Cetusprotocol

Cetusprotocol concentrated liquidity - range width and capital efficiency

Cetusprotocol concentrated liquidity uses a concentrated liquidity market maker, or CLMM, to allocate capital within selected price ranges. Narrowing a range that covers the current price can reduce the capital needed for comparable depth there. That benefit lasts only while the pool price remains inside the position's boundaries. Outside them, new swap-fee earnings stop, and the deployed position holds one pool asset.

Cetus provides CLMM liquidity on Sui and has a separate Aptos version. Its range choice links capital efficiency with price coverage and changing token exposure. Fee earnings also depend on pool activity and competition from other active positions, beyond the width that a position selects.

Key takeaway: Fees reflect a CLMM position's share of active liquidity, so being in range alone doesn't establish an earnings amount.

Price ranges connect LP capital with trading depth

A CLMM position connects an individual liquidity provider's capital with the prices at which the pool can use it. Liquidity providers, or LPs, choose lower and upper boundaries called ticks. A conventional constant-product automated market maker distributes liquidity across the full price curve. CLMM lets each position cover a selected interval. The pool combines overlapping positions to support swaps, while each position retains its own boundaries and ownership. Capital outside the current trading interval contributes no active depth there.

A range exit changes earnings and token exposure

The pool price leaving a position's range makes that liquidity inactive for swaps and stops new swap-fee accrual. If the price returns inside the unchanged range, the position becomes active again. This is a change in participation, not a withdrawal of the position. Its assets remain deployed, and the position still has economic exposure to the token that it holds. A price movement can therefore remove fee eligibility without removing market risk.

Within the range, the position's token proportions change as trades move the price. Fully outside the range, its deployed liquidity becomes single-sided. The boundary crossed and the pool's price orientation determine which token remains. Comparing price ranges requires the same quote orientation, since reversing a token pair inverts its prices. The deployed asset can still rise or fall in market value after the position becomes inactive.

Previously accrued swap fees remain separate from deployed liquidity, so an inactive position doesn't imply that its earlier earnings disappeared.

How does range width change capital efficiency?

A narrower range concentrates capital more intensely, while a wider range covers more possible prices with the same capital. The comparison assumes both ranges cover the current price and focuses on their allocation. Concentration can produce greater active depth per unit of capital near that price. It doesn't establish how much trading will occur there or how long the price will remain inside.

A broader range leaves more room for movement before the position becomes inactive. It also spreads capital across prices that trades may never reach. Range width consequently involves a trade-off between concentration and coverage. Frequent price changes can make a narrow allocation require closer attention, even when it began near the market price. Historical stability offers context for that choice, without setting a future boundary on movement.

A price move that separates narrow and wide coverage

Consider a hypothetical comparison with equal capital, the same CLMM pool and fee tier, and an initial price inside both ranges. One range nests inside a wider range. Assume the reader won't have another opportunity to inspect the position until later. All allocations, boundaries, prices, price movements, and review timing in this example are hypothetical.

Coverage until that next review takes priority over the strongest concentration at the starting price. On that basis, the reader chooses the wider range. Both options begin eligible to earn swap fees, although actual earnings require trades through their pool and depend on competing active liquidity.

After opening and funding the wider position, its recorded boundaries and the pool's current price confirm that it begins in range. It doesn't confirm a future fee amount or prove that the position will remain active until the next review.

Visual outline: Cetusprotocol concentrated liquidity - Range trade-offs
Cetusprotocol concentrated liquidity - Range trade-offs, illustrated

Cetusprotocol concentrated liquidity - Range trade-offs

  • How does range width change capital efficiency?
  • A price move that separates narrow and wide coverage
  • Impermanent loss measures the difference from holding tokens
  • Fee income follows active liquidity and pool activity

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Now let only the pool price change: it moves above the narrow range's upper boundary and remains inside the wider range. The narrow alternative becomes inactive and stops earning new swap fees. The chosen wider position remains eligible to earn fees from subsequent swaps that use its liquidity.

A further move beyond the wider boundary invalidates the original coverage assumption. The wider position then becomes inactive too. The rule linking fees to active liquidity remains unchanged throughout. Its application changes with the live price, so a successful starting check cannot establish a fixed period of fee eligibility.

Impermanent loss measures the difference from holding tokens

Impermanent loss describes the value difference between providing liquidity and holding the same starting assets as their relative price changes. A CLMM position exchanges its token exposure along its range, so its eventual asset mix can differ from the original deposit. Concentrating capital can amplify that exposure as well as potential fee generation. Fee receipts alone don't establish whether the position outperformed holding its starting tokens.

Position performance includes current asset value, collected and uncollected fees, applicable incentives, and costs. A profitable-looking fee balance can coexist with a less valuable token allocation. This distinction also explains why leaving the range isn't the definition of impermanent loss. Price changes can alter the comparison with holding while the position remains active.

Removing and repositioning liquidity can add network fees, making management costs part of the comparison.

Fee income follows active liquidity and pool activity

CLMM fee income depends on the swaps that use the pool and the liquidity participating at their execution prices. Cetus CLMM distributes the LP portion of swap fees in proportion to active liquidity. A position's share therefore reflects other active positions as well as its own allocation. Equal deposited value doesn't establish an equal contribution at the current price, because different ranges concentrate that capital differently.

The fee that the pool charges also matters, alongside the protocol portion deducted from swap fees. Pools for the same token pair can have different fee tiers. A higher tier increases the charge on a trade using that pool, without establishing the volume that will choose it. Sparse trading or strong competition from other active liquidity can limit earnings despite a concentrated allocation. Swap fees accrue in the input token of each trade. Fee assets can therefore vary with the direction of trades within the same pool.

Pool depth determines how a swap moves the price

Active liquidity determines the depth available along a CLMM swap's price path. As trades cross position boundaries, the participating liquidity changes. Concentration near the current price can improve execution there, while thinner intervals further along the path can produce greater price impact. Total deposited value alone doesn't describe that distribution. The Super Aggregator can route across other supported Sui liquidity sources, so an aggregated quote may reflect more than the depth of a single Cetus pool.

Source code with swap parameters and comments
Source code with swap parameters and comments

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Capital efficiency leaves smart contract exposure in place

A concentrated position remains exposed to failures in the contracts and dependencies that manage the pool's assets. Cetus CLMM pools suffered an exploit involving a dependent library in 2025. The June 7, 2025 recovery plan described liquidity recovery rates of 85% to 99% for affected pools, depending on the attack's impact on each pool.

Illustration: Cetusprotocol concentrated liquidity: Capital efficiency leaves smart contract exposure in place
Capital efficiency leaves smart contract exposure in place - diagram

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Those historical pool-level rates weren't a standing protection mechanism or a uniform recovery promise for individual positions. A range can keep liquidity active through price movement without protecting its assets against a contract vulnerability.

CLMM ticks and DLMM bins create different price behavior

Cetus DLMM concentrates assets in discrete price bins, whereas CLMM positions span intervals whose boundaries use ticks.

In DLMM, trading within a bin leaves that bin's price fixed. Depleting the relevant asset moves trading to another bin. CLMM ticks organize range boundaries; they don't turn each interval into a fixed-price bin. This difference matters when interpreting trading depth and how the execution price changes as an order consumes liquidity.

DLMM also uses a base fee plus a variable component that responds to market conditions. Its variable fee considers volatility, trading activity, and price movement across bins. Choosing a CLMM range doesn't import the DLMM dynamic-fee model into the position, even though both designs concentrate liquidity.

Vaults and range orders reuse concentrated positions

Cetus Vault automates liquidity management, while a range order uses concentrated liquidity for conditional asset conversion. The vault reinvests fees and rewards and rebalances positions when necessary. Depositors receive LP tokens representing their share of vault liquidity. That share is different from directly owning the NFT that represents an individual CLMM position. Automation changes who performs position management; the underlying liquidity still carries price exposure and contract risk.

A range order starts with single-sided liquidity and converts it toward the other pool asset as the price crosses the selected interval. Its boundaries express the prices at which that conversion can occur. This makes the range serve a different purpose from maintaining fee-earning coverage around an expected trading price. If the market never traverses the full range, the conversion can remain incomplete. After full conversion, withdraw the position's liquidity to finalize the order. If it stays deployed, price movement back through the range can reverse the conversion.

What readers ask about Cetusprotocol concentrated liquidity

Can I claim CLMM swap fees without removing liquidity?

You can claim accrued CLMM swap fees without withdrawing the position's liquidity. Cetus accumulates those fees separately from the deployed assets. Earning additional swap fees still requires an active position and trades that use its pool.

Why can a valid-looking CLMM price boundary fail validation?

CLMM boundaries must align with the selected pool's tick spacing. A tick index that isn't an allowed multiple can cause the contract to reject the parameter. A displayed decimal price therefore needs conversion to a valid boundary for that pool. Different pool settings can permit different levels of range precision.

Does a CLMM position always require both pool tokens?

A CLMM position can start with single-sided liquidity when its range lies outside the current pool price. An in-range position uses both pool assets in proportions determined by the price and boundaries. Creating a new pool has separate initialization requirements, so a single-sided position doesn't establish a single-sided pool-creation rule.

Can one wallet hold several CLMM positions in the same pool?

An LP can create multiple CLMM positions in the same pool with independent ranges. Each position has its own NFT and liquidity allocation. The pool combines their active contributions during swaps, without merging their boundaries into one position. Splitting capital across positions doesn't by itself establish higher fee earnings.

How should I interpret CLMM APR when comparing liquidity with holding tokens?

Annual percentage rate, or APR, estimates annualized earnings and doesn't deduct impermanent loss. Cetus's APR measure projects 24-hour trading activity and token emissions over a year. That projection differs from the position's actual performance over its holding period, which also reflects asset values, changing activity, and costs.

What separates creating a CLMM pool from opening a position?

Creating a pool establishes a trading market, while opening a position creates a range-specific ownership object within a pool. Cetus's Sui CLMM package version 9 introduced a requirement to initialize newly created pools with liquidity. Opening another position in an existing pool doesn't establish a new market or give that position a separate pool fee tier.

When can equal-value CLMM positions receive different mining rewards?

In fee-based liquidity mining, reward allocation depends on the fees that each position generates. Equal deposited value can produce different fee performance because ranges contribute different active liquidity and spend different periods in range. Mining availability and reward assets follow the applicable pool program; swap-fee eligibility alone doesn't establish a mining entitlement.

Why might an affected CLMM position retain its NFT after full withdrawal?

The June 7, 2025 recovery plan specified that affected CLMM position NFTs would remain after full withdrawal. Those NFTs provided certificates for corresponding CETUS compensation. Their proof function was separate from the liquidity remaining in the position. The retention provision applied to affected positions covered by that recovery plan.
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