Abstract
The human being is distributed across the disciplines that study it. Physiology explains recurrent requirements of living maintenance; cognitive science examines perception, representation, and selection; neuroscience examines implementation; economics examines scarce allocation; sociology examines the production of social demands; and systems theory examines recurrent organization. Each isolates a legitimate object. Their explanations, however, do not necessarily preserve the finite human unit through which biological, mental, and social claims must converge before becoming action. This paper introduces the foundational architecture of the MB Framework as a diagnostic model. It begins with one human being, H = M + B, situated within a terrestrial temporal order that precedes the individual and supplies a fixed but repetitive daily field. The equation is functional rather than substantive: M names the domain in which possibilities can be represented and multiplied; B names the domain through which possibilities acquire physical realization, location, vulnerability, and temporal cost. The model distinguishes two temporal logics within that field: bodily maintenance recurs under each twenty-four-hour cycle, while self-directed achievement is constructed cumulatively across cycles and therefore requires a set horizon. Once multiple claims exceed what one body can execute within finite and irreversible time, attention, selection, and governance become structurally necessary. The paper develops a constrained-emergence method: hold the containing frame constant, introduce one variable at a time, and prohibit later constructs from explaining earlier stages before their enabling conditions exist. These layers are diagnostic conditions, not chronological epochs. The claim is not that embodiment, temporal constraint, or action selection are individually undiscovered. It is that their existing explanations may remain insufficiently integrated around the coupled allocation of mental possibility and bodily execution. The paper establishes this candidate architecture and ends at the introduction of a second independently governed human unit, where individual allocation becomes a problem of coordination.
1. Introduction: the fragmented human
The sciences of human conduct possess no shortage of detail. Their difficulty lies elsewhere. Each discipline secures explanatory precision by isolating a segment of the human process. Biological regulation begins with the maintenance of viable bodily states. Psychology separates perception, cognition, motivation, and behaviour. Neuroscience tracks the mechanisms through which representations and action programmes are implemented. Economics treats time as a scarce input. Sociology examines the demands produced by roles, institutions, and differentiated social systems. The result is not ignorance but fragmentation: a set of explanations that enter and exit the human sequence at different points.
The fragmentation becomes visible whenever an explanation uses a transition without accounting for it. A message is understood, therefore the person responds. A goal is selected, therefore the body acts. A norm exists, therefore conduct changes. An intention is formed, therefore it is implemented. These formulations may be locally sufficient, yet each compresses the conversion through which an external or internal claim acquires access to one finite body. The human being is treated as the point of passage while the architecture of passage remains distributed among disciplines.
The MB Framework begins by restoring that unit. Its initial proposition is deliberately spare:
H = M + B
The equation does not claim that mind and body are independent substances. It identifies two functional positions that cannot be collapsed without losing the problem under investigation. Mental operation permits representation, comparison, anticipation, memory, and the generation of alternatives. Bodily operation supplies location, energetic dependence, vulnerability, movement, physical exclusivity, and the irreversible occupation of time. The theoretical problem does not arise from duality alone. It arises when the representational range of M exceeds the realizable sequence of B under a temporal field that cannot be expanded.
2. The method of constrained emergence
The MB method is a controlled reconstruction. It removes accumulated social concepts, holds a restricted set of conditions constant, and introduces additional variables sequentially. At each stage it asks two questions: what new conflict becomes possible, and what function becomes necessary to govern it? The method is neither a literal history of the first human nor a claim about the chronological evolution of every social institution. It is a thought experiment designed to isolate variables and expose assumptions concealed by familiarity.
The sequence is therefore diagnostic rather than historical. Remove, isolate, reintroduce, compare, and locate are its principal operations. Emergence means the first analytical layer at which the enabling conditions for a phenomenon are present. It does not mean that the phenomenon first appeared at a corresponding moment in human history. If L₁, L₂, …, Lₙ denote successively enriched analytical layers, the diagnostic location of phenomenon X may be represented as:
L(X) = min {Lᵢ : the enabling conditions for X are present at Lᵢ}
This function does not claim that X has one historical cause. It identifies the earliest position within the model at which the possibility of X becomes analytically available without importing the phenomenon itself as an explanation. The framework then maps possible sites of friction across attentional admission, interpretation, authorization, bodily mobilization, sustained allocation, interpersonal coordination, and the surrounding execution environment. It does not presume that a breakdown exists, that one site is its cause, or that the first visible symptom is the correct diagnostic location.
Its governing rule is strict:
No later construct may explain an earlier stage before the conditions of its existence have been established.
Trust cannot explain the first cooperative act if trust is one of the phenomena to be reconstructed. Obligation cannot explain compliance before a standing claim, reliance, or sanction has been introduced. Society cannot explain the first relation if society is the result under examination. Bracketing these concepts does not deny their biological, affective, or historical dimensions. It prevents them from functioning as terminal explanations.
The starting point is not an absolute first principle. The model does not derive planetary rotation, metabolism, or consciousness from more elementary physics. It adopts a minimal generative baseline: a terrestrial environment exists; temporal succession exists; a living body generates recurrent requirements; and a mind can perceive, retain, and modify its relation to experience. Any accepted condition may later be decomposed through the same method, but the model does not require infinite regression before it can begin.
3. The Given Frame
Before any particular human enters the world, an antecedent order is already in operation. Earth, its material conditions, and its temporal cycles do not begin with the participant. The individual arrives inside a process that is older than the individual and continues after the individual has left. The model names this containing condition the Given Frame:
F = {E, T}
E denotes the terrestrial environment; T denotes temporal succession and recurrence. Within this frame, the most immediate shared planning interval is the terrestrial day:
Tᴅ = 24 hours
The term Universal Clock is a framework-specific name for this fixed daily field. It is not a cosmological claim that twenty-four hours constitutes universal time, nor a claim that the day is biologically or socially experienced in equivalent ways. It identifies the practical invariance confronting terrestrial human allocation: the interval may be distributed differently, but it cannot be lengthened by the person using it. Seasonal, geographical, circadian, and institutional variation alter the conditions within the field without transferring control of the containing interval to the participant.
Each life is therefore a finite occupancy of an ongoing temporal position. Several people share the same chronological day while receiving separate human-time budgets within it. Two simultaneous humans do not create a forty-eight-hour day; they create up to forty-eight human-hours of embodied occupancy under one twenty-four-hour terrestrial interval. This distinction later becomes decisive for understanding cooperation, duplication, and division of labour.
4. The human equation
The inherited reading of H = M + B is compositional: a human being contains a mind and a body. The MB Framework displaces the emphasis from composition to allocation. The human never exists outside time. Whatever the human contains must be continuously distributed through a field the human did not create and cannot expand.
M names a possibility-generating domain. This does not mean that every mental operation is creative or that possibility is unlimited in a computational sense. It means that a represented possibility can remain available without being physically instantiated. The mind can remember an absent action, simulate alternatives, compare incompatible futures, and retain an unexecuted claim.
B names an actualization-constraining domain. The body occupies a location, depends upon recurrent maintenance, and can instantiate only a restricted physical sequence. A represented possibility becomes materially consequential only when some bodily configuration, movement, or non-movement occupies an interval.
Rᴍ ≫ Rʙ
This expression is structural notation. It states that the range of mentally representable possibilities can exceed the range of physically realizable actions within the same interval. The asymmetry is compatible with embodied cognition, which rejects the treatment of cognition as independent of bodily form and environmental coupling (Shapiro & Spaulding, 2021). The MB distinction does not reinstate a disembodied mind. It isolates the difference between retaining a possibility and materially executing it.
The distinction is retained because collapsing the two positions would remove the precise asymmetry the model must preserve: several incompatible possibilities may remain represented, while only a restricted physical sequence can be instantiated through one body in the same interval. M and B therefore mark different constraints within one embodied system, not separate substances or autonomous agents.
5. The distributed equation
Because H never exists outside the daily field, the framework represents the human as a coupled state distributed across that field:
H(t) = ⟨M(t), B(t)⟩, 0 ≤ t ≤ 24
At every moment, the human occupies both a mental and a bodily state. The two may correspond or diverge. The body may be located at a desk while the mind remains attached to an unrelated claim. The body may care for a child while the mind continues processing unfinished work. A schedule that records bodily location alone therefore does not exhaust human allocation.
Bodily allocation nevertheless partitions the field more strictly. If activities receive durations t₁ through tₙ, then:
Σ tᵢ = 24
Mental allocation does not partition the day in the same clean manner. It can alternate, layer, drift, or remain residually attached to a claim while the body performs another activity. An activity is consequently represented as a triple:
aᵢ = (tᵢ, mᵢ, bᵢ)
Time geography already provides a powerful account of human activity under capability, coupling, and authority constraints in space-time (Hägerstrand, 1970; Dodge & Nelson, 2023). Becker's allocation theory likewise established time as an input to household production rather than an empty background to consumption (Becker, 1965). The MB proposal is narrower in one respect and more internally differentiated in another: it asks how one chronological interval is simultaneously occupied by a bodily state and a potentially divergent mental allocation, and whether their correspondence can itself become an object of governance.
6. Biological recurrence and the first claim
The solitary human does not begin with an unrestricted field. The living body generates recurrent requirements: food, water, sleep, thermal regulation, protection, elimination, recovery, and elementary maintenance. The precise inventory is empirical and revisable. Their structural feature is recurrence. Satisfying hunger once does not abolish hunger; sleeping once does not remove the future requirement for sleep.
Nʙ → Cʙ → Aʙ
A biological need Nᴮ generates a claim Cᴮ when deviation makes continued inaction costly. The claim recruits action Aᴮ directed toward restoring or anticipating a viable state. Homeostatic and allostatic theories already explain regulation through reactive and anticipatory adjustment; allostasis, in particular, treats stability as something achieved through change and emphasizes the brain as interpreter of environmental challenge (McEwen, 2000). The MB Framework does not replace these accounts. It locates their claims inside a larger allocation problem.
Biological recurrence is not merely a subtraction from meaningful life. It is an early generator of movement and learning. Hunger requires search; search produces environmental encounter; encounter produces consequence; and consequence modifies later search. The sequence can be represented as:
Need → movement → encounter → consequence → retention → modified future action
What appears menial is therefore structurally productive. The repeated maintenance of the body supplies the encounters through which distinctions, routes, dangers, tools, and anticipations become available. The body generates recurrent problems; the mind retains and reorganizes the consequences of attempted solutions.
7. Captured time and governable possibility
For analytical purposes, the daily field may be divided according to the claims its intervals primarily serve:
24 = Tʙ + Tʀ
Tᴮ denotes time primarily captured by biological maintenance. Tᴿ denotes time released from immediate maintenance and available for discretionary deployment. This distinction does not imply that the mind is inactive during Tᴮ or that the body disappears during Tᴿ. Hunting, shelter construction, and food preparation require cognition; reflection and creation remain embodied. The categories identify the governing claim on the interval, not the absence of one human component.
Within the MB Framework, the released portion of the field is termed the Real Field (Boujida, 2026). At the solitary stage its deduction is biological; as later stages accumulate standing obligations and dependencies, the deduction widens, and the Real Field becomes the portion of the day that remains after biological minima and Existing Claims have been subtracted. The concept is introduced here in its earliest and narrowest form.
Learning can alter the distribution. A stored resource, improved shelter, reliable tool, or more efficient route can reduce the future duration of a recurring maintenance task:
M → strategy → Tʙ ↓ → Tʀ ↑
This mechanism yields a central MB proposition:
Human development can be understood as the progressive conversion of time captured by recurrent necessity into time available for governable possibility.
The proposition does not reduce development to leisure, nor assume that released time will be well governed. It identifies a change in jurisdiction. The clock remains fixed; the allocation within it becomes more open.
Freedom, in this restricted sense, is not exemption from the clock. It is increased jurisdiction over the allocation of mind and body within it.
The qualification is essential. Time released from one necessity may be captured by another person, institution, debt, role, habit, or unresolved claim. Released time is therefore a necessary but insufficient condition of governable time.
8. The emergence of the governance problem
Neither duality nor time alone creates choice. Choice becomes necessary when multiple claims and possibilities exceed what one body can execute within an ordered interval:
Plurality of claims + bodily exclusivity + finite time → necessary selection
If B(t) is committed to action aᵢ, it cannot simultaneously instantiate an incompatible action aⱼ:
aᵢ(t) ⇒ ¬aⱼ(t)
Physical action is therefore zero-sum within the relevant interval. Executing one incompatible possibility forecloses another use of the same body and time. The point is not that every activity excludes all others. Compatible actions may be layered. The constraint applies wherever material conditions make the candidate actions mutually exclusive.
Non-selection does not escape this allocation. The body remains somewhere, doing something or continuing a default state. Refusing to authorize a course does not preserve the interval for later recovery. It permits an existing, automatic, environmental, or externally imposed allocation to occupy it. Thus:
Non-selection ≠ non-allocation
Bounded-rationality theory already rejects the assumption that agents possess unlimited information and computational capacity (Simon, 1955). Affordance-competition models describe potential actions competing for selection within neural systems (Cisek, 2007). The MB claim is not that selection under constraint is unknown. It is that cognitive constraint, bodily incompatibility, and irreversible personal time should be held within the same unit when explaining why claims require governance.
9. Attention, selection, and self-governance
Attention enters before final choice. Of the possibilities present in an environment or generated internally, only a restricted set becomes operationally available for evaluation. Priority-map accounts similarly describe competition among stimuli or action-relevant representations for attentional selection (Klink et al., 2014; Zelinsky & Bisley, 2015). The MB Framework assigns attention a specific jurisdiction:
Attention governs admission to the limited field of possible action.
This definition does not make attention the default source of failure. Apparent inattention may arise because a finite attentional field is distributed across too many competing claims, each of which may be locally legitimate. In that case, attention is not defective; it is diluted by the architecture of demand. The diagnostic task is to determine whether friction originates in attentional admission itself or upstream in claim proliferation, commitment density, environmental interruption, or the absence of protected allocation.
Admission is not execution. A claim can be noticed without being prioritized, prioritized without being authorized, authorized without mobilizing the body, and initiated without being sustained. The conversion is therefore decomposed provisionally as:
(Cᴵ + Cᴱ) → A → M → Γ → B → aᵢ → O
Cᴵ and Cᴱ denote internally and externally generated claims; A denotes attentional admission; M denotes interpretation and the generation of alternatives; Γ denotes governance; B denotes bodily mobilization; aᵢ denotes the executed action; and O denotes outcome. The sequence is not presented as a settled cognitive architecture. It exposes transitions that terms such as motivation, response, discipline, and willpower frequently compress.
The action-phase literature distinguishes goal deliberation from planning and implementation, while research on implementation intentions demonstrates that forming an intention does not by itself settle its execution (Gollwitzer, 1990; Gollwitzer & Brandstätter, 1997). The MB Framework extends the jurisdiction backward to the genealogy and admission of claims and outward to the bodily and temporal allocation their execution occupies.
Self-governance can now receive a candidate definition: self-governance is the function through which admitted claims are evaluated, authorized or refused, and translated into attempted allocations of mind and body across the fixed temporal field. Governance is present to the extent that allocation is revised in relation to selected priorities, constraints, and consequences. Its absence does not produce non-allocation; it leaves the field to default, automatic, environmental, or externally imposed occupation. Attempted remains deliberate because alignment is never fully commandable. The definition identifies an observable regulatory function without positing an independent inner entity that performs it.
10. Recurrent maintenance and cumulative achievement
The daily equation contains two different temporal logics. Matters of the body remain under the jurisdiction of the twenty-four-hour cycle. Sleep, food, hydration, protection, elimination, and recovery recur. Their satisfaction produces temporary closure, not permanent completion. The body does not finish sleeping, eating, or maintaining itself once and for all. Each new cycle renews claims that must again receive time.
Bodily maintenance: Nʙ(d) → Aʙ(d), repeated for d = 1, 2, …, n
Self-directed achievement operates differently. A book, qualification, body of research, business, learned capacity, or other constructed state is rarely materialized within one complete daily cycle. It is produced incrementally through allocations made across several cycles. Its governing unit is therefore not one day considered in isolation, but a set horizon composed of days:
Tᴳ = n × 24
Tᴳ denotes the temporal horizon assigned to an intended achievement G. Progress is accumulated through allocations xᴳ,d made on successive days:
Pᴳ(n) = xᴳ,₁ + xᴳ,₂ + … + xᴳ,ₙ
The distinction concerns dominant temporal logics rather than mutually exclusive classes of activity. Biological claims recur because the living body must be maintained continuously. Achievement accumulates because the self attempts to move from a present state S₀ to a specified future state S*. Maintenance may nevertheless produce cumulative effects, while achieved states may decay or require recurrent renewal. The distinction identifies the governing temporal structure of the claim, not an absolute separation between maintenance and construction. The future state must be set before progress can be evaluated:
S₀ → S* within Tᴳ
Without S* and Tᴳ, daily effort may occur without a criterion for sufficiency, pace, or completion. The twenty-four-hour field tells the person how much chronological capacity exists today; it does not independently determine how much of a multi-day project must be materialized today. That conversion requires a background calculation.
Required daily allocation ≈ remaining work / remaining feasible cycles
Background Calculation will be developed separately in later articles. Its role is introduced here only to mark the missing operation: it sets the intended state and horizon, subtracts biological minima and existing claims from the available field, and calculates the allocation required across successive cycles. The calculation makes expectation governable. It permits the self to distinguish an impossible timetable from an insufficient allocation and an insufficient allocation from a failure of execution.
The complete temporal problem is therefore not simply the division of one day. It is the relation between recurrent bodily maintenance and cumulative self-directed construction. The body renews its claims every twenty-four hours; the self must preserve a selected direction across those renewals if an achievement is to materialize. Governance operates both within the day and between days.
Self-directed does not mean socially unconditioned or internally pure. It is a provisional diagnostic classification for a trajectory that the person presently authorizes as a selected direction. Its genealogy may include family, institutions, imitation, necessity, or prior commitments. The framework therefore treats self-direction as a claim to be examined through correspondence among authorization, protected allocation, and sustained construction, not as proof that a goal originated independently of the surrounding field.
11. Strategic allocation and temporal solvency
The distinction between recurrence and accumulation changes the object of planning. Daily planning asks how claims can be placed within one cycle. Strategic planning asks whether a selected future state remains constructible across a succession of cycles while biological requirements, commitments, dependencies, and unforeseen demands continue to consume the field.
For day d, the field may be represented provisionally as:
D(d) = B(d) + E(d) + G(d) + U(d)
D(d) denotes the total allocation demanded on day d. B(d) denotes biological maintenance; E(d) denotes Existing Claims generated by prior allocations, dependencies, and standing obligations. At the stage so far reconstructed, these arise from the person’s own previous decisions and environmental dependencies, such as a stored resource that must be maintained or a route that must be renewed; interpersonal commitment is deferred to later derivations. G(d) denotes the allocation protected for a selected self-directed project, and U(d) denotes a minimum adjustment reserve or buffer. The expression makes cumulative demand visible before incompatibility is misdescribed as deficient motivation.
A daily allocation is feasible only if:
D(d) ≤ 24
If D(d) exceeds twenty-four hours, the plan is insolvent at the level of the day. Effort cannot make mutually incompatible allocations jointly executable. Something must be removed, compressed, delegated, displaced, or moved to another cycle.
Forward decisions are especially important because they spend future jurisdiction in advance. A decision made at t₀ can create an Existing Claim against a later field:
C(t₀) → E(tₖ)
As Existing Claims increase, the allocation available for self-directed construction and adjustment contracts:
E(d) ↑ ⇒ G(d) + U(d) ↓
This contraction may remain invisible when forward decisions are evaluated separately. Each can appear reasonable while their cumulative effect eliminates the recurring allocation required by the selected project. A project usually fails by gradual foreclosure before it fails by explicit abandonment.
The Real Field available on day d is:
R(d) = 24 − [B(d) + E(d)]
If a minimum buffer U_d is preserved, the maximum feasible allocation to project G becomes:
Aᴳ(d) = max[0, R(d) − U(d)]
Let Wᴳ denote the remaining embodied work required to move from S₀ to S*. Project feasibility across a horizon of n cycles can then be represented by the provisional function:
Φᴳ(n) = [Aᴳ(1) + Aᴳ(2) + … + Aᴳ(n)] − Wᴳ
The interpretation is direct:
Φᴳ(n) ≥ 0 → feasible under the stated assumptions
Φᴳ(n) < 0 → structurally underallocated
The function does not predict achievement. It predicts structural infeasibility under stated assumptions: when Φᴳ(n) is negative, the selected state cannot be constructed within the specified horizon unless at least one input changes. A non-negative result establishes capacity compatibility, not success. Execution quality, uncertainty, method, health, interruption, and errors of estimation remain outside this initial ruling. Background Calculation will later operationalize Wᴳ, determine feasible cycles, preserve an appropriate buffer, and update the function as claims change.
This establishes temporal solvency. A person is temporally solvent when biological maintenance, Existing Claims, protected self-directed allocation, and adjustment capacity can coexist without depending upon continuous overextension. Collapse is not defined as emotional distress. It is the structural condition in which the active claims on the field cannot be executed together across the relevant horizon.
Temporal solvency extends diagnosis into prospective testing. Before a project is attempted, the framework can ask whether its required allocation can survive the recurrent deductions imposed by bodily maintenance and Existing Claims. It can therefore distinguish a difficult trajectory from an insolvent one. The former may remain feasible under disciplined allocation; the latter is foreclosed by its present structure before motivation or personal character becomes relevant.
The same test supplies an intervention filter. Let intervention I require a daily allocation of time and cognitive or bodily capacity, represented provisionally by Qᴵ(d). Its operational compatibility requires:
Qᴵ(d) ≤ Aᴵ(d) across the required horizon
If the intervention requires capacity that the Real Field cannot supply, it is operationally incompatible with that person in that environment at that time. This ruling does not establish that the intervention is false or universally ineffective. It establishes that recommending it without altering its requirements, the person's Existing Claims, or the surrounding execution environment transfers the burden of incompatibility to the participant. The diagnostic question must therefore precede evaluation of compliance: could this intervention be executed within the field in which it was prescribed?
Internal values enter as priority rules rather than sentiments. A value becomes operational only when it influences selection, receives a protected allocation, and survives long enough to alter the cumulative state:
V → G → Aᵀ → P → S*
V denotes an internal value; G the selected goal through which it is expressed; A_T the allocation protected across time; P cumulative progression; and S* the desired state. A sincerely held value with no recurring allocation remains semantically present but materially inactive. Self-coherence therefore requires sustained correspondence among declared values, selected goals, and the actual allocation of mind and body.
At the solitary stage, the strategic problem is to keep biological viability, Existing Claims, self-directed progression, and adjustment capacity jointly executable. Protecting a project by violating biological minima destabilizes the body through which it must be constructed; permitting Existing Claims to consume the entire Real Field gradually forecloses the project itself. Interpersonal reliability and obligation will enter only after another independently governed human has been introduced. They must then be tested against the same finite architecture.
12. The second human equation
The solitary human supplies the complete individual allocation problem. The next variable is not society but another independently governed unit:
H₁ = M₁ + B₁
H₂ = M₂ + B₂
Both humans occupy the same Given Frame and the same chronological day. Each, however, possesses a separate body, a separate history of encounters, a separate field of attention, and a separate allocation problem. ΔH does not describe a quantity of humanity or an arithmetic addition to one person. It marks the structural changes introduced when another independently governed unit enters the frame:
ΔH: + capacity + need + interpretation + claims + uncertainty
Independent activity may duplicate work, but duplication cannot be presumed inefficient. It may preserve autonomy and reduce vulnerability. Coordination becomes advantageous only when the combined arrangement releases time, increases output, or satisfies claims that separate allocation could not secure as effectively. Conversely, coordination may consume more than it saves. The relation must therefore be allowed at least four outcomes: independence, synergy, interference, and competition.
Two humans also clarify the difference between one shared clock and separate allocations. The day remains twenty-four hours, while the available human occupancy increases to forty-eight human-hours. Whether that expansion becomes collective capacity depends on communication and coordination. No concept of trust is required to state the first problem. Trust, commitment, obligation, and system formation belong to later derivations and must not be inserted before their enabling conditions have been established.
13. Discussion: contribution and jurisdiction
The constituent insights of the MB Framework are not individually unoccupied. Embodied cognition establishes the constitutive relevance of bodily form and environmental coupling. Time geography models capability, coupling, and authority constraints across space-time. Becker formalizes time allocation in household production. Bounded rationality rejects unlimited computation. Allostasis explains anticipatory biological regulation. Affordance competition and priority maps model selection among potential actions. The action-phase literature separates goal choice from implementation. Systems theory examines recurrent organization through distinctions that cannot be reduced to isolated components (Luhmann, 2006). Archer's account of internal conversation examines how structural conditioning is mediated through reflexivity into personal projects (Archer, 2003).
The free-energy principle presents a prominent adjacent claim to a unified account of perception, action, and learning, organized around the minimization of free energy (Friston, 2010). Two differences preserve a candidate MB jurisdiction. Free-energy accounts primarily formalize perception and action through inference and optimization, whereas the MB Framework treats irreversible biographical occupancy and its allocation as the governed quantity. The MB Framework also addresses a different theoretical object: the independent production of claims by differentiated social systems, whose combined outputs converge as an integration burden inside one finite person.
The candidate contribution lies in their ordered reconstruction around one persistent unit: an embodied human whose biological, mental, interpersonal, and institutional claims must acquire access to the same finite execution field. The MB Framework asks whether the coupled allocation of M and B under irreversible time can serve as a common coordinate system without collapsing the distinctions preserved by adjacent disciplines.
Integration is not treated as a contribution merely because several literatures are placed together. The proposed gain is diagnostic: relations ordinarily distributed across separate explanatory domains become comparable against one allocation field, allowing the analysis to locate whether friction arises in claim production, attentional admission, interpretation, authorization, bodily mobilization, sustained allocation, coordination, or the execution environment. The architecture earns jurisdiction only where this relocation changes an explanation, reveals a previously hidden incompatibility, or prevents a downstream symptom from being mistaken for an upstream cause.
That proposal remains bounded. This paper does not demonstrate that the architecture is unprecedented, mathematically complete, or empirically validated. It does not establish that society historically emerged through the proposed sequence. It does not derive trust, emotion, family, or authority. It establishes a diagnostic method and a candidate architecture capable of being compared, challenged, operationalized, refined, and extended.
The framework will justify itself only if it produces explanatory gains. These may include identifying possible sites of friction that broad terms conceal, distinguishing attention from authorization, testing whether an apparent attention problem is instead claim dilution, explaining why non-selection remains an allocation, tracing how present commitments capture future time, or showing how demands produced by differentiated social systems converge as an integration burden inside the finite person. Each proposed relation requires separate literature jurisdiction and, where appropriate, empirical testing.
14. Conclusion
The MB Framework does not begin by asking only what the human contains. It asks how the human unit is continuously distributed across a temporal field that precedes it, contains it, and cannot be expanded. The initial equation H = M + B becomes consequential only when mental possibility, recurrent bodily claims, exclusive physical execution, and irreversible time are considered together.
Under those conditions, attention and governance are not optional virtues. They are functions necessitated by excess: more claims and possibilities exist than one body can materialize within the available interval. The body must occupy a sequence whether selection is explicit or not. The question of self-governance is therefore not whether time will be spent, but which claims will acquire jurisdiction over its materialization.
Diagnosis is the framework's first jurisdiction, but not its terminal use. Once a breakdown has been located, the same accounting architecture can test whether a proposed trajectory or intervention is compatible with the available field. Its prospective force is deliberately asymmetric: it may identify structural impossibility under stated assumptions, but it does not convert feasibility into a prediction of success.
The introduction of a second human changes the problem without changing the clock. Capacity increases, but so do needs, interpretation, claims, and uncertainty. The next stage of the framework is to determine which forms of communication and coordination can legitimately emerge from that configuration before trust, obligation, family, or society are permitted to explain it. The reconstruction proceeds by refusing the convenience of assumed concepts. Its object is not simplicity, but structural integrity.
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© 2026 Meryem Boujida. The MB Framework. All rights reserved.