Farming rewards are cryptocurrency incentives earned by supplying digital assets to decentralized finance protocols or other blockchain-based reward programs.
The activity of moving assets into these programs is commonly called yield farming or liquidity farming.
A participant may provide liquidity, lend tokens, deposit assets into a vault, stake a liquidity position, or support another protocol function.
In return, the participant may receive trading fees, borrower interest, newly issued reward tokens, protocol revenue, or a combination of these benefits.
Farming rewards are normally calculated according to the amount deposited, the length of participation, the program’s reward rate, and the participant’s share of the eligible pool.
The rewards are not guaranteed interest from a bank account.
They depend on smart contracts, token prices, market activity, protocol solvency, liquidity conditions, and the rules of the farming program.
A displayed farming yield can change rapidly as deposits enter or leave the pool.
The value of the deposited assets and reward tokens can also fall by more than the rewards earned.
Farming rewards should therefore be evaluated as variable-risk crypto returns rather than fixed or risk-free income.
A farming program begins with a smart contract or protocol that needs users to provide assets or perform a useful economic function.
The participant connects a compatible wallet and approves the relevant smart contract to use a specified token amount.
The participant then deposits tokens, adds liquidity, supplies collateral, or receives a position token representing the deposit.
The farming contract records the participant’s eligible balance.
Rewards accumulate according to the program’s formula.
The participant may claim the rewards periodically or receive them automatically when withdrawing the position.
Some vaults automatically reinvest earned rewards instead of sending them directly to the participant.
The farming position ends when the participant withdraws the deposited assets, removes liquidity, redeems vault shares, or leaves the incentive program.
Withdrawal can be immediate, delayed, limited, or subject to an early-exit fee depending on the contract rules.
A basic reward pool distributes a fixed quantity of tokens among participants according to their share of the total eligible deposits.
The simplified formula is:
Assume a farm distributes 10,000 reward tokens during one week.
A participant supplies 5,000 eligible tokens to a pool containing 100,000 eligible tokens in total.
The participant controls 5% of the pool.
The simplified weekly farming reward is 500 reward tokens.
The actual result may differ when the participant joins or leaves during the period, other users change their balances, multipliers apply, or rewards are distributed block by block.
Farming rewards can come from economic activity, token issuance, protocol reserves, or several sources at the same time.
Understanding the source is essential because different sources have different levels of sustainability.
A liquidity pool can charge traders a fee when they exchange one token for another.
Some or all of that fee may be allocated to liquidity providers.
Trading-fee rewards depend on transaction volume, the fee percentage, and the participant’s share of active liquidity.
High trading volume can increase fee income, while quiet markets can reduce it.
A lending pool may pay suppliers using interest charged to borrowers.
The rate usually rises when a larger percentage of the available assets is borrowed.
It can fall when liquidity is abundant or borrowing demand decreases.
The Ethereum overview of decentralized finance explains that pooled lending systems allow borrowers to access assets supplied through liquidity pools.
A protocol may create or release reward tokens according to a scheduled emission program.
These tokens can encourage users to deposit assets during the protocol’s growth stage.
Emission rewards create token dilution unless another mechanism offsets the new supply.
A high token reward rate can be unsustainable when demand for the reward token does not grow with its supply.
A protocol may direct part of its revenue to eligible farming participants.
The revenue can come from borrowing fees, trading fees, liquidation charges, service fees, or other onchain activity.
Revenue-backed rewards may be more economically connected to actual use than rewards funded only through token inflation.
They still depend on the protocol’s revenue definition, expenses, governance, and distribution rules.
A yield vault can deploy deposited assets across one or more strategies.
The strategy may lend assets, supply liquidity, collect fees, harvest token incentives, or rebalance positions.
Returns can appear through an increasing vault share price rather than a separate reward-token payment.
The ERC-4626 tokenized vault standard defines a common interface for vault shares representing claims on an underlying token.
Yield farming is the practice of placing cryptocurrency into decentralized protocols to seek variable returns.
A farmer may move assets between opportunities based on reward rates, token prices, risks, fees, and lockup conditions.
Some strategies involve one deposit and one reward source.
Others combine lending, borrowing, liquidity provision, staking, vaults, and token incentives.
The term farming reflects the idea of allocating capital to generate a recurring crop of rewards.
The analogy should not imply that returns are stable or predictable.
A farming strategy can lose principal because of token depreciation, impermanent loss, liquidations, smart contract exploits, or failed economic design.
Liquidity mining is a form of yield farming in which a protocol distributes tokens to users who provide liquidity.
The liquidity may support token trading, lending, borrowing, stablecoin conversion, derivatives, or another onchain market.
Participants can earn both the underlying market fees and additional incentive tokens.
The extra incentives are often used to attract early liquidity and improve the protocol’s user experience.
Liquidity mining can become less attractive when emission rates decline or when more participants divide the same reward pool.
Yield farming is the broader category, while liquidity mining specifically emphasizes rewards for supplying liquidity.
A liquidity pool is a collection of cryptocurrency held by a smart contract for use by a decentralized financial application.
In a trading pool, users can exchange assets against the pool rather than waiting for a specific buyer or seller.
In a lending pool, borrowers can access assets supplied by lenders under the protocol’s collateral rules.
Liquidity providers receive a proportional claim on the pool or another accounting record showing their position.
The Ethereum glossary definition of liquidity explains that asset holders can deposit funds into decentralized liquidity pools in exchange for rewards.
A liquidity pool does not guarantee that deposited assets retain their original value.
An LP token is a token or position record representing a liquidity provider’s share of a pool.
It may entitle the holder to withdraw a proportional amount of the pool’s assets.
Its value changes as trading activity, fees, deposits, withdrawals, and asset prices change.
Some farming programs require users to stake LP tokens in a second contract to receive additional rewards.
While the LP token is staked, the farming contract may hold it on behalf of the user.
Modern concentrated-liquidity systems may represent positions through unique tokens rather than identical fungible LP tokens.
Users should understand what the position token controls before transferring or approving it.
Trading-fee rewards are generated when users trade against a liquidity pool.
The fee assigned to liquidity providers is added to pool reserves, credited to position accounting, or made separately claimable.
A participant’s earnings depend on how much liquidity the participant supplies relative to other providers.
In concentrated-liquidity systems, earnings can also depend on whether the position’s selected price range is active.
A narrow range can earn a larger percentage of fees while the price remains inside it.
The position may stop earning trading fees when the market price moves outside the selected range.
High fees do not automatically mean a profitable position because changes in the pool’s asset composition can create larger losses.
Lending rewards are earned by supplying assets that other users can borrow.
Borrowers normally provide collateral and pay a variable or fixed rate under the protocol’s rules.
A portion of the interest can be credited to suppliers.
The supplier may receive a receipt token whose exchange rate increases as interest accumulates.
Some lending farms add incentive-token emissions on top of borrower-funded interest.
The displayed yield should be separated into base lending interest and promotional incentives.
Lenders face smart contract risk, borrower liquidation risk, collateral risk, oracle risk, liquidity shortages, and possible protocol insolvency.
Some protocols distribute incentive tokens to borrowers as well as lenders.
A borrower can therefore pay interest while receiving farming rewards.
The net borrowing cost is approximately:
A displayed negative net rate may suggest that reward value exceeds borrowing cost.
This situation can reverse quickly when reward-token prices fall or incentive rates change.
Borrowing to farm also introduces liquidation risk because the collateral value may fall below the required threshold.
A protocol can require liquidity providers to deposit their position tokens into a reward contract.
This process is often called staking the LP position.
The reward contract tracks how much eligible liquidity each participant has supplied.
It then distributes incentive tokens according to time, balance, pool weight, or another formula.
The participant continues to face the economic risks of the underlying liquidity pool.
Staking the position adds another smart contract and therefore another layer of technical risk.
A yield vault pools user deposits and applies a defined or actively managed strategy.
The depositor receives vault shares representing a proportional claim on the underlying assets.
Rewards may be harvested, exchanged, and reinvested automatically.
This process is called auto-compounding.
ERC-4626 standardizes core functions for depositing assets, minting shares, withdrawing assets, redeeming shares, and estimating conversions.
The standard improves interoperability but does not define a safe investment strategy.
A vault can still lose money because of underlying protocol failures, bad trades, poor management, incorrect accounting, or malicious upgrades.
Reward distribution may occur continuously, per block, per second, per epoch, or after a governance-defined period.
A contract can update a cumulative reward index whenever a user deposits, withdraws, or claims.
Each participant’s accrued reward is calculated from the change in that index and the participant’s eligible balance.
Another design may take periodic balance snapshots.
Some programs use allocation points that direct different percentages of total emissions to different pools.
A governance process may increase or reduce those allocations.
Users should verify whether rewards begin immediately, require a minimum duration, or stop before the advertised program end date.
APR stands for annual percentage rate.
It expresses a simple annualized return without assuming that rewards are reinvested repeatedly.
The simplified formula is:
Assume a farming position worth $10,000 earns rewards currently valued at $1,200 over one year.
The simplified APR is 12%.
APR is an estimate because the reward rate, token price, deposit value, pool size, and fee income can change.
APY stands for annual percentage yield.
It estimates the annual return when earnings are reinvested and compound over time.
The simplified formula is:
A 12% APR compounded monthly produces a theoretical APY of approximately 12.68%.
The calculation assumes the same rate remains available throughout the year.
Real farming rates rarely remain constant for an entire year.
Gas costs, performance fees, price changes, slippage, and failed harvests can make realized APY lower than the displayed estimate.
A farming program can display a high APY when reward emissions are large relative to the current value deposited in the pool.
A new pool with very little liquidity can show a particularly high annualized rate.
The rate can fall quickly as more participants deposit assets and divide the rewards.
Reward tokens may also trade at a high initial price because only a small supply is circulating.
Continued emissions can increase selling pressure and lower the token price.
Annualizing rewards earned over a short period can produce a dramatic percentage that is unlikely to continue for a full year.
An extremely high APY should be treated as a signal to examine reward sustainability and risk rather than as a guaranteed outcome.
Nominal farming rewards measure the number or stated market value of tokens earned.
Real return considers changes in the value of the original assets, reward tokens, fees, inflation, and exit costs.
A farmer can earn 20% more tokens while losing money in fiat terms if the tokens fall sharply in price.
The simplified net-return calculation is:
Costs can include blockchain gas, trading fees, deposit fees, withdrawal fees, performance fees, slippage, borrowing interest, and taxes.
Auto-compounding is the automatic reinvestment of farming rewards into the underlying strategy.
A vault or automation contract collects the rewards.
It may exchange those rewards for the assets required by the strategy.
It then adds the assets back to the farming position.
Compounding can increase returns when the harvested value is greater than transaction costs and strategy fees.
It also exposes the user to the vault’s trading logic, swap routes, slippage settings, external integrations, and administrative controls.
Auto-compounding does not prevent the underlying farming rate from falling.
Some farming contracts require participants to submit a claim transaction.
The participant pays the blockchain fee for that transaction.
Claiming too frequently can cause transaction costs to consume a large portion of the reward.
Other systems increase a receipt token’s redemption value automatically.
The user receives the reward by redeeming the receipt token later.
A third design may send rewards automatically during deposit or withdrawal.
Users should understand the claim process before assuming that rewards are immediately available in the wallet.
Staking rewards compensate participants for supporting a proof-of-stake blockchain’s consensus and security.
Farming rewards generally compensate users for supplying liquidity or capital to decentralized applications.
A liquidity position can be described as staked when its LP token is deposited into a farming contract.
This application-level staking does not necessarily make the participant a blockchain validator.
The Ethereum staking documentation explains that protocol staking rewards are earned for activities that help the network reach consensus.
Farming and staking can have different risks, reward sources, lockups, and technical requirements.
Trading profit results from buying and selling assets at favorable prices.
Farming rewards result from supplying assets or positions to a reward-generating protocol.
A farmer can earn fees while the market price moves against the deposited assets.
A trader can make a profitable market decision without earning any farming reward.
Many farming strategies contain indirect trading exposure because the pool rebalances assets as users trade.
Farming rewards are normally distributed according to an announced or programmed incentive formula.
An airdrop is a broader token distribution based on eligibility rules, snapshots, past activity, or promotional goals.
Using a farming protocol may contribute to possible future airdrop eligibility.
No unannounced airdrop should be treated as guaranteed income.
Expected airdrop value should not be added to a farming return unless a valid distribution has been confirmed.
Referral rewards compensate users for introducing new participants.
Farming rewards compensate participants for supplying eligible assets or positions.
A protocol may offer both incentives.
Referral income depends on referred-user activity and should be separated from the return generated by the deposited capital.
Governance rewards compensate users for voting, delegating, locking tokens, or participating in protocol decisions.
Farming rewards usually relate to liquidity or capital provision.
A program can combine the two by giving higher farming rewards to users who lock governance tokens.
This design can increase capital commitment and reduce immediately circulating supply.
It also increases exposure to governance-token price changes and lockup risk.
Impermanent loss is the difference between the value of a liquidity-pool position and the value that would have resulted from simply holding the deposited assets.
It can occur when the relative prices of the pool assets change.
Automated pool rebalancing causes the liquidity provider to hold more of the asset that has fallen in relative value and less of the asset that has risen.
The loss is called impermanent because it may decrease if the relative prices return to their original relationship.
It becomes economically realized when the participant removes liquidity while the difference remains.
Trading fees and farming rewards can offset impermanent loss, but they do not guarantee that the position outperforms holding the assets.
Assume a participant deposits equal dollar values of two tokens into a constant-product pool.
One token later rises substantially relative to the other token.
Traders rebalance the pool through arbitrage.
The participant ends with less of the rising token and more of the other token.
The total pool position may still be worth more than it was at deposit.
However, it can be worth less than simply holding the original quantities outside the pool.
The participant must compare this difference with all fees and farming rewards earned.
A single-asset farm accepts one deposited token rather than a two-token liquidity position.
This can avoid traditional two-asset impermanent loss.
It does not remove market risk because the deposited token can lose value.
The protocol may lend, swap, bridge, stake, or use the token in another strategy behind the interface.
A single-asset vault can therefore expose the depositor to hidden leverage, counterparty risk, withdrawal delays, or external-protocol failures.
Farming rewards are often paid in a token whose price changes continuously.
The displayed APR may use the reward token’s current market price.
If the token price falls, the realized dollar value of previously advertised rewards falls as well.
New emissions can create ongoing sell pressure when farmers regularly exchange rewards for other assets.
Low liquidity can make large reward positions difficult to sell without significant slippage.
A reward token should be analyzed according to utility, emissions, circulating supply, unlocks, governance, and market depth.
Farming programs depend on smart contracts holding or controlling cryptocurrency.
A programming error can allow unauthorized withdrawals, incorrect reward minting, frozen deposits, or broken accounting.
Composability increases the risk because one farming strategy can depend on several external contracts.
The Solidity security considerations warn that smart contract security guidance cannot cover every possible pitfall.
An audit can reduce risk but cannot prove that a protocol is free from every vulnerability.
Administrators may have authority to pause withdrawals, change rewards, recover tokens, replace contracts, or modify strategy parameters.
A compromised or malicious administrator can misuse those powers.
Governance contracts, multisignature wallets, guardians, and proxy administrators can all form part of the control system.
The OWASP guidance on smart contract access control identifies improperly restricted privileged behavior as a major security risk.
Users should inspect ownership, upgrade permissions, timelocks, signer thresholds, and emergency powers.
Some farming strategies depend on price oracles to value assets, manage leverage, calculate shares, or trigger liquidations.
An attacker may manipulate an illiquid market or exploit stale price data.
The protocol can then issue excessive shares, accept insufficient collateral, execute an unfair conversion, or distribute incorrect rewards.
The 2026 OWASP oracle-manipulation guidance highlights spot-price manipulation, short-window average manipulation, stale data, and failed outlier handling.
A farming strategy should use price sources and safety controls appropriate to the value it manages.
A flash loan allows a large quantity of assets to be borrowed and repaid within one transaction.
An attacker can use the temporary capital to manipulate pool balances, oracle values, governance power, vault share prices, or reward accounting.
The loan does not create the underlying vulnerability.
It can amplify a business-logic or pricing weakness that already exists.
The OWASP flash-loan-facilitated attack guidance identifies oracle, accounting, collateral, governance, and composability assumptions as important risk areas.
Reentrancy can occur when a contract makes an external call before completing its internal accounting.
The receiving contract may call back into the original function while it is still executing.
A vulnerable farming contract may count the same deposit twice, claim rewards repeatedly, or process multiple withdrawals against stale balances.
The OWASP reentrancy description specifically notes that callbacks can manipulate reward and withdrawal accounting.
Farming contracts divide rewards among many participants using fixed-precision integer arithmetic.
Incorrect rounding can distribute too many or too few tokens.
A repeated small rounding advantage can become substantial when an attacker performs many deposits and withdrawals.
Vault share calculations are especially sensitive when total assets or total shares are very small.
Users should be cautious with newly created or nearly empty vaults because unusual share ratios can produce unexpected results.
Depositing into a farm often requires an ERC-20 approval that allows a contract to transfer tokens from the wallet.
An unlimited approval can remain active after the farming position is closed.
If the approved contract is compromised or upgraded maliciously, the remaining wallet balance may be exposed.
The ERC-2612 permit standard allows approvals through signed messages, but users must still understand the amount, spender, nonce, and deadline being authorized.
Approvals should be limited when practical and revoked when no longer needed.
A farming position may show a high balance without having enough available liquidity for an immediate withdrawal.
Borrowed assets may need to be repaid before lenders can exit.
A vault may hold long-duration, bridged, staked, or illiquid positions.
A reward token may have little buying depth.
Emergency withdrawal functions may return only the underlying position and leave rewards unclaimed.
Users should review withdrawal limits, queues, cooldowns, penalties, and available market liquidity before depositing.
Some farming programs require assets to remain deposited for a specified period.
Leaving early may forfeit rewards or trigger a penalty.
A locked position prevents the participant from responding quickly to market losses, protocol concerns, or better opportunities.
The lock may also apply only to principal while rewards follow a separate vesting schedule.
The exact release conditions should be verified onchain when possible.
Stablecoin farming can appear less volatile because the deposited assets target a stable value.
The strategy still faces depegging, reserve, issuer, smart contract, liquidity, bridge, and regulatory risks.
A pool containing two stable-value assets can experience severe imbalance when one asset loses confidence.
Farmers may end up holding a larger share of the weaker asset as traders remove the stronger asset.
A high stablecoin farming yield may compensate for risk that is not visible in the token’s recent price history.
Leveraged yield farming uses borrowed cryptocurrency to create a larger farming position than the participant’s own capital would permit.
Leverage can increase rewards when the farming return exceeds borrowing costs.
It also increases losses, liquidation risk, interest-rate risk, and sensitivity to token prices.
The simplified expected spread is:
A positive displayed spread can become negative when reward rates fall, interest rates rise, or asset prices change.
Leveraged farming is substantially more complex than an unborrowed deposit.
A farming opportunity on another blockchain may require a bridge or wrapped token.
The participant then faces both the farming protocol’s risk and the bridge’s risk.
A wrapped asset can lose its expected value if the underlying collateral becomes inaccessible or insufficient.
Network congestion, validator failures, message delays, or bridge pauses can prevent a timely exit.
Higher rewards on another network may reflect the additional risks required to attract liquidity.
Governance may control reward rates, supported assets, pool weights, fees, upgrades, treasury spending, and emergency actions.
Concentrated voting power can allow a small group to change the farming program.
A governance proposal may reduce rewards or redirect emissions before the expected end date.
Flash-loan or delegated-voting weaknesses can also affect decision-making.
Participants should review who can propose, approve, delay, cancel, and execute changes.
First, identify every source of the displayed yield.
Second, separate real fee or interest income from token emissions.
Third, verify whether the displayed rate is APR or APY.
Fourth, determine how often compounding occurs and who pays the transaction costs.
Fifth, examine the deposited asset and reward token price risks.
Sixth, review smart contract audits, upgradeability, administrative permissions, and incident history.
Seventh, understand withdrawal conditions, lockups, cooldowns, and available liquidity.
Eighth, estimate gas, slippage, management, performance, deposit, and withdrawal fees.
Ninth, compare the projected reward with impermanent loss, borrowing cost, and possible token inflation.
Tenth, avoid depositing an amount whose loss would cause serious financial harm.
Begin with the market value of all assets deposited.
Add the value of trading fees, interest, reward tokens, and other proceeds received.
Add the current withdrawal value of the remaining farming position.
Subtract the original deposit value.
Subtract transaction fees, slippage, borrowing interest, strategy fees, and withdrawal costs.
The simplified formula is:
The calculation should use actual prices and quantities rather than the APY displayed when the position was opened.
Farming rewards are not guaranteed interest.
A high APY does not guarantee a high realized return.
More reward tokens do not necessarily mean greater purchasing power.
Stablecoin farming is not risk free.
A single-asset farm can still lose principal.
An audited contract can still contain vulnerabilities.
A standardized ERC-4626 vault is not automatically a safe vault.
Auto-compounding does not prevent token prices or reward rates from falling.
Impermanent loss can exceed trading-fee and token rewards.
A locked farming position may be impossible to exit during an emergency.
Protocol token emissions are not the same as revenue generated by users.
A farming website’s displayed balance does not prove that sufficient assets are available for withdrawal.
Farming rewards are tokens, fees, interest, or other crypto returns earned by supplying assets or liquidity to an eligible decentralized protocol.
They can be earned by supplying liquidity, lending assets, depositing into vaults, staking position tokens, or participating in another reward program.
They can come from trading fees, borrower interest, protocol revenue, token emissions, or vault strategy returns.
No, reward rates and token values can change, and the deposited assets can be lost.
Yield farming is the broader activity of seeking DeFi returns, while liquidity mining specifically rewards users for supplying liquidity.
Protocol staking supports blockchain consensus, while farming generally supplies capital or liquidity to an application.
An LP token or position record represents a user’s proportional claim on assets in a liquidity pool.
Yes, some programs allow LP positions to be deposited into a farming contract for extra incentive tokens.
APR is a simple annualized return estimate that does not assume repeated compounding.
APY is an annualized estimate that assumes rewards are reinvested and compounded.
It changes as token prices, reward emissions, pool deposits, trading volume, borrowing demand, and strategy performance change.
They may have high token emissions, small initial deposits, or temporarily high reward-token prices.
It is possible in theory but usually unlikely because emissions, token prices, pool size, and participant behavior change.
Auto-compounding collects farming rewards and reinvests them into the strategy automatically.
Some do, while others accrue through an increasing receipt-token or vault-share value.
Impermanent loss is the underperformance of a liquidity position compared with simply holding the original assets.
They can, but there is no guarantee that fees and incentives will exceed the loss.
Yes, especially when one stable-value asset loses its expected peg and changes the pool’s asset balance.
Yes, reward-token prices can decline because of emissions, weak demand, low liquidity, or wider market conditions.
It is a return funded through newly created or released protocol tokens.
It may be temporary unless token demand, utility, revenue, or another economic source supports the continuing issuance.
The term commonly describes rewards funded mainly from protocol-generated fees or revenue rather than only from new token emissions.
No, revenue-backed farming can still face smart contract, market, liquidity, governance, and token risks.
Yes, losses can result from exploits, token-price declines, impermanent loss, liquidation, insolvency, bridge failure, or malicious administration.
It is farming with borrowed assets to increase position size and potential returns.
Yes, the position can be liquidated when collateral or debt conditions violate the protocol’s requirements.
A farming vault pools assets and applies an automated or managed yield strategy on behalf of depositors.
No, ERC-4626 standardizes the vault interface but does not guarantee strategy quality, solvency, security, or returns.
It is a rule preventing withdrawal for a specified period or applying a penalty to early withdrawal.
An approval allows the farming smart contract to transfer the specified tokens from the user’s wallet for deposit.
Revoking unnecessary approvals can reduce exposure if an approved contract is later compromised.
Only when the protocol or vault includes an auto-compounding process.
They may create income or disposal obligations depending on the user’s jurisdiction and transaction structure.
Check reward sources, token emissions, smart contract controls, audits, liquidity, withdrawal rules, fees, price risks, and the sustainability of the advertised yield.
Farming rewards are crypto incentives earned by supplying assets, liquidity, or capital to decentralized financial protocols.
They can include trading fees, lending interest, protocol revenue, newly issued tokens, and returns generated by automated vault strategies.
The advertised yield may be expressed as APR or APY, but both are estimates that can change rapidly.
A high farming rate can result from genuine market activity, aggressive token emissions, low initial liquidity, or a temporarily expensive reward token.
The participant’s real result depends on the ending value of the deposited position, claimed rewards, impermanent loss, transaction costs, strategy fees, borrowing costs, and token-price movements.
Farming rewards involve smart contract, oracle, access-control, reentrancy, arithmetic, governance, liquidity, approval, bridge, and withdrawal risks.
Standardized vault interfaces such as ERC-4626 can improve interoperability without guaranteeing the safety or profitability of the underlying strategy.
Users should identify where the yield comes from, determine whether it is revenue-backed or inflation-funded, and verify how rewards are calculated and claimed.
They should also review withdrawal conditions, contract permissions, token emissions, market liquidity, and the possibility of losing the entire deposit.
Farming rewards can provide useful incentives and onchain income opportunities, but they should be treated as variable-risk returns rather than assured sources of fixed returns.
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