DIKE PROTOCOL · WHITEPAPER v2.1

A Framework for Capital-Efficient Chained Prediction Markets

Multiverse-inspired leverage that recycles collateral down conditional universes, unlocking compounded exposures without fresh capital.

Version · 2.1.0
Runtime · ~7 min read
Updated · Nov 2025

Abstract

Abstract. Protocol Synopsis

DIKE operationalizes Multiverse Finance into a programmable loan primitive that reuses collateral across conditional predictions.

Traditional prediction markets strand capital inside each position. DIKE introduces Prediction Chaining: the collateral from a resolved or mark-to-market winning verse backs a protocol loan that fuels the next bet. Because each child inherits risk from its parent, a single unit of staked value can support multiple sequential exposures.

This paper formalizes the mechanism design, detailing the recursive loan schedule, settlement paths, liquidation thresholds, and worked economics of a three-link chain. The result is a composable primitive for building structured prediction products with transparent risk envelopes.

Quick Stats

  • 0.6x

    Reference collateral ratio

  • HR ≥ 1

    Liquidation guardrail

  • 2.91x

    Return in worked example

  • 4.98x

    Max return in simulations

  • 3 links

    Chain depth in case study

Section 1

1. Introduction

Prediction markets aggregate belief but trap capital per position. DIKE reuses that collateral through under-collateralized protocol loans, preserving solvency with deterministic controls.

Capital inefficiency is the dominant drag on prediction market adoption. A user chasing multiple themes must fund each venue separately, idling their bankroll until results finalize. DIKE addresses this deadweight loss by chaining positions. The moment a stake acquires positive equity, a user may borrow against it to seed the next universe, effectively cascading exposure down a deterministic decision tree.

The architecture mirrors Paradigm's Multiverse Finance proposal but adds production-ready logic—tracking loan principal, accruing interest, stress-testing HR, and enforcing DAG constraints so that no child exists without a solvent parent.

Section 2

2. Core Concepts & Terminology

The vocabulary below grounds the rest of the mechanism. Every definition maps to on-chain state the protocol tracks.

Prediction (Verse)

A binary market on a specific event within Paradigm's Multiverse Finance framework. Each verse is conditionally dependent on its parent outcome.

Stake (S)

Capital a participant locks into a prediction. Wins return SiS_i plus profit; losses burn the stake.

Prediction Chain

An ordered sequence P1,P2,,PnP_1, P_2, \ldots, P_n where each child position is funded by a protocol loan collateralized by its parent stake, forming a DAG.

Loan (L)

Capital extended against collateral. For verse PiP_i, the protocol issues Li=rSiL_i = r \cdot S_i which becomes Si+1S_{i+1}.

Collateralization Ratio (r)

Protocol parameter 0<r<10 < r < 1 that caps leverage. Example:r=0.6r = 0.6 unlocks 60% of posted collateral as a loan.

Health Ratio (HR)

Safety metric HR=V1LitextgrossHR = \frac{V_1}{\sum L_i^{\\text{gross}}} comparing the MTM value of the root collateral to total debt.

Section 3

3. Protocol Mechanism

A chain is governed by deterministic formulas for loan sizing, recursive stake propagation, settlement, and liquidation.

3.1 Chain Initiation

A user deposits S1S_1 into the root prediction P1P_1. This stake represents the only exogenous capital in the chain and becomes the collateral base for all downstream loans:

S1=Initial User CapitalS_1 = \text{Initial User Capital}

3.2 Chain Propagation (Leveraging)

Once P1P_1 is live, DIKE extends a loan L1L_1 equal to a fraction rr of the staked value. The loan becomes the stake for the child prediction P2P_2. Recursively:

Li=rSiL_i = r \cdot S_i
Si+1=Li=rSiS_{i+1} = L_i = r \cdot S_i
Si=S1ri1S_i = S_1 \cdot r^{\,i-1}
i=1nSi=S11rn1r\sum_{i=1}^{n} S_i = S_1 \cdot \frac{1 - r^{n}}{1 - r}

The entire stack therefore compounds exposure while remaining deterministically backed by the root capital.

3.3 Position Resolution & Settlement

Settlement happens verse-by-verse. Define the gross loan as principal plus accrued interest:

Ligross=LieρΔtL_i^{\text{gross}} = L_i \cdot e^{\rho \Delta t}

Case A · Child Wins

Winnings repay LitextgrossL_i^{\\text{gross}} immediately. Residual profit becomes withdrawable equity or fresh collateral for future chains.

Case B · Child Loss

Stake Si+1S_{i+1} is forfeited. The protocol seizes LitextgrossL_i^{\\text{gross}} from parent collateral, reducing user equity in PiP_i.

Case C · Full Chain Wins

Every prediction resolves favorably; the user repays all outstanding loans and withdraws S1+textprofitsS_1 + \sum \\text{profits}.

3.4 Liquidation

DIKE monitors the mark-to-market value of the root position V1V_1 relative to the aggregate debt. When the Health Ratio breaches the liquidation threshold, the protocol seizes collateral, repays loans, and collapses the chain.

Ltotalgross=i=1n1LigrossL_{\text{total}}^{\text{gross}} = \sum_{i=1}^{n-1} L_i^{\text{gross}}
HR=V1LtotalgrossHR = \frac{V_1}{L_{\text{total}}^{\text{gross}}}

Example guardrail: liquidate if HR<1HR < 1, ensuring the protocol never carries under-collateralized debt.

Section 4

4. Worked Example

A three-link chain demonstrates leverage recycling, payoff asymmetry, and liquidation sensitivity.

Parameters
  • Initial stake S₁ = $100
  • Collateralization ratio r = 0.6
  • Loan interest ρ = 5% per hop
  • 2x payout for winning predictions
Propagation
  • Loan L₁ = 60 → Stake S₂ = $60
  • Loan L₂ = 36 → Stake S₃ = $36
  • Total deployed capital = $196 backed by $100
Debt Stack
  • Loan principal = $96
  • Gross obligation = 60·1.05 + 36·1.05 = $100.8
  • HR trigger if V₁ < $100.8
All Win Scenario
  • Payouts: $200 + $120 + $72 = $392
  • Net after debt = $291.2
  • Effective return ≈ 2.91x vs 2x siloed
Liquidation Scenario
  • If V₁ = $95, HR = 0.94
  • Protocol seizes S₁, repays $95 toward loans
  • Chain unwinds, children forfeited

Key Takeaway

Recycling collateral via r=0.6r = 0.6 transforms a $100 stake into $196 of total exposure without additional user capital, yielding a 2.91x payoff when all predictions win while retaining deterministic liquidation if the root MTM deteriorates.

Section 5

5. Conclusion

Prediction Chaining turns Multiverse theory into live financial plumbing for capital-efficient speculation.

DIKE delivers a solvency-aware leverage rail for prediction markets. Transparent ratios, deterministic settlement semantics, and chain-level liquidation logic keep the protocol neutral while letting users amplify directional views with a single deposit.

Upcoming iterations extend the primitive with oracle-driven MTM updates, configurable interest curves, and composable vault products layered on top of Prediction Chains.

Section 6

6. References

Primary research underpinning DIKE.