Onchain Atlas

Staking

Users lock up tokens in a contract as collateral or commitment, earning rewards in exchange for skin in the game and giving up the ability to freely move those funds.

Also called: locking · bonding tokens · proof-of-stake staking

What it is

Staking is the act of depositing (locking) tokens into a smart contract for a period of time in exchange for rewards, rights, or both. Depending on the context, staking can secure a blockchain network (proof-of-stake validation), signal commitment to a game or community, back a claim in governance, or simply be a yield product that pays interest for giving up liquidity.

How it works

  1. A user transfers tokens into a staking contract, which locks them — either for a fixed duration, until an unstaking request completes after a cooldown period, or indefinitely until the user chooses to unstake.
  2. In network-security contexts (proof-of-stake), staked tokens back a validator's right to propose and attest to blocks; if the validator misbehaves (double-signs, goes offline), a portion of the stake can be destroyed — "slashed" — as an economic deterrent.
  3. In non-network contexts (games, DAOs, social apps), staking instead usually signals commitment or grants access: staked tokens might weight your governance vote, unlock in-game abilities, or qualify you for rewards distribution.
  4. The protocol distributes rewards to stakers, funded either by new token emissions (inflationary), a share of protocol revenue/fees, or both.
  5. Many designs issue a receipt token (a liquid staking token) representing the staked position, which can itself be traded or used as collateral elsewhere — letting users stay staked while retaining liquidity, at the cost of an extra layer of smart-contract and depeg risk.
  6. When a user wants out, they submit an unstake request; a cooldown/unbonding period (hours to weeks) delays the actual withdrawal, giving the protocol time to prevent instant "stake and immediately dump" behavior or to process slashing before funds leave.

Why designers use it

  • Aligns incentives: participants who have locked capital have "skin in the game" and are economically penalized for bad behavior (via slashing or opportunity cost), reducing attacks and short-term abuse.
  • Reduces circulating token supply and sell pressure by locking tokens, which can stabilize price if the reward rate is sustainable.
  • Provides a clean mechanism to distribute governance weight or protocol revenue to committed, long-term participants rather than passive holders.
  • Underpins the security model of proof-of-stake networks, replacing energy-intensive mining with capital-at-risk as the Sybil-resistance mechanism.

Failure modes

  • If rewards come purely from token emissions rather than real revenue, staking yield is effectively self-dilution — the token supply grows to pay stakers, and price can decline even as "APY" looks attractive.
  • Long unbonding periods create liquidity risk: in a panic (a de-pegging liquid staking token, a hack, a market crash), stakers can be trapped unable to exit for days or weeks while the token price falls.
  • Liquid staking tokens can depeg from the underlying asset under stress, since redemption is throttled by the same unbonding delay even though the derivative trades freely on the open market.
  • Centralization risk: if staking concentrates in a few large validators or pools (common when liquid staking dominates), it can undermine the very decentralization the security model depends on.
  • Slashing conditions are sometimes ambiguous or buggy, occasionally penalizing honest participants for infrastructure issues (downtime, client bugs) rather than actual malice.

What to check before using it

  • Determine whether staking rewards are funded by real protocol revenue or by emissions/dilution, and be transparent about which — this drives whether the "yield" is sustainable.
  • Check unbonding/cooldown periods against realistic stress scenarios: can users get out fast enough in a crisis, and what happens to derivative tokens if they can't?
  • If offering a liquid staking derivative, plan explicitly for depeg scenarios and how redemption arbitrage is supposed to restore the peg.
  • Review slashing conditions for edge cases that could unfairly punish honest, well-intentioned participants due to infrastructure issues rather than malice.
  • Watch for validator/staking-pool concentration and consider mechanisms (caps, delegation incentives) that preserve decentralization as the system scales.

Experiments that used it · 5

Shown oldest first, so you can watch the design evolve.

Civil
A ConsenSys-backed attempt to save journalism with a token-curated registry of ethically-bound newsrooms, whose CVL token sale famously failed and whose registry shut down in 2020.
2018 failed
Axie Infinity
Sky Mavis's monster-battling NFT game that turned play-to-earn into a mass labor market across the Philippines before its dual-token economy hyperinflated and its Ronin bridge suffered a $624M nation-state exploit.
2018 partial success
Roll
Pioneering 'social money' platform that let creators mint fixed-supply ERC-20 social tokens on Ethereum, suffered a $5.7M hot-wallet hack in 2021, and sunset its custodial app in 2025.
2019 technically successful commercially unsuccessful
VaderAI
A Virtuals Protocol AI agent that tried to become the 'BlackRock of the Agentic Economy' via AI-managed investment DAOs with fee-funded token buybacks, then pivoted to embodied-data collection for physical AI after its token collapsed ~98% from its January 2025 peak.
2024 technically successful commercially unsuccessful
Holoworld AI
A Solana-based 'agentic app store' where creators build no-code AI characters, mint them as onchain IP, and fund them through a launchpad — its AVA and HOLO tokens both illustrating the gap between agent-platform narratives and token performance.
2024 ongoing