FAQ

FBA definition/postulate: FBA is an operational approach that builds physics “from the bottom up”: from distinguishable state frames and minimal updates it first defines only a sequence (an order) — without presupposing a time coordinate. Each transition accounts a budget (internal/external); via calibration this becomes measurable physics: proper time, signal fronts, and more.

Standard/established (context): Many familiar results of established physics (SR/QM/GR) are expected to appear as limits or effective descriptions — with the goal of making the “time question” operationally sharper.

Read next: Part I → Part II

FBA perspective: “Time” is not assumed as a coordinate; it is reconstructed as a measurement outcome. From sequence + calibration one obtains a metric notion of time. This cleanly separates “which update follows which?” from “how much internal accounting has accumulated?”.

Standard/established (context): In SR/GR, time is part of spacetime geometry; operational time measurement is done via clocks/proper time. FBA tries to make that operational layer the starting point.

FBA definition: A budget is an accounted quantity for the feasibility cost of a transition. Typically it is decomposed into internal (change of the system) and external (change of relations/location/order). A component may be irreversible.

Intuition: It is not “energy in disguise”, but an operational accounting that becomes physical only after calibration to measurable quantities (time, range, dissipation, …).

FBA definition: A frame is a state “snapshot” recognized as “the same” within a chosen protocol (relative to resolution/protocol boundary). A minimal event (ME) is the smallest step that takes “same” to “different”.

Why it matters: This makes “distinguishability” the primitive notion — without presupposing spacetime or a continuum.

FBA (operational): Proper time is a system-bound time quantity defined as the integrated internal budget flow along a worldline. Only calibration turns that accounting into a measurable clock time.

Standard/established (context): In SR/GR, proper time is the invariant measure along a worldline. FBA aims to reconstruct this measure from budget accounting + calibration.

FBA derivation: From budget positivity and suitable calibration (cost rates/bounds) one obtains a maximum propagation front for influences/signals. Light-cone logic is thus not an extra postulate, but a consequence of constraints.

Read next: Part II and Part V

Standard/established: Admissible quantum processes are described by CPTP channels; Markovian open dynamics by GKLS/Lindblad generators.

FBA perspective: “Updates” are treated as processes. Budget constraints and composition rules structure which families of processes are admissible and how measurement/dissipation enter a unified calculus.

Read next: Part III → Part IV

Standard/established: In SR/GR, gravity is geometry (curvature), and time dilation follows from the metric/geodesics.

FBA perspective: Geometry appears as an effective description of budget flows and their influence on calibrated clock rates. Time dilation is interpreted as budget redistribution/flow structure that should reproduce the familiar relativistic form in the appropriate limit.

Read next: Part VI

FBA perspective: An irreversible component of the internal budget provides a natural operational bridge to the arrow of time, dissipation, and a measurement-adjacent quantity “aging” (the accumulated irreversible part along a worldline).

Standard/established (context): The thermodynamic arrow is tied to entropy production. FBA tries to anchor this irreversibility directly in the budget calculus.

Read next: Part VIII

FBA goal: The approach is deliberately built so that it can fail if budget balance, composition, and calibration cannot be made compatible with real protocols.

Practically: Concrete testable implications (and pass/fail criteria) are collected in the later parts — especially where FBA could deviate from standard assumptions.

Read next: Part IX and Part X

Practical answer: You can read the material at different depths. The website pages provide an operational entry; the PDFs contain the full formalism. Familiarity with SR/QM basics helps — but Parts I–II are structured so the core idea is understandable without diving into all details at once.

Tip: Use glossary + reading paths: first concepts/grammar (I), then proper time/Minkowski (II), then QM (III–IV) or spacetime/gravity (V–VI) depending on interest.

Recommended: Start with Part I and Part II. After that:

• QM/dynamics: Part III → Part IV
• Spacetime/gravity: Part V → Part VI
• Thermo/aging: Part VIII
• Cosmology/tests: Part IX – Part X

PDF overview: Parts I–X