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Temporal Ratio Theory: A Conversion-Based Model of the Arrow of Time

Author: Dominik, Matthew
Publisher: Zenodo
DOI: 10.5281/zenodo.17716524
Source: https://zenodo.org/records/17716524/files/Temporal_Ratio_Theory_Preprint.pdf
Tempo al Ra io Theo y: A Con e sion-Based Model o he A ow o Time
Ma hew Dominik (Hollis Black)
Dominik Resea ch Ins i u e, Cle eland, OH
Abs ac :
This p ep in p esen s Tempo al Ra io Theo y, a ma hema ical amewo k in which he a ow o ime
eme ges om an asymme ic con e sion ope a o ac ing a he p esen bounda y. The heo y models
he u u e as an expanding exponen ial ield o un esol ed po en ial and he pas as a con ac ing ield
o concluded s uc u e. The p esen unc ions as a ini e-wid h collapse zone whe e u u e po en ials a e
con e ed in o pas ou comes h ough a sign- e e sing ope a o . The model yields a clea es able
p edic ion: a measu able discon inui y mus exis be ween ield magni udes app oaching he p esen
om posi i e and nega i e empo al domains. This discon inui y cons i u es he physical signa u e o
empo al asymme y wi hin his amewo k.
1. In oduc ion
Tempo al Ra io Theo y aims o e o mula e he a ow o ime no as a p ope y o ime i sel , bu as a
p ope y o he con e sion p ocess ha links u u e po en ial o pas s uc u e. Classical physics ea s
ime as undamen ally symme ic, while he modynamics and quan um measu emen in oduce
i e e sibili y. This heo y uni ies hese pe spec i es by loca ing asymme y in he p esen bounda y
a he han in he empo al axis.
2. Tempo al Domains
Time is modeled as T = (-∞, ∞). The posi i e domain co esponds o u u e po en ials, he nega i e
domain co esponds o concluded pas s uc u es, and he p esen is a con e sion bounda y Zε o ini e
hickness. Fu u e po en ials a e desc ibed by Φ_T( ) and pas s uc u es by Φ_A( ).
3. Con e sion Ope a o
The p esen ans o ms po en ials in o s uc u e by a sign- e e sing ope a o C such ha C( ) = − ( ) o
> 0. This ope a o is asymme ic unde ime e e sal, p o iding he mechanism o empo al
di ec ionali y. The pas is o mally he image o he u u e unde his ope a o : Φ_A( ) = C(Φ_T( )).
4. Tempo al Ra io and Field E olu ion
The co e obse able o he heo y is he empo al a io R( ) = |Φ_T( )| / |Φ_A( )|. Field e olu ion is
de ined as Φ_T( ) = Φ_T(0+) e^(k■ ) and Φ_A( ) = Φ_A(0−) e^(−k■ ). The esul ing a io e ol es as
R( ) = C■ e^((k■ + k■) ). This c ea es a compac dynamical sys em in which empo al asymme y is
quan i ied.
5. Tes able P edic ion
The heo y p edic s a measu able discon inui y a he con e sion bounda y:
lim( →0■) Φ_T( ) ≠ lim( →0■) Φ_A( ).
This con e sion di e en ial mus be non-ze o i he a ow o ime exis s. Any expe imen capable o
p obing ields immedia ely adjacen o he collapse momen —such as quan um s a e esolu ion,
en opy g adien s a phase bounda ies, o measu emen -induced decohe ence—should de ec his
asymme y.
6. Signi icance
Tempo al Ra io Theo y e ames empo al low as he esul o he imbalance be ween expanding
po en ial and con ac ing s uc u e. The p esen is ea ed as a phase ansi ion su ace, analogous o
shock on s o ho izon bounda ies in physics. The ac ha he heo y yields a alsi iable signa u e
dis inguishes i om pu ely philosophical ea men s and allows in eg a ion wi h exis ing physical
models.
7. Conclusion
By shi ing empo al asymme y om he s uc u e o ime o he con e sion ope a o , Tempo al Ra io
Theo y p o ides a concise and po en ially uni ying explana ion o he a ow o ime. Fu u e wo k may
explo e ex ensions in o ela i is ic se ings, quan um measu emen models, o in o ma ion- heo e ic
o mula ions.