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TL;DR
Trading RWA tokens onchain creates a different market structure from regular DeFi. External NAV pricing, limited arbitrage venues and trading restrictions can cause DEX prices to remain stale for extended periods of time.
The deJAAA/USDC pool on Aerodrome illustrates this clearly:
- all liquidity is concentrated in a single narrow, 1-tick-wide position;
- the pool price is manually re-pegged to deJAAA NAV by a third-party liquidity manager;
- between re-pegs, the DEX price can remain stale for extended periods – up to 55 days in the observed dataset;
- the discount to NAV reached as much as 0.69%, potentially causing retail traders to sell below fair value;
- abrupt re-pegs can also create predictable arbitrage and MEV opportunities.
Algebra’s key takeaway: RWA markets need liquidity infrastructure that can continuously follow externally defined prices. The Price Convergence Plugin automates this process by moving the pool price as the external reference price changes, reducing stale-price exposure while keeping price adjustments within the pool’s no-arbitrage range.
Summary
Trading RWA tokens on the blockchain can be different from regular DeFi activity. Limitations on arbitrage venues, externally defined prices and trading restrictions can cause a number of secondary effects.
In this case study, we take a look at the trading of a particular RWA token, deJAAA, on the Base network.
The deJAAA token is issued by Centrifuge protocol. As stated by Centrifuge:
“deJAAA is a debt product linked to the tokenized Janus Henderson Anemoy AAA CLO Fund. Issued by Centrifuge, it can be minted and redeemed on the BASE blockchain.
deJAAA is a deRWA token: a freely transferable, fully onchain instrument linked to JAAA, composable across DeFi use cases such as trading on DEXes and integrating with DeFi protocols”.
Token stats:
Current Supply | ~523K |
Total Transfers | ~5.7K |
# of holders | 169 |
Minted | 3.4M |
Burned | 2.9M |
As an RWA token, deJAAA has a NAV derived from the NAV of the underlying fund. This value is used when minting and redeeming deJAAA with its issuer, Centrifuge.
Besides the Centrifuge mint/redeem gate, there is only one notable trading venue for deJAAA on Base: Aerodrome DEX.
This trading setup limits the amount of potential arbitrage against the DEX AMM on Aerodrome.
How It Trades on Aerodrome
Aerodrome hosts a USDC/deJAAA pool that was launched in August 2025.
Total trading volume in the pool is approximately $1.93M across ~1,600 trades. The pool’s TVL declined from approximately $1.5M at launch to around $350K today.
All liquidity in the pool is concentrated in a single narrow position, only 1 tick wide.
Such a liquidity distribution means there is effectively no natural price discovery happening in the pool: trades either happen within the single-tick price range or stop once the available reserves are exhausted.
This position is actively managed by a third party.
Here is a graph of the pool price vs deJAAA NAV over time:
We can observe clear re-peg events, when the liquidity owner brings the pool price back in line with NAV. The re-peg also moves the liquidity position around the new reference price.
Looking at the graph, we can see that the pool price can remain stale for extended periods of time, with the longest observed period reaching 55 days.
This has several consequences.
First, retail traders selling at stale prices can effectively lose value. In the observed period, the discount to NAV reached as much as 0.69%.
Second, abrupt re-pegs can create arbitrage opportunities. A MEV searcher could potentially frontrun the re-peg sequence — burn, swap and mint — by buying deJAAA from the pool before the rebalance and selling after the pool is moved to the updated NAV.
Algebra’s Key Takeaways
The deJAAA example highlights several challenges that are likely to appear across RWA secondary markets:
- External pricing requires external synchronization. The fair value of an RWA token can change even when no DEX trade occurs.
- Static concentrated liquidity can become stale. A narrow position may be capital-efficient, but it still requires continuous repositioning when the reference price changes.
- Manual re-pegging introduces latency. The longer the delay between a NAV update and a pool rebalance, the larger the potential pricing discrepancy for traders.
- Predictable rebalances can introduce MEV risk. Large, discrete price adjustments create opportunities for sophisticated actors to trade around the rebalance.
- RWA liquidity infrastructure therefore needs more than concentrated liquidity. It needs a mechanism that can continuously synchronize onchain liquidity with an external reference price.
Price Convergence Plugin
Algebra’s Price Convergence Plugin removes the stale-price problem by rebalancing the pool price immediately after the external reference price changes.
Instead of waiting for a liquidity manager to manually reposition liquidity, the pool can continuously converge toward the updated external price.
This approach also helps prevent MEV extraction: price movements remain within the no-arbitrage window defined by the pool fee, avoiding the large and predictable price jumps associated with manual re-pegs.
For RWA markets, this turns external NAV pricing from an operational challenge into a programmable part of the AMM itself.
Conclusion
The deJAAA/USDC pool on Aerodrome shows why RWA liquidity requires a different approach from traditional DeFi markets.
Because deJAAA has an externally defined NAV, its fair value can change even when no trading activity occurs onchain. When liquidity is concentrated in a narrow range and the pool price is updated manually, the DEX price can remain disconnected from NAV for days or even weeks. In the observed deJAAA market, stale pricing persisted for as long as 55 days, while the discount to NAV reached 0.69%.
This creates two structural risks for RWA secondary markets. Traders can execute against outdated prices, while large and predictable manual re-pegs can create arbitrage and MEV opportunities around liquidity repositioning.
The core issue is therefore not concentrated liquidity itself, but the lack of continuous synchronization between the AMM and the external reference price.
Algebra’s Price Convergence Plugin addresses this by making external price synchronization part of the pool logic. As the reference NAV changes, the AMM can automatically move toward the updated price while keeping adjustments within the pool’s no-arbitrage range.
For tokenized funds, tokenized securities and other NAV-based real-world assets, this creates a more suitable market structure: concentrated liquidity combined with automated reference-price convergence rather than periodic manual re-pegging.
As RWA markets expand onchain, programmable mechanisms for NAV synchronization, liquidity management and controlled price discovery are likely to become a core part of secondary-market infrastructure.
