Paper: arXiv 2401.04521
Authors: Arman Abgaryan, Utkarsh Sharma, Joshua Tobkin
Abstract
The Proof of Efficient Liquidity (PoEL) protocol, designed for specialised Proof of Stake (PoS) consensus-based blockchains that incorporate intrinsic DeFi applications, aims to support sustainable liquidity bootstrapping and network security. This concept seeks to efficiently utilise budgeted staking rewards to attract and sustain liquidity through a risk-structuring engine and incentive allocation strategy, both of which are designed to maximise capital efficiency. The proposed protocol serves the dual objective of: (i) capital creation by attracting risk capital efficiently and maximising its operational utility for intrinsic DeFi applications, thereby asserting sustainability; and (ii) enhancing the adopting blockchain network’s economic security by augmenting their staking (PoS) mechanism with a harmonious layer seeking to attract a diversity of digital assets. Finally, the protocol’s conceptual framework, as detailed in the appendix, is extended to encompass service fee credits. This extension capitalises on the network’s auxiliary services to disperse incentives and attract liquidity, ensuring the network achieves and maintains the critical usage threshold essential for its sustained operational viability and progressive growth.
Complexity vs Empirical Score
- Math Complexity: 3.5/10
- Empirical Rigor: 2.5/10
- Quadrant: Philosophers — conceptual discussion, limited math and data
Why this score: The paper introduces a novel, highly creative economic mechanism for dual-purpose staking in DeFi-focused PoS blockchains. However, as a conceptual framework paper, it lacks empirical validation, backtesting, or concrete statistical/mathematical proofs to back up its theoretical efficiency claims.
Research Flowchart
flowchart TD
A["Research Goal: Balance PoS Network Security & Intrinsic DeFi Liquidity Capital Efficiency"] --> B["Inputs: Staking Reward Budgets, Asset Diversity, & Auxiliary Service Fees"]
B --> C["Core Methodology: Design Proof of Efficient Liquidity (PoEL) Protocol"]
C --> D["Risk-Structuring Engine & Incentive Allocation"]
C --> E["Service Fee Credits Integration (Appendix)"]
D & E --> F["Outcomes: Maximized Capital Efficiency, Enhanced PoS Security, & Sustainable Network Growth"]
Cited References (38)
- Balancer Liquidity Mining
- Curve Understanding Gauges
- Liquidity Mining
- Compound
- AAVE
- Benqi
- Alchemix
- Uniswap
and 30 more
- Sushiswap
- Curve
- Balancer
- Nexus Mutual
- InsurAce
- Perpetual Protocol
- dYdX
- Synthetix
- IDEX
- Thorchain
- Osmosis
- Raydium
- Qasar
- Towards understanding governance tokens in liquidity mining: a case study of decentralized exchanges (2023)
- Sok: Yield aggregators in defi (2022)
- Uniswap Liquidity Mining Analysis
- Superfluid Staking
- Liquidity provider incentives in fragmented securities markets (2021)
- How do designated market makers create value for small-caps? (2013)
- Age and market capitalization drive large price variations of cryptocurrencies — → 2302.12319
- Market maker incentives and market efficiency: Evidence from the Australian ETF market (2013)
- On liquidity mining for Uniswap v3 (2021) — link
- Liquidity Mining: A marketplace-based approach to market maker compensation (2019)
- Dragonfly managing partner: Balancer’s and FCoin’s liquidity mining programs are “very different
- Bella
- FCoin Crypto Exchange Draws Fire for Controversial Business Model
- Understanding digital bubbles amidst the COVID-19 pandemic: Evidence from DeFi and NFTs (2022)
- On the coherence of expected shortfall (2002)
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- Network effects and the adoption of new technology: evidence from the US telecommunications industry (1998)
1 of 38 cited works are in the corpus; resolved via arXiv source bundles, Semantic Scholar and OpenAlex. Corpus-wide: 2518 linked papers.