Shamanism as an Analogue Model for Extraterrestrial Communication
September, 2026 • Preprint
Saniotis, Arthur
This paper proposes shamanic practices as an analogue model for communication with an extraterrestrial intelligence. Drawing on examples of cross-species communication and shamanic embodied signalling…
This paper proposes shamanic practices as an analogue model for communication with an extraterrestrial intelligence. Drawing on examples of cross-species communication and shamanic embodied signalling, it identifies six signalling principles: rhythm, movement, mimicry, repetition, reciprocity, and reception and cooperation. These principles may provide a basis for communication where a shared symbolic system is unavailable. They would not operate in a linear or fixed sequence but would be fluid, mutually influencing one another. Through ongoing interactions, the probe and the receiving ETI could, over time, interpret recognisable signalling patterns, potentially developing more complex patterns of communication. A shamanic-inspired communication probe is proposed as a hypothetical model in which simple signalling, recognition, reciprocal interaction and cooperation could provide an initial point for communication between humans and an extraterrestrial intelligence.
ShamanismExtraterrestrial intelligenceCross-species communicationBehavioural signallingAnalogue communication
Unitary Black Hole Page Curve Reconstruction via Wormhole Error-Kernel Invariants: Non-Dissipative State Preservation, 40-Core Bare-Metal Telemetry, and Formal Verification
September, 2026 • Preprint
Dağlı, Volkan, Dagli, Zerrin, Dağlı, Dağhan
Version 2 Comprehensive Revision: This revised monograph supersedes Version 1. Version 2 incorporates the rigorous non-dissipative invariant subspace theorem from the authors' foundational theory (The…
Version 2 Comprehensive Revision: This revised monograph supersedes Version 1. Version 2 incorporates the rigorous non-dissipative invariant subspace theorem from the authors' foundational theory (The Wormhole Error-Kernel Invariant), integrates complete 40-core bare-metal hardware telemetry from an enterprise Dual Intel Xeon E5-2630 v4 cluster, incorporates interactive formal proof verification in Lean 4 (doi:10.5281/zenodo.22974544), and establishes explicit continuity with the authors' cumulative research series including the WERR v2.0 Decision Engine (arXiv:2609.25498) and Turkish Patent Application TR 2026/016285.
The black hole information paradox presents a foundational conflict between semi-classical gravitational collapse and quantum unitarity. The conventional treatment of horizon boundary perturbations has long suffered from what we term the Fallacy of Erasure: forced zero-truncation of states crossing the event horizon introduces a distributional gradient singularity (∇ · F ≠ 0), precipitating an infinite stress divergent firewall (||Tμν|| → ∞) at the AMPS boundary.
In this work, we demonstrate that unitary quantum state recovery is naturally established without horizon firewalls by introducing the Wormhole Error-Kernel Invariant (Kerror ⊂ ℤ/9ℤ). Rather than dissipating or zeroing perturbed boundary states, the quantum system projects boundary degrees of freedom into an uncoupled discrete modular residue ring. Because the discrete residue space carries no continuous differential structure, the ambient Riemann stress tensor decouples identically: ⟨Tμν, Kerror⟩ = 0. Consequently, quantum information crossing the horizon is topologically sheltered within non-dissipative invariant subspaces until the Page time (tPage), whereupon adiabatic restoration operators (Rreturn) reconstruct the radiation state with zero entropy loss.
The dynamic exchange across the horizon is governed by the TAMAMe Horizon Complementarity triad: Tension (T), Blind-Spot (B / AMA), and Seek (S / ME), enforcing unitary complementarity B(t) + S(t) = 1 across the full evaporation lifetime.
To empirically validate the invariant framework, a bare-metal 40-core numerical simulation was deployed on an enterprise Dual Intel Xeon E5-2630 v4 architecture (40 concurrent worker threads, 256 GB DDR4 ECC RAM, CPU performance governor lock), executing 40,000 discrete time samples at 481,143 samples/s. The telemetry confirms exact unitary recovery:
Final Entropy: S(t=1) = 0.00 nats (Exact Unitarity)
Final State Purity: Tr(ρ2) = 1.00 (Pure Quantum State)
Page Curve Fidelity: R2 = 0.9822, RMSE = 214.18 nats
Firewall Suppression Ratio: 573.1× quench (Horizon stress index stabilized to 1.35 vs. 773.67 firewall baseline)
The underlying algebraic invariance is verified interactively in Lean 4. All raw datasets, cryptographic SHA-256 manifests, and telemetry figures are released open-source.
black hole information paradoxPage curveHawking radiationER = EPRentanglement entropy
This repository contains analysis code underlying the psychometric analyses of a randomized pilot study comparing LLM-assisted and conventional medical assessment item writing. It includes item-level …
This repository contains analysis code underlying the psychometric analyses of a randomized pilot study comparing LLM-assisted and conventional medical assessment item writing. It includes item-level psychometric outcomes, faculty-level aggregated outcomes used for exact permutation testing, and the corresponding R analysis code. Examination stems, response options, answer keys, and other confidential examination materials are not included.
Dataset/input files for the manuscript titled "Acoustic droplet vaporization with photoacoustic pulses".
The folder "ECOGEN files" contains the input and geometry files used for the numerical simulati…
Dataset/input files for the manuscript titled "Acoustic droplet vaporization with photoacoustic pulses".
The folder "ECOGEN files" contains the input and geometry files used for the numerical simulations
The folder "Experimental Recordings" contains the experimentally recorded videos.Specifically:
"Fiorinietal_28umDroplet_PAPulse_ExperimentalRecording_10Millionfps.avi" shows the vaporization process of a PFP droplet with radius R = 28 um using a PA pulse as excitation waveform. Selected frames from this file are shown in Fig. 5.4(a).
"Fiorinietal_8umDroplet_PAPulse_ExperimentalRecording_10Millionfps.avi" shows the vaporization process of a PFP droplet with radius R = 8.4 um using a PA pulse as excitation waveform. Selected frames from this file are shown in Fig. 5.4(b).
"Fiorinietal_7umDroplet_LinearArray5MHZ_ExperimentalRecording_10Millionfps.avi" shows the vaporization process of a PFP droplet with radius R = 7.1 um using a linear array transducer with center frequency f = 5 MHz as excitation waveform.
"Fiorinietal_8umDroplet_HIFU5MHZ_ExperimentalRecording_10Millionfps.avi" shows the vaporization process of a PFP droplet with radius R = 8.5 um using a HIFU transducer with center frequency f = 5 MHz as excitation waveform.
Developing Quantum-Physics Inspired Machine Learning Model for the Partition Coefficient Prediction and Comparing its Performance with the Empirical Descriptors and Molecular Graph-based Models
September, 2026 • Publication
Tripathi, Abhishek
Supplementary Information for logP Prediction. It has dataset, figures, tables, and gnn code.
There is an increasing interest in upgrading the EModel, a parametric tool for speech quality estimation, to the wideband and super-wideband contexts. The
Contemporary models of Unmanned Aerial Vehicles (UAVs) are largely developed using simulators. In a typical scheme, a flight simulator is dovetailed with a
Undertaking engineering research can be compounding for beginning graduate students and thwarting even for seasoned researchers. With a wealth of academic
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