Proof of Encryption Eliminates MEV, Securing Private Blockchain Transactions ∞ Research

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Briefing

FAIR introduces Proof of Encryption (PoE), a foundational consensus primitive that directly addresses the pervasive issue of Maximal Extractable Value (MEV) and the inherent lack of privacy in public blockchains. This breakthrough mechanism, powered by the BITE Protocol, ensures that all transaction data remains cryptographically sealed throughout the consensus process, only to be decrypted post-finalization. By embedding this commit-then-reveal design at the core consensus layer, FAIR eliminates front-running and censorship, fundamentally altering blockchain architecture to enable a new era of private, fair, and autonomous on-chain coordination for finance, AI, and enterprise.

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Context

Prior to this research, the prevailing theoretical limitation in blockchain architecture centered on the unavoidable transparency of transaction data within public mempools. This visibility created systemic vulnerabilities, primarily manifested as Maximal Extractable Value (MEV), where network participants could exploit transaction ordering for profit, siphoning billions annually and eroding market fairness. Furthermore, the absence of intrinsic privacy rendered sophisticated financial strategies and enterprise-grade workflows unfeasible, trapping trillions in potential capital off-chain due to the exposure of sensitive data.

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Analysis

The core mechanism of FAIR is Proof of Encryption (PoE), a consensus-level innovation that fundamentally redefines transaction processing. Unlike previous approaches that expose transaction data during propagation and validation, PoE, through the BITE Protocol, encrypts the transaction’s destination address and data field prior to its submission to the blockchain. This encryption is achieved using a threshold encryption algorithm, where a supermajority of validator nodes must cooperate to decrypt the transaction only after it has been irreversibly committed to the chain. This two-phase “commit-then-reveal” execution model ensures that no validator, searcher, or bot can view or exploit transaction content before finality, thereby provably eliminating MEV and enabling native privacy for smart contracts and autonomous agents.

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Parameters

Core Concept ∞ Proof of Encryption (PoE)
New System/Protocol ∞ FAIR Blockchain, BITE Protocol
Consensus Mechanism ∞ SKALE Consensus (Asynchronous Binary Byzantine Agreement) with PoE integration
Cryptographic Primitives ∞ Threshold Encryption, BLS Threshold Signatures, Distributed Key Generation (DKG)
Execution Model ∞ Two-phase (Inclusion then Execution) commit-then-reveal
Finality ∞ Single-slot, instant finality
Trusted Execution Environment ∞ Intel® SGX (utilized by validator nodes)
Committee Size (Launch) ∞ 22 validators, with a 15-of-22 signature threshold for supermajority

Outlook

This research lays the groundwork for a transformative shift in blockchain utility, moving beyond mere programmable finance to truly private and fair on-chain operations. In the next 3-5 years, this theory could unlock widespread institutional adoption by providing the necessary privacy and MEV resistance for confidential financial products, secure enterprise workflows, and autonomous AI agents. It opens new avenues for research into fully homomorphic encryption integration within smart contracts, pushing the boundaries of verifiable privacy-preserving computation directly on-chain and at scale, thereby creating a robust foundation for the next generation of decentralized applications.

Proof of Encryption fundamentally rearchitects blockchain security and privacy, establishing a new paradigm where MEV is eradicated at the consensus layer, thereby enabling genuinely fair and confidential digital interactions.

Signal Acquired from ∞ fairchain.ai