C121Quantum theory and records
Correlations across a sequence of measurements can reveal memory that a single final state conceals. This comparison with standard Hilbert-space quantum mechanics examines what DTT’s inner generation adds to that process, calculates a two-time qubit correlation, and distinguishes a real source-memory mechanism from merely introducing another time label.
Comparative article · 6 min read↗
C127Quantum theory and records
One particle can produce phase-sensitive interference because alternative amplitudes contribute to one detection. This comparison with standard Hilbert-space quantum mechanics examines how DTT’s sequential inner generation could preserve those alternatives, works through a balanced interferometer, and identifies the coherent memory that an explanatory completion mechanism must actually supply.
Comparative article · 5 min read↗
C133Quantum theory and records
A recorded outcome and a fully classical post-measurement state are different physical objects. Comparing DTT with standard Hilbert-space quantum mechanics, this article uses a weak measurement to show how completion, disturbance and retained coherence fit together, then identifies what an autonomous source mechanism could explain beyond an ordinary measurement interface.
Comparative article · 6 min read↗
C139Quantum theory and records
Why should a source produce squared-amplitude probabilities in every measurement basis? This comparison with standard Hilbert-space quantum mechanics examines the Born rule through a qubit whose coherent and incoherent preparations have sharply different outcomes, clarifying where source counting helps and where a stronger composition or probability law is needed.
Comparative article · 5 min read↗
C145Quantum theory and records
Ordinary quantum phase and hyperbolic time transformations preserve different mathematical structures. Comparing DTT with standard Hilbert-space quantum mechanics, this article works through real rotation and boost generators, explains how real dynamics can select a complex structure, and identifies the further steps connecting that result to observable quantum physics.
Comparative article · 5 min read↗
C151Quantum theory and records
A stable local record can hide phase information that remains in a larger system. This comparison with standard Hilbert-space quantum mechanics calculates the purity of a decohering qubit, separates inaccessible memory from fundamental information loss, and shows how DTT’s source architecture could become testable through later interventions and recovery.
Comparative article · 5 min read↗
C157Quantum theory and records
Bell correlations challenge a particular local causal factorization while preserving ordinary no signalling. Comparing DTT with standard Hilbert-space quantum mechanics, this article calculates the ideal singlet violation and its unchanged local marginals, then asks what a single generative source must explain to reproduce both features through one physical mechanism.
Comparative article · 5 min read↗
C163Quantum theory and records
Quantum erasure reveals complementary interference patterns when correlated records are sorted; it does not rewrite the unsorted past. This comparison with standard Hilbert-space quantum mechanics follows the conditional probabilities explicitly and examines how DTT’s partial and completed archives can clarify the experiment while respecting its causal and informational limits.
Comparative article · 5 min read↗
C169Quantum theory and records
A quantum archive cannot be a context-independent list of answers to every possible measurement. Comparing DTT with standard Hilbert-space quantum mechanics, this article works through a two-qubit parity contradiction and explains how a source-generated test language could support definite completed records while preserving the nonclassical algebra of actual observables.
Comparative article · 5 min read↗
C175Quantum theory and records
A source can release repeatable classical labels without duplicating its unknown quantum state. This comparison with standard Hilbert-space quantum mechanics derives the no-cloning restriction, distinguishes reversible work from record publication, and examines what physical memory and computational constraints could make DTT’s cosmic-computer idea an explanatory model.
Comparative article · 5 min read↗
