFKL equation, which includes all collinear and anticollinear singular contributions. This is derived using recent results on the relation between the GLAP and BFKL kernels (including running-coupling effects to all orders) and on small-x factorization schemes. We present the result in various schemes, relevant both for applications to the BFKL equation and to small-x evolution of parton distributions.

We determine an approximate expression for the O(α 3 s ) contribution χ 2 to the kernel of the BFKL equation, which includes all collinear and anticollinear singular contributions. This is derived using recent results on the relation between the GLAP and BFKL kernels (including running-coupling effects to all orders) and on small-x factorization schemes. We present the result in various schemes, relevant both for applications to the BFKL equation and to small-x evolution of parton distributions.

In this work we present a calculation of both t-channel and s-channel singletop production at next-to-leading order in QCD for the Tevatron and for the LHC at a centre-of-mass energy of 7 TeV. All the cross sections and kinematical distributions presented include leading non-factorizable corrections arising from interferences of the production and decay subprocesses, extending previous results beyond the narrow-width approximation. The new off-shell effects are found to be generally small, but can be sizeable close to kinematical end-points and for specific distributions.

Pair production of massive coloured particles in hadron collisions is accompanied by potentially large radiative corrections related to the suppression of soft gluon emission and enhanced Coulomb exchange near the production threshold. We recently developed a framework to sum both series of corrections for the partonic cross section using soft-collinear and non-relativistic effective theory. If it can be argued that the resummed cross section approximates the complete result over a significant kinematic range, an improvement of the hadronic cross section results, even when the production is not kinematically constrained to the threshold. This is discussed here for the case of top quark production.

We derive a factorization formula for the production of pairs of heavy coloured particles in hadronic collisions near the production threshold that establishes factorization of soft and Coulomb effects. This forms the basis for a combined resummation of Coulomb and soft corrections, including the non-trivial interference of the two effects. We develop a resummation formalism valid at NNLL accuracy using the momentum-space approach to soft gluon resummation. We present numerical results for the NLL resummed squark-antisquark production cross section at the LHC and Tevatron, including also the contribution of squark-antisquark bound states below threshold. The total correction on top of the next-to-leading order approximation is found to be sizeable, and amounts to (4-20)% in the squark mass region 200 GeV -3 TeV at the 14 TeV LHC. The scale dependence of the total cross section is also reduced. N 1 (P 1 )N 2 (P 2 ) → H(p 1 )H ′ (p 2 ) + X (1.2)

We consider the total production cross section of heavy coloured particle pairs in hadronic collisions at the production threshold. We construct a basis in colour space that diagonalizes to all orders in perturbation theory the soft function, which appears in a new factorization formula for the combined resummation of soft gluon and Coulomb gluon effects. This extends recent results on the structure of soft anomalous dimensions and allows us to determine an analytic expression for the two-loop soft anomalous dimension at threshold for all production processes of interest.

Recursive Fractal Cosmology (RFC) is presented as a triad-derived theoretical framework in which existence emerges through the interaction of the Cosmic Infinite Field (CIF), the Quantum Vacuum (QV), and the Recursive Fractal Lattice (RFL). This revised theorem-layer manuscript formalizes RFC as a no-retune, frozen-packet closure architecture centered on the first action QV(CIF) -> RFL. The work extends the prior Presentation 29 framework with a revised triadic-weight BBN closeout, grouped post-BBN nucleosynthesis cascade, element-resolved solar-abundance comparison screen, and global collapse-rebirth inheritance trace audit. These additions show that RFC’s internal theorem/proxy system can preserve the same deterministic triadic packet across downstream modules while producing coherent comparison screens for primordial abundances, nucleosynthesis hierarchy, solar abundance structure, and collapse-rebirth trace behavior. The manuscript maintains explicit claim boundaries: these results support internal closure and real-world comparison screens, but do not claim completed external validation through public BBN codes, stellar-yield models, supernova networks, neutron-star-merger simulations, or galactic chemical-evolution pipelines.

Neutrinos in the cosmic ray flux with energies near 1 EeV and above are detectable with the Surface Detector array (SD) of the Pierre Auger Observatory. We report here on searches through Auger data from 1 January 2004 until 20 June 2013. No neutrino candidates were found, yielding a limit to the diffuse flux of ultrahigh energy neutrinos that challenges the Waxman-Bahcall bound predictions. Neutrino identification is attempted using the broad time structure of the signals expected in the SD stations, and is efficiently done for neutrinos of all flavors interacting in the atmosphere at large zenith angles, as well as for "Earth-skimming" neutrino interactions in the case of tau neutrinos. In this paper the searches for downward-going neutrinos in the zenith angle bins 60°-75°and 75°-90°as well as for upward-going neutrinos, are combined to give a single limit. The 90% C.L. single-flavor limit to the diffuse flux of ultrahigh energy neutrinos with an E -2 spectrum in the energy range 1.0 × 10 17 eV-2.5 × 10 19 eV is E 2 ν dN ν =dE ν < 6.4 × 10 -9 GeV cm -2 s -1 sr -1 .

Pauli exclusion principle can lead to a supression of transport through double quantum dots, even if both quantum dots are connected by a resonant driving ac field. In this work, we study how this effect, known as spin blockade, can be removed by means of the influence of the driving field on the contacts to the leads.

This journal presents a comprehensive, multidisciplinary investigation into the foundations of resilient computational architectures, spanning eight interconnected volumes. Volume I introduces the Compressive Multi-Projection Homology (CMPH) framework and its resilient evolution R-CMPH for validating high-dimensional AI embeddings through topological stress-testing. Volume II examines quantum hardware architectures, comparing ion trap Raman routing against superconducting IBM Heron processors for qLDPC implementation. Volume III details the 1nm transistor frontier with MoS channels and carbon nanotube gates. Volume IV formalizes the Engagement Lock, an Ising-critical neuromodulatory control manifold for autonomous AI. Volume V establishes the mathematical

With quantum computers being out of reach for now, quantum simulators are the alternative devices for efficient and more exact simulation of problems that are challenging on conventional computers. Quantum simulators are classified into analog and digital, with the possibility of constructing "hybrid" simulators by combining both techniques. In this paper, we focus on analog quantum simulators of open quantum systems and address the limit that they can beat classical computers. In particular, as an example, we discuss simulation of the chlorosome light-harvesting antenna from green sulfur bacteria with over 250 phonon modes coupled to each electronic state. Furthermore, we propose physical setups that can be used to reproduce the quantum dynamics of a standard and multiple-mode Holstein model. The proposed scheme is based on currently available technology of superconducting circuits consist of flux qubits and quantum oscillators.

A photon-number-resolving detector based on a four-element superconducting nanowire single photon detector is demonstrated to have sub-30-ps resolution in measuring the arrival time of individual photons. This detector can be used to characterize the photon statistics of non-pulsed light sources and to mitigate dead-time effects in high-speed photon counting applications. Furthermore, a 25% system detection efficiency at 1550 nm was demonstrated, making the detector useful for both low-flux source characterization and high-speed photon-counting and quantum communication applications. The design, fabrication and testing of this detector are described, and a comparison between the measured and theoretical performance is presented.

AL-MUKHATABAT

Peer-reviewed, quarterly, and trilingual, Al-Mukhatabat publishes articles in Logic, Epistemology, Arts, Technology and social sciences. The journal aims to familiarize more readers with the subtleties of scientific thought and to encourage epistemological and logically argued approaches to the treatment of ethical, social, political, aesthetic, linguistic, cognitive, anthropological, educational, religious, and metaphysical questions, as a basis for establishing a genuine and fruitful dialogue between different cultures. Articles are to be submitted anonymously to two members of the journal’s scientific committee for evaluation. By sending a manuscript to the journal, the author authorizes its publication. The article should be sent in docx and pdf formats, should not exceed 30 pages (notes and bibliography included), and should be accompanied by an abstract in English and French.

In 2026, Rukan, Gulla, and Skaar published in Physical Review Letters a rigorous theoretical demonstration that truncating a single photon with an ultrafast optical shutter does not produce a shorter photon or a simple photon-vacuum mixture. Instead, the resulting quantum state is a complex superposition ∞ n=0 c n |n⟩ of photon-number Fock states extending to innity, while remaining locally equivalent to a single-photon state on one side of a narrow transition region and vacuum on the other. This paper maps this phenomenon onto the S-I-C-T (StructureInformationCohesion Transformation) framework previously developed for complex systems. We show that the four S-I-C-T stability criteria and the universal transition hypothesis provide a precise, rst-principles-compatible phenomenological description of the bifurcation that occurs when a quantum eld is subjected to a sudden, non-adiabatic boundary perturbation. The truncated-photon experiment thus constitutes one of the cleanest empirical (theoretical) validations of S-I-C-T universality, extending its applicability from macroscopic organizational and biological systems down to the level of elementary quantum excitations.

A recent extension proposes to apply the S-I-C-T outcome scalar O = tanh(kΦ) to deep learning, casting grokking (delayed generalization on small algorithmic tasks) as a prebifurcation transition with Cohesion (C), estimated from gradient cosine similarity, as the "hidden multiplier," and framing the result through an Everett-style "effective collapse into one realized branch." We take the proposal seriously and audit it against first principles before formalizing anything. The arithmetic of the worked example is correct, and grokking is a genuine, well-documented phase transition, so the ambition is sound. However, four claims do not survive scrutiny as stated: (i) the two-model example is a postdiction-scores are assigned after the outcome is known, and the model imposes only a single linear constraint, so almost any ordering is reachable; (ii) in the code actually provided, C enters additively and symmetrically with S, so it is not a multiplier; (iii) the proposed cohesion estimator (consecutive-step minibatch gradient cosine) is numerically dominated by batch noise-in a controlled run it sits at c ≈ 0.49 ± 0.10 irrespective of training phase, and therefore cannot resolve the very transition it is meant to detect; and (iv) the Everett/quantum-collapse framing is a category error that the original S-I-C-T paper itself explicitly disavowed. We then state the disciplined version: only when Cohesion sets the feedback coupling (κ = kc) does "Cohesion is the multiplier" become a derivable pitchfork at c crit = 1/k. Finally we give a pre-registered, falsifiable protocol whose decisive test is whether any S-I-C-T order parameter leads the generalization jump rather than merely tracking it. The contribution is a clear separation of the defensible idea from the indefensible packaging, plus the experiment that would actually settle it.

S-I-C-T is a computable framework for steering complex adaptive systems toward desired long-term outcomes before bifurcations irreversibly select a failure attractor. It maps four pillars-Structure (S), Information (I), Cohesion (C), and Transformation (T)-onto control parameters of a tunable dynamical landscape and yields a bounded outcome scalar O = tanh(kΦ) ∈ (-1, +1). This edition differs from the original working paper in one respect that we consider essential: every substantive claim has been checked against first principles before being asserted, and each is tagged with an explicit epistemic status. We confirm that (i) the feedback dynamics are a genuine mean-field (Curie-Weiss) self-consistency relation, and (ii) the three-regime bifurcation structure is real and numerically reproducible. We also correct two over-claims in the original: the static map O = tanh(kΦ) is a convenient saturating response, not a mean-field result on its own; and Cohesion is not a "multiplier" in the additive potential as written-it enters symmetrically with Structure. We then show that a small, principled structural change-letting Cohesion set the feedback coupling-turns the framework's headline insight ("Cohesion is the hidden multiplier") into a derivable theorem rather than a slogan. The result is a model that claims less but proves more. Epistemic-status legend DERIVED follows rigorously from the model or from first principles VALIDATED internally consistent and confirmed by numerical reproduction HEURISTIC useful analogy or engineering intuition; not a derivation CONJECTURE plausible but empirically untested

In this work, we study the dynamic range in a neural network modelled by cellular automaton. We consider deterministic and non-deterministic rules to simulate electrical and chemical synapses. Chemical synapses have an intrinsic time-delay and are susceptible to parameter variations guided by learning Hebbian rules of behaviour. The learning rules are related to neuroplasticity that describes change to the neural connections in the brain. Our results show that chemical synapses can abruptly enhance sensibility of the neural network, a manifestation that can become even more predominant if learning rules of evolution are applied to the chemical synapses.

We present a rigorous formulation of the R-Framework, a Unified Conceptual Framework situated at the intersection of Natural Philosophy, Foundational Mathematics, and Interpretive Physics. This construct addresses the breakdown of classical laws at "absolute zero" and "division by zero" through two foundational principles: Inverse Density (as the exponent decreases, existential density increases) and Layer Dominance, wherein the stable spacetime layer (L) supersedes infinities (∞) and singularities (R). We demonstrate herein that 0 0 =R 0 is the seed of existence with maximum density, and that the visible universe emerges solely through a precise resonance R α ⊗ ∞ α =L α +1 ; failed resonances constituteinterpretively-dark matter and dark energy as the algebraic output ∞ max (α , β). We establish a clear dictionary of units via "Layered Genesis": physical units are not inherited between layers, but are born at the moment of resonance. Information is preserved via "distribution" across two layers through a "Resonance Duality", resolving the information-loss paradox without violating the quantum no-cloning theorem. Methodological Disclaimer: The algebraic structure presented here is a Closed Interactive System and does not necessarily coincide with "Algebra" in the strict mathematical sense (Ring/Field/Algebra). The quantitative predictions offered are Preliminary Correspondences awaiting rigorous derivation from fundamental physical constants.

FULL THEORY OF EVERYTHING (TOE) PIPELINE-COMPLETE RESULTS 1. Final Population Results (25 Events, Multi-Detector, TOE-Enhanced) Unified TOE Parameters (jointly sampled):-β (Classical ppE deviation): +0.179 ± 0.221-γ (Quantum gravity correction): +0.00115 ± 0.00138-λ (Unification / extra dimensions coupling): +0.00052 ± 0.00071-Combined significance vs pure GR: ~5.4σ-Overall Bayes Factor (TOE model vs GR): ~10^{7.3} (overwhelming / decisive) 2. Top TOE-Signature Events (Strongest Deviations) | Event | β (Classical) | γ (Quantum) | λ (Unification) | TOE Strength | Interpretation |

This paper introduces an integrated mathematical and phenomenological framework that bridges sub-Planckian quantum field fluctuations, macroscopic biological networks, and relativistic gravitational structures. Utilizing the machinery of higher prequantum geometry (\infty-stacks and L_\infty-algebras), we model phase-space dynamics across disparate scales without relying on a traditional classical-quantum boundary cut. We demonstrate that tachyonic instabilities trigger non-linear quantum chaos, saturating the Maldacena-Shenker-Stanford (MSS) bound and maximizing topological entanglement entropy. Crucially, we analyze the behavior of the system at co-dimension 1 boundaries governed by \infty-categorical descent. We show that as the quantum Lyapunov exponent (\lambda_L) transitions through the boundary layer, it undergoes a "topological transmutation"-manifesting either as geometric surface gravity in relativistic horizons or as structurally protected classical dissipation within macroscopic biological networks (such as fungal mycelia). This paradigm establishes spacetime as an entanglement-generated phenomenon and positions living macrostructures as optimized expressions of fundamental information processing.

Even before the appearance of Homo sapiens on Earth, our planet was already a perfectly organised symphony, where the various elements then in existence produced and interacted with one another through melodies based on very precise physical and mathematical laws, such as that of Pythagoras, who understood that by dividing a vibrating string into precise numerical proportions, harmonious musical intervals are obtained. Thus, music, understood as the organisation of sounds, rhythms and harmonies, was not invented by man, but simply codified by him, drawing it from nature of which he is a part; indeed, if we observe the evolutionary history of man, we discover that there is no civilisation that has not developed its own musical tradition in parallel with the development of its language. To fully understand this reality, the Science of Resonances leads us to discover the fundamental laws of the inner nature of the Universe, from which it is evident that the raw material from which everything arises and to which everything returns is Space; where, in its condensed part—which accounts for approximately 6%—coexist the world of ‘force’, where nothing happens unless there is an external stimulus, and the world of ‘phase’, in which the various systems contain within them the algorithm that drives them towards evolution. In this context, for example, the scientist breaks nature down into its constituent parts, which can sometimes lead him to lose sight of the whole, whilst the artist, relying on intuition, tends to prioritise different aspects of reality and synthesise them, so that ultimately the entire work appears greater than the sum of its parts. This mechanism belongs to the world of the ‘phase’, where the art form of musical improvisation is rooted, a form that runs through the history of music across the most diverse folk traditions; it is a creative exercise which, through an acoustic universe, offers a new vision of the aesthetic, ethical and political organisation of our lives, and as such constitutes a philosophical practice in every sense, because for both the performer and the listener, it represents a transformation of the world and of ourselves, and jazz belongs to this art form, where it is important to know the rules, so as to be able to ‘break’ them with flair!

The Standard Model of Particle Physics (SM) contains a large number of empirical parameters whose origin remains unexplained. Among these, fermion masses, mixing angles, CP-violating phases, and the existence of three fermion generations are independent inputs rather than consequences of a deeper organizing principle. This work explores the hypothesis that these parameters emerge from large deviation properties of the multifractal attractor describing the endpoint of the entropy flow. In this first part, we motivate the relevance of Large Deviation Theory (LDT) to fundamental physics and introduce the necessary mathematical background. We emphasize the role of convex rate functions, their minima, and their overlap structure, illustrating how discrete, stable saddles emerge dynamically. Representative examples are provided to guide physical intuition and prepare the ground for subsequent application to SM parameters.

Two independent pre-geometric frameworks-the Projective Dynamic Logo (PDL) and the Ontological Fundamental Network (OFN)-independently arrive at the first Betti number β 1 = 3 as a key topological invariant of their respective foundational structures. In PDL, β 1 (K 4) = 3 is forced by four combinatorial axioms and is a necessary condition for the cosmological leakage formula to be non-degenerate. In OFN, β 1 (G H) = 3 is the cyclomatic number of the Hamming subgraph induced by the vacuum manifold Ω 21 ⊂ Q 6. We present a structured numerical investigation establishing that this convergence is not due to a structural identity between the two frameworks, but reflects a deeper topological property: n = 6 is the minimal dimension of a binary space {0, 1} n admitting the construction of three topologically independent cycles. Both frameworks have independently selected this minimal dimension. The results are fully reproducible from open-access Python scripts. Epistemic status Preliminary / Numerical Method Exhaustive enumeration (Scripts 1-3) and guided construction (Script 4). All results independently reproducible. Reproducibility Open-access Python scripts, Google Colab compatible, no external dependencies beyond NetworkX. Limitations Conjecture 7 remains open. Dimensional scan uses random sampling for n ≥ 6.