Primitives / Staking
Consensus Blockchain Primitive

Staking

Locking cryptocurrency to participate in network security and earn rewards

What is Staking?

Staking is the process of locking cryptocurrency to participate in securing a Proof of Stake blockchain and earn rewards. By committing capital as collateral, stakers demonstrate their investment in the network’s success—if they behave honestly, they earn rewards; if they misbehave, they lose their stake.

Staking has become the primary way most modern blockchains achieve consensus, replacing the energy-intensive mining of Proof of Work with capital-efficient token locking.

How Staking Works

Basic Process

  1. Lock Tokens: Deposit in staking contract
  2. Participate: Validate or delegate
  3. Earn Rewards: Receive portion of new tokens
  4. Risk Slashing: Misbehavior penalized
  5. Unstake: Withdraw after unbonding period

Direct vs. Delegated

Two participation models:

Direct Staking (Validation):

  • Run validator node
  • Higher rewards
  • Higher responsibility
  • Technical requirements

Delegated Staking:

  • Delegate to validators
  • Lower rewards (validator commission)
  • No technical requirements
  • Most common approach

Staking Economics

Rewards

Where yields come from:

  • New Token Issuance: Inflation distributed to stakers
  • Transaction Fees: Portion goes to validators
  • MEV: Maximal extractable value sharing
  • Tips: Priority fee payments

Typical Yields

Returns vary by network:

NetworkTypical APY
Ethereum3-5%
Solana6-8%
Cosmos15-20%
Polkadot12-15%

Note: APY in native tokens, not USD

Inflation Considerations

Real vs. nominal returns:

  • High staking APY often means high inflation
  • Non-stakers diluted
  • Real yield = Staking APY - Inflation Rate
  • Compare networks carefully

Staking Risks

Slashing

Penalty for misbehavior:

  • Double signing (validating conflicting blocks)
  • Extended downtime
  • Other protocol-specific violations
  • Portion of stake destroyed

Unbonding Periods

Withdrawal delays:

  • Tokens locked during unstaking
  • Typical: 7-28 days
  • Can’t sell during volatility
  • Security feature, not bug

Validator Risk

Choosing poorly:

  • Validator gets slashed, you lose too
  • Validator takes high commission
  • Validator goes offline (no rewards)
  • Due diligence important

Opportunity Cost

Capital locked:

  • Can’t use in DeFi
  • Can’t sell easily
  • Liquid staking addresses this
  • Consider alternatives

Staking Methods

Native Staking

Direct protocol participation:

  • Maximum decentralization contribution
  • Full reward rate
  • Unbonding periods apply
  • Requires research/management

Exchange Staking

Centralized convenience:

  • Exchanges stake on your behalf
  • Simple UI
  • Lower rewards (exchange takes cut)
  • Counterparty risk
  • Centralization concerns

Liquid Staking

Best of both worlds:

  • Receive liquid token (stETH, etc.)
  • Use in DeFi while staking
  • Protocol takes small fee
  • Additional smart contract risk
  • Growing rapidly

Staking Pools

Collective staking:

  • Pool resources with others
  • Meet minimum requirements together
  • Share rewards proportionally
  • Lower barrier to entry

Network Comparison

Ethereum

  • 32 ETH minimum (solo)
  • ~4% APY
  • Liquid staking popular (Lido)
  • DVT emerging

Solana

  • No minimum (delegated)
  • ~7% APY
  • Many validators
  • Liquid staking growing

Cosmos

  • Varies by chain
  • ~15-20% APY
  • 21-day unbonding
  • IBC ecosystem

Polkadot

  • NPoS mechanism
  • Era-based rewards
  • Nomination pools
  • Complex but fair

Liquid Staking Deep Dive

How It Works

  1. Deposit native token (ETH)
  2. Receive liquid token (stETH)
  3. Liquid token accrues rewards
  4. Use liquid token in DeFi
  5. Redeem when ready

Major Protocols

  • Lido: Largest, multi-chain
  • Rocket Pool: Decentralized
  • Coinbase: cbETH
  • Frax: frxETH
  • Jito: Solana focus

Benefits

Why liquid stake:

  • Capital efficiency
  • DeFi composability
  • No lock-up (secondary market)
  • Professional operation

Risks

Additional considerations:

  • Smart contract risk
  • Depeg risk
  • Centralization (some protocols)
  • Slashing still applies

Staking Best Practices

Choosing Validators

Evaluation criteria:

  • Uptime history
  • Commission rate
  • Self-stake (skin in game)
  • Community reputation
  • Geographic diversity

Diversification

Risk management:

  • Stake across multiple validators
  • Consider multiple protocols
  • Don’t overconcentrate
  • Balance yield vs. risk

Monitoring

Ongoing management:

  • Check validator performance
  • Review commission changes
  • Claim/compound rewards
  • Rebalance periodically

The Future of Staking

Distributed Validators

Emerging technology:

  • Split keys across operators
  • No single point of failure
  • SSV, Obol leading
  • Increased resilience

Restaking

Capital efficiency:

  • Stake once, secure multiple networks
  • EigenLayer pioneering
  • Additional yield opportunities
  • New risk considerations

Single Slot Finality

Research direction:

  • Faster finality
  • Simpler staking
  • Better UX
  • Active development

Conclusion

Staking is fundamental to modern blockchain security, replacing energy-intensive mining with capital-efficient token locking. Understanding staking options—from direct validation to liquid staking—helps users participate meaningfully in network security while earning sustainable yields. As the technology evolves with innovations like restaking and distributed validators, staking becomes increasingly sophisticated and accessible.

Chains Using Staking

1 blockchain implement this primitive