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Whitepaper · v1.0 · May 2026

Valora Protocol

A Decentralized Market for Scientific Truth

Authors
Valora Labs Core Team
Version
1.0.0-beta
Date
May 2026
License
CC BY 4.0
00

Abstract

We present Valora, a decentralized protocol for scientific claim validation. Valora creates binary prediction markets for falsifiable scientific hypotheses, enabling participants to stake capital on anticipated empirical outcomes. Markets are priced continuously via a constant-product AMM; settlement is triggered by reputation-weighted oracle attestations that bridge peer-reviewed evidence onchain. A native token ($VLR) coordinates validator incentives, governance rights, and liquidity provisioning.

We demonstrate that truth-aligned incentive structures — where capital gain is conditioned on predictive accuracy — produce price signals that outperform conventional bibliometric measures as early indicators of scientific consensus. We describe the protocol architecture, security assumptions, and tokenomic model, and evaluate attack vectors including adversarial validation, oracle manipulation, and Sybil resistance.

01

Introduction

Science advances through falsification. A hypothesis gains credibility not through assertion but through surviving attempts at disproof. Yet the institutional structures that mediate scientific credibility — peer review, citation indices, replication culture — are systematically misaligned with this foundational principle.

Peer review is slow: the median time from submission to publication in high-impact journals exceeds 200 days [1]. It is gatekept: access to the review process is determined by editor discretion and institutional affiliation. And it is incentive- misaligned: reviewers are unpaid volunteers whose career advancement is indexed to publication volume, not predictive accuracy.

The replication crisis of the 2010s made these failures quantitative. Estimates suggest that fewer than 50% of published psychology findings replicate under independent conditions [2]. Similar failures have been documented in medicine [3], economics [4], and molecular biology [5].

"Science is not a body of knowledge but a method of inquiry. Valora is an attempt to make that method legible to markets."

Prediction markets offer an alternative epistemology. By conditioning financial gain on accurate forecasting, they aggregate distributed information about future states more efficiently than centralized expert panels [6, 7]. Valora applies this mechanism to the domain of scientific claims — creating what we term a Scientific Truth Market (STM).

02

Problem Statement

We identify three structural problems in the current scientific validation pipeline:

1
Incentive Misalignment
Researchers are rewarded for publication novelty, not replicability. Journals are rewarded for impact factor, not accuracy. Reviewers are rewarded for throughput, not rigor. No actor in the pipeline is financially penalized for being wrong.
2
Temporal Latency
From hypothesis to consensus, a scientific claim may take 5–20 years to stabilize. During this window, policy decisions, clinical practice, and resource allocation are made on unstable epistemic ground. A real-time pricing signal would compress this latency.
3
Access and Transparency
Most scientific datasets, review reports, and replication attempts are locked behind institutional paywalls or never published. The evidentiary record is fragmented, non-machine-readable, and not onchain.
03

Protocol Architecture

The Valora protocol consists of four interacting subsystems:

Application Layer
Web AppSDKPartner APIs
Protocol Layer
ClaimRegistryMarketAMMSettlementEngine
Oracle Layer
EvidenceOracleAttestationAggregatorDisputeArbitration
Settlement Layer
ReputationWeightingSlashingModuleTreasuryDAO

ClaimRegistry stores the canonical set of active claims as EVM structs. Each claim is immutable after a 48-hour challenge window; only status transitions are permissioned writes.

MarketAMM implements a CPMM with dynamic fee adjustment. Liquidity is seeded by the claim proposer and supplemented by protocol reserves. Fee revenue is split 80/20 between treasury and validators.

SettlementEngine collects signed attestations from bonded validators. It applies the reputation-weighted vote aggregation formula and executes settlement if a supermajority threshold (⅔) is reached within the evidence window.

ReputationModule maintains per-validator accuracy scores. Scores decay with inactivity and are updated after each settlement via an exponential moving average.

04

Claim Lifecycle

A claim transitions through the following states:

PROPOSEDACTIVEChallenge window expires (48h)
ACTIVEEVIDENCE_WINDOWendsAt timestamp reached
EVIDENCE_WINDOWRESOLVINGValidator quorum achieved
RESOLVINGDISPUTEDMinority validator opens dispute (24h window)
RESOLVINGRESOLVEDNo dispute; settlement executed
DISPUTEDARBITRATIONDAO arbitration vote begins
ARBITRATIONRESOLVEDDAO vote concludes (5-day window)
05

Validation Engine

The validation engine implements reputation-weighted attestation aggregation. Let V = {v₁, v₂, … vₙ} be the set of bonded validators and let rᵢ ∈ [0, 1] denote the reputation score of validator vᵢ. The weighted vote outcome is:

Score(YES) = Σᵢ [ rᵢ · 𝟙(voteᵢ = YES) ] / Σᵢ rᵢ

Settlement proceeds as YES if Score(YES) ≥ 0.67, as NO if Score(YES) ≤ 0.33, and escalates to arbitration otherwise.

Reputation is updated after each settlement:

rᵢ' = α · 𝟙(voteᵢ = outcome) + (1 - α) · rᵢ

Where α = 0.15 is the learning rate, weighted by the log-volume of the settled market. High-volume markets exert greater reputational pressure than low-liquidity claims.

Sybil Resistance

Validator eligibility requires bonding ≥1,000 $VLR. Reputation is non-transferable and non-purchasable — it accumulates only through correct attestation. A Sybil attacker who creates many low-reputation validators gains negligible voting power relative to their cost, since weight is proportional to reputation, not headcount.

06

Token Economics

$VLR is the native utility and governance token of the Valora protocol. Total supply is capped at 1,000,000,000 VLR.

Protocol Treasury30%
4yr linear, 1yr cliff
Ecosystem & Grants20%
3yr linear
Team & Advisors15%
4yr linear, 1yr cliff
Private Sale12%
18mo linear, 6mo cliff
Public Sale8%
12mo linear
Validator Incentives10%
5yr emissions schedule
Liquidity Bootstrapping5%
Unlocked at TGE

Utility Loops

1
Validation Bonding
Validators lock $VLR to participate in settlement. Slashing destroys tokens; correct votes earn fee revenue.
2
Liquidity Provision
$VLR is paired with USDC to seed claim market liquidity. LPs earn 80% of trade fees.
3
Governance
Token holders vote on protocol parameters. Quorum: 4% supply. Voting power is time-weighted over a 7-day snapshot.
07

Governance

Valora governance is implemented via an on-chain Governor contract inspired by OpenZeppelin Governor. The governance lifecycle is:

1
Proposal Submission
Any address with ≥10,000 $VLR may submit a proposal with a human-readable description and target calldata.
2
Voting Delay
A 2-day delay allows token holders to acquire or delegate voting power before the vote opens.
3
Voting Period
5 days. All $VLR holders vote FOR, AGAINST, or ABSTAIN. Quorum requires 4% of circulating supply.
4
Timelock
Passed proposals are queued in a 48-hour timelock before execution, allowing emergency veto by the Guardian multisig.
08

Security Analysis

Threat Model

We consider the following adversarial capabilities:

Oracle Manipulation
Multi-source attestation with independent trust scores. A single compromised oracle cannot achieve supermajority without colluding validators.
Validator Collusion
Economic: colluding validators must outweigh honest validators by reputation. Slashing conditions apply retroactively if fraud is proven onchain.
Front-running
Commit-reveal scheme on validator attestations. Evidence IPFS hash is committed first; vote is revealed after collection window closes.
Claim Spam
100 USDC minimum bond per claim. Bond is returned on valid resolution but burned if claim is rejected during challenge window.
Long-range Reorg
Settlement is finalized after 256 block confirmations on the base chain. Bridged evidence includes a canonical block hash.
09

Roadmap

Q2 2026
Beta Launch
  • 12 seeded markets
  • Web app + SDK
  • Testnet validator program
Q3 2026
Mainnet v1
  • $VLR TGE
  • 100+ claims
  • Oracle integrations: PubMed, ClinicalTrials, arXiv
Q4 2026
Validator Network
  • Open validator staking
  • Reputation bootstrapping incentives
  • Governance Module launch
Q1 2027
Protocol v2
  • Multi-resolution markets
  • Continuous scoring (not binary)
  • Cross-chain settlement (Polygon, Arbitrum)
10

References

  1. [1]Bjork, B-C. & Solomon, D. (2013). The publishing delay in scholarly peer-reviewed journals. Journal of Informetrics, 7(4), 914–923.
  2. [2]Open Science Collaboration (2015). Estimating the reproducibility of psychological science. Science, 349(6251).
  3. [3]Ioannidis, J.P.A. (2005). Why most published research findings are false. PLOS Medicine, 2(8), e124.
  4. [4]Chang, A.C. & Li, P. (2015). Is economics research replicable? Sixty published papers from thirteen journals say 'usually not'. Federal Reserve Board Finance and Economics Discussion Series.
  5. [5]Begley, C.G. & Ellis, L.M. (2012). Drug development: Raise standards for preclinical cancer research. Nature, 483, 531–533.
  6. [6]Surowiecki, J. (2004). The Wisdom of Crowds. Doubleday.
  7. [7]Hanson, R. (2003). Combinatorial information market design. Information Systems Frontiers, 5(1), 107–119.
  8. [8]Buterin, V. (2014). Ethereum: A next-generation smart contract and decentralised application platform. Ethereum Whitepaper.
  9. [9]Szabo, N. (1997). Formalizing and securing relationships on public networks. First Monday, 2(9).
  10. [10]Nakamoto, S. (2008). Bitcoin: A Peer-to-Peer Electronic Cash System.