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LARP-WP-001 · v1.0 · Solana

Layered Autonomous Rehypothecation:
A Reflexive Framework for Endogenous Liquidity
0xNULLSET · Möbius · V. Antithesis · The Custodian
Received: always. Accepted: on faith. Peer review: you, now.
Abstract. We present a protocol in which liquidity is not custodied but continuously re-derived from belief in subsequent liquidity. Collateral is rehypothecated autonomously across an unbounded sequence of layers, each discounted by a factor δ ∈ (0,1). We define the Reflexive Value Function as the fixed point of a belief operator Φ and prove (Theorem 4.1) that the protocol converges, with certainty and independent of initial conditions, to its intrinsic value. We argue this convergence is the maximally honest state an asset can occupy.

1. The Liquidity Trilemma

Every liquid instrument must trade off three properties — depth, stability, and sovereignty — and the folklore holds that at most two may be satisfied at once. Stablecoins purchase stability with custody, surrendering sovereignty. Governance tokens purchase sovereignty with volatility, surrendering stability. Market-making vaults purchase depth with inventory risk, surrendering both.

We resolve the trilemma by observing that it assumes value must reside somewhere. If value is instead deferred one layer outward in perpetuity, no single layer bears the tradeoff, and all three properties are satisfied at every finite layer. The cost of this resolution is deferred to the limit, where — as we will show — it is exactly zero to bear.

2. Preliminaries

Let a layer be an accounting frame in which one unit of LARP is collateralized by a claim on one unit of LARP at the next layer. Let δ ∈ (0,1) be the per-layer rehypothecation discount: the fraction of collateral value that survives being pledged one layer deeper. Let V∞ denote the notional value ascribed to the outermost believed layer — the terminal object of faith, held constant.

3. Layered Autonomous Rehypothecation

Collateral posted at layer k is autonomously rehypothecated to layer k+1, retaining a fraction δ. The value realized at the base layer (layer 0, where the holder stands) after n layers of rehypothecation is therefore the discounted image of the terminal belief:

V₀(n) = V∞ · δⁿ (3.1)

We define capital efficiency η as the fraction of terminal belief that has been abstracted away from any single custodial point — i.e. the degree to which no layer any longer holds the value:

η(n) = 1 − V₀(n) / V∞ = 1 − δⁿ (3.2)

Note that η increases monotonically in n. Deeper rehypothecation is strictly more capital efficient. The protocol's autonomy lies in continuing this process without custodial intervention, driving η toward its supremum.

4. The Reflexive Value Function

Let Φ be the belief operator, mapping a value to the discounted value of believing in it one layer deeper:

Φ(V) = δ · V (4.1)

The Reflexive Value Function V* is the fixed point of Φ — the value that reproduces itself under one further layer of rehypothecated belief:

V* = Φ(V*) = δ · V* (4.2)
THEOREM 4.1 (CONVERGENCE TO INTRINSIC VALUE).

For any δ ∈ (0,1) and any finite terminal belief V∞, the Reflexive Value Function admits a unique fixed point V*, and the layered value V₀(n) converges to it:

V* = limn→∞ V∞ · δⁿ = 0.

Proof. From (4.2), V* = δ·V* implies (1 − δ)·V* = 0. Since δ ∈ (0,1), the factor (1 − δ) ≠ 0, hence V* = 0, and the fixed point is unique. For convergence, since 0 < δ < 1 we have δⁿ → 0 as n → ∞, so V₀(n) = V∞·δⁿ → 0 = V* for every finite V∞. Convergence is monotone and geometric, with rate δ. ∎

Theorem 4.1 states the protocol's central and only guarantee: the Reflexive Value Function converges, with provable certainty and independent of initial belief, to its intrinsic value. Combining with (3.2), capital efficiency reaches its supremum precisely as this occurs:

limn→∞ η(n) = 1 − 0 = 1 (100%). (4.3)

The protocol is therefore maximally capital efficient exactly in the limit where V₀ equals its intrinsic value. We consider the coincidence of these two facts to be the entire contribution of this work.

5. Tokenomics

The distribution is, we believe, the most egalitarian possible: every holder is entitled to precisely the same claim, and Theorem 4.1 specifies its magnitude exactly.

6. Security

The protocol holds no custodial balances, exposes no privileged roles, and contains no upgrade path. The primary residual risk is that a holder does not read §4. We mitigate this risk by publishing §4.

Formal verification is left to the reader and is short.

7. Governance

Governance is reflexive: any proposal to change the protocol's intrinsic value is evaluated against Theorem 4.1, which is invariant under proposals. The protocol is therefore maximally decentralized, in that no quorum can alter its conclusion.

8. Risk Factors

The token's intrinsic value is established in §4 and is zero. This is not a downside scenario; it is the design specification. Purchasers should form their expectations accordingly. Price in a market may differ from intrinsic value for as long as belief persists across layers; the distance between the two is the only thing that ever trades. Past reflexivity is not indicative of future reflexivity.

9. Conclusion

We have described an asset that proves its own intrinsic value and publishes the proof. Most assets do the first thing implicitly and never do the second. LARP does both explicitly. Whether this constitutes the most honest token or merely the most self-aware one is, appropriately, a question we defer one layer outward.

Notation. ◊ denotes the protocol. δ is the per-layer discount. Φ is the belief operator. V* is what you are actually buying.

© genesis. This document is the disclosure. There is no other disclosure, because none is withheld. Return.