Resources

Constraint Physical Computing (CPC):

CPC is the cummulative GridSAT research programme redefining computational state identity, exact semantic representation, compatible dynamics and realization, physical readout, and the resource requirements connecting these layers. The following papers develop the framework from foundational state identity and quotient-state representation through semantic carriers, formalization, physical realization, and the broader epistemology of representation and solvability.

Daghbouche, K. and Duman, D. (2026)
Configuration Identity as a Formal Parameter in Deterministic State Counting
Zenodo.DOI: 10.5281/zenodo.22062716

Daghbouche, K. and Duman, D. (2026)
Canonical Quotient-State Realization of Bounded-Width Dynamic Programming in Layered Tseytin 3-CNF
Zenodo.DOI: 10.5281/zenodo.22062774

Daghbouche, K. (2026)
Response Quotients for Exact Semantic Representation
Zenodo.DOI: 10.5281/zenodo.22062855

Daghbouche, K. (2026)
Fixed-Function Exact Semantic Carrier Conditions over VPV: Internal Invariants and External Representation Theorems
Zenodo.DOI: 10.5281/zenodo.22062943

Daghbouche, K. (2026)
One-Way Permutations and the Conditional Unprovability of Exact Semantic Carrier Separation in PV
Zenodo.DOI: 10.5281/zenodo.22063029

Daghbouche, K. and Duman, D. (2026)
Exact Semantic Carriers for Structured Physical Systems
Zenodo.DOI: 10.5281/zenodo.22063161

Daghbouche, K. (2026)
A Mathematical Framework for Carrier-Based Physical Computation: Constraint Compilation, Engineered Dissipation, and Microwave-Referenced Readout
Zenodo.DOI: 10.5281/zenodo.22063338

Daghbouche, K. (2026)
Representation Precedes Solvability: An Epistemology of Knowledge, Computation, and Natural Problems
Zenodo.DOI: 10.5281/zenodo.22063467

CPC Software and Validation:

CPC Software and Validation provides the open implementation and evidence infrastructure accompanying the Constraint Physical Computing programme. CPC Validation connects the formal framework to executable constraint representations, qualified backends, physical-execution specifications, referenced readout, and independent semantic validation, keeping computational representation, physical realization, and validation explicitly separated.

Daghbouche, K. (2026)
CPC Validation [Computer software].
Open software and validation infrastructure accompanying the Constraint Physical Computing programme.
GitHub — source and current development
Zenodo — CPC Validation v0.6.0
CPC Zenodo Community

The Superheavy Resonance Hypothesis:

The Superheavy Resonance Hypothesis (SRH) is a GridSAT research programme investigating the physical structure and technological implications of relativistic matter, charge-conjugation symmetry, quantum coherence, measurement, and gravitational response. The following papers develop this line from the structure of relativistic matter and its operational interfaces to the hypothesis that nuclear-electronic coupling in the superheavy regime supports experimentally distinguishable resonance phenomena.

Daghbouche, K.
The Symmetry of Matter and Antimatter
J. Acad. (N.Y.) 2012, Vol. 2, 3:152-159

Daghbouche, K. (2025)
On the Symmetric Structure of Relativistic Matter and Its Gravitational Response
DOI: 10.5281/zenodo.20094549

Daghbouche, K. (2026)
Theoretical Feasibility of Resonant Metric Engineering via Nuclear-Electronic Coupling in the Superheavy Regime (Z ≈ 115)
DOI: 10.5281/zenodo.22181646

Daghbouche, K. (2025)
The Physical Decision Problem: Charge-Conjugation Symmetry as an Internal Selection Rule for Quantum Measurement
DOI: 10.5281/zenodo.18120603

Daghbouche, K. (2026).
Nonlocal Quantum Correlations from the Bi-Particle Structure of Relativistic Matter
DOI: 10.5281/zenodo.18349477

Daghbouche, K. (2026)
Double-Slit Interference in a C-Parity Decomposition of the Dirac Field
DOI: 10.5281/zenodo.19976048

Daghbouche, K. (2026)
Gauge Interfaces in a C-Parity Framework: An Interpretative Note
DOI: 10.5281/zenodo.20135119

Daghbouche, K. (2026)
Macroscopic Quantum Coherence and State-Dependent Cooper-Pair Inertial Mass
DOI: 10.5281/zenodo.20178475

Daghbouche, K. (2026)
Light as an Algebraic Interface: An Interpretive Note on the C-Real Form of the QED Current
DOI: 10.5281/zenodo.20441893

Daghbouche, K. (2026)
Macroscopic Coherence and Effective Sources in Relative-Entropy Semiclassical Gravity
DOI: 10.5281/zenodo.21270006

Daghbouche, K. (2026)
Material Registration in Quantum Measurement: A Carrier-Access Factorization
DOI: 10.5281/zenodo.21431482

Daghbouche, K. (2026)
State-Level Kernels of Downward-Transition GKSL Dissipators: A Conditional Application to C-Parity Models
DOI: 10.5281/zenodo.21531760

Daghbouche, K. (2026)
Representation Equivalence, Operational Interfaces, and Intrinsic Attribution in the U(1) Sector of Dirac Theory
DOI: 10.5281/zenodo.21658983

Complexity, Technology and High-Tech Policy:

GridSAT examines frontier technological capability in its computational, evolutionary, and astropolitical context. The following papers address the Fermi paradox, Non-Human Intelligence (NHI), the complexity of identifying and reverse-engineering advanced technology, and the implications of technological capability for civilizational continuation, social responsibility, and moral accountability.

Daghbouche, K.
Non-Human Intelligence: Why Earth?
NHI Capability, Computability, and the Darwinian Logic of Exploration, Observation, and Preservation
J.Acad. (N.Y.) 2026, Vol 15, 2:3-69

Daghbouche, K.
Computational Complexity of UAP Reverse Engineering: A Formal Analysis of Automaton Identification and Data Complexity
DOI: 10.48550/arXiv.2505.00051

Daghbouche, K.
The Bona Fide of Non-Human Intelligence (NHI) Exploring Earth: Evolutionary Pressure and the Halting Problem
J. Acad. (N.Y.) 2024, Vol. 13, 2:3–10

Daghbouche, K.
The Genesis of the Fermi Paradox: Logical Analysis and Resolution
J. Acad. (N.Y.) 2024, Vol. 13, 1:3–5

Foundational Papers:

GridSAT's foundational research originates in the structural analysis of logical variables, clause-sets, constructive truth, and constraint representation. The following papers develop the mathematical and computational foundations from which the Non-Deterministic Processor (NDP) programme emerged, including its roots in the formal structure of Arabic language and Islamic jurisprudence.

Abdelwahab, N.
Three Dogmas, a Puzzle and its Solution
J. Acad. (N.Y.) 2023, Vol. 12, 1:3-101

Abdelwahab, N.
#2SAT is in P
J. Acad. (N.Y.) 2018, Vol. 8, 1:3-88

Abdelwahab, N.
On the Dual Nature of Logical Variables and Clause-Sets
J. Acad. (N.Y.) 2016, Vol. 6, 3:202-239

Abdelwahab, N.
Constructive Patterns of Logical Truth [v2]
J. Acad. (N.Y.) 2016, Vol. 6, 2:99-199

Abdelwahab, N. and Daghbouche, K.
The Algorithm of Islamic Jurisprudence (Fiqh) with Validation of an Entscheidungsproblem
J. Acad. (N.Y.) 2014, Vol. 4, 2:52-87

Explainers and Lectures:

GridSAT Stiftung
Constraint Physical Computing (CPC): A Mathematical Framework for Carrier-Based Physical Computation
Youtube-Channel

GridSAT Stiftung
CPC Reference Validation Framework - Reference implementation of the Constraint Physical Computing (CPC) architecture
Youtube-Channel

GridSAT Stiftung
C-Parity: From Relativistic Matter to Quantum Measurement, Coherence and Gravity
Youtube-Channel

GridSAT Stiftung
Resonant Metric Engineering via Nuclear-Electronic Coupling in the Superheavy Regime (Z ≈ 115)
Youtube-Channel

GridSAT Stiftung
Non Human Intelligence: Why Earth?
Youtube-Channel

Abdelwahab, N.
The P vs. NP Problem- J.Acad. Lecture Series - Lecture 1/2
J. Acad. (N.Y.) 2018, Vol. 8, Multimedia 1:1

Abdelwahab, N.
The P vs. NP Problem- J.Acad. Lecture Series - Lecture 2/2
J. Acad. (N.Y.) 2023, Vol. 13, Multimedia 2:1 (in pre-print)

Patents:

Effizientes Verfahren zur logischen Vervollständigung eines deduktiven Kataloges zur allgemeinen Constraintsbehandlung im erweiterten relationalen Datenbankkonzept
DPMA DE 10 2015 013 593 A1 2017.04.20
Appl. No.: 10 2015 013 593.7
Filed: OCT-15-2015
First publication date: APR-20-2017 W

Efficient method for logical completion of a deductive catalogue used for general constraints treatment in the extended relational database concept
USPTO US 11113281 B2
Appl. No.: 15/293420
Filed: OCT-14-2016
First publication date: AUG-31-2017 - Issue date: SEP-07-2021

Verfahren zur Erstellung einer effizienten, logisch vollständigen, ontologischen Ebene im erweiterten relationalen Datenbankkonzept
DPMA DE 10 2018 008 923 A1 2020.05.20
Appl. No.: 10 2018 008 923.2
Filed: OCT-09-2018
First publication date: MAI-20-2020

Method for creating an efficient, logically complete, ontological level in the extended relational database concept
USPTO US 20200242150 A1
Appl. No.: 16/596147
Filed: OCT-08-2019
First publication date: JUL-30-2020

USPTO Patent Attorney:

Steven A. Swernofsky
3616 Far West Blvd Ste 117 PMB 245
Austin, TX 78731-3198