Key Takeaways
- Repo is a strong early use case for tokenized deposits because it combines two high-value problems: cash movement and cash-collateral coordination.
- Tokenized deposits let banks settle trades intraday while keeping the money safely inside the regulated commercial banking system.
- The biggest wins come when cash and collateral move at the exact same time. This eliminates waiting risks, cuts out manual back-office checks, and frees up trapped money.
- Banks can start with tokenized cash, digital collateral records, or fully tokenized cash and securities, depending on what their legal framework and market infrastructure allow.
Repo is one of the strongest institutional use cases for tokenized deposits. It brings together two problems that tokenization is well suited to address. One is the movement of cash. The other is the coordination of cash and collateral.
The market is also large enough for small operating improvements to matter. The US repo market exceeds $12 trillion in outstanding value daily, while the European market exceeds €12 trillion. Tokenized deposits can therefore be a valuable cash leg for repo settlement and wider collateral workflows.
Source: BCG and Anchorage Digital, 2026 Report
This article explains what slows repo settlement today, how tokenized deposits can improve the workflow, what a tokenized repo looks like in practice, the three architecture models banks can consider, and the risks that still need to be solved before wider adoption.
What Is Slowing Down Repo Financing Today?
A repo is short-term secured financing. One party sells securities for cash and agrees to repurchase them later at a set price. The difference between the sale and repurchase price is the financing cost.
The core problem here is the settlement architecture. Right now, repo trades have to pass through a long chain of middlemen, banks, and agents. Because these systems don’t sync with each other, they rely on a slow chain of messages, manual work, and final checks that only happen at the end of the day. This messy process causes delays, mistakes, and extra running costs, which force companies to tie up a lot of extra cash and collateral to back trades.
Different stakeholders feel this differently.
Treasury and funding desks carry the cost of mismatched timing. If a bank runs out of cash for just three hours, they still have to borrow and pay for that money overnight, simply because today’s slow banking systems don’t offer anything shorter. Banks also hold large precautionary buffers to absorb intraday timing gaps. One BIS study calculated that the average liquidity buffer held by major Fedwire participants to cover intraday payment mismatches over 2008 to 2018 was USD 639 billion.
Source: BIS
Collateral managers work with fragmented inventory. Collateral is held in different business silos, deposited in different locations, and deployed across different market infrastructures. Moving it between those pools takes time and costs money, so some of it goes unused even when it is eligible.
Operations and risk teams spend a lot of time manually fixing failed trades and dealing with edge-case errors. Margin payments (cash or collateral set aside to cover price changes) move on a completely different schedule than the actual repo trades. Because these two processes don’t happen at the same time, banks are left exposed to risk longer than they should be.
What Do Tokenized Deposits Change in the Repo Market?
A tokenized deposit is a claim on a commercial bank, recorded on a distributed ledger, that stays a deposit in legal and regulatory terms. It remains a bank liability, can be interest-bearing, and sits inside the existing deposit regulatory perimeter.
For repo, that matters in three ways.
1. The first benefit is more precise settlement.
That means the exact times of sale and repurchase can be set for the same day, which makes genuine intraday repo possible and lets a borrower obtain funding for the hours it needs. J.P. Morgan has estimated that intraday repo could more than halve the cost of intraday borrowing. DTCC’s May 2026 collateral work reaches a similar conclusion, estimating that intraday repo on digital rails could cut intraday funding costs roughly in half while reducing liquidity buffers and capital requirements.
2. The second benefit is that cash and collateral can move as one event.
Atomic delivery versus payment removes the settlement risk that comes from a delivery and a payment landing at different times. It also removes the reconciliation work between them.
3. Collateral operations become programmable.
Smart contracts can automate collateral substitution and manufactured payments. In substitution specifically, atomic settlement makes delivery versus delivery possible, which the existing infrastructure does not currently provide and which offers balance sheet and liquidity savings.
4. There is a fourth benefit too.
A distributed ledger covering all collateral sources and uses inside a bank group can act as an abstraction layer over fragmented collateral pools, unifying them without merging the underlying businesses or re-engineering the collateral systems. For a large group with multiple legal entities, that is often a bigger prize than the funding cost saving.
Source: ICMA DLT and Repo Report, Part I
Apart from Repo, the securities financing market also includes securities lending, buy-sell backs, and margin lending. Tokenized deposits have the clearest role when these transactions include a cash leg. Their role is smaller in a securities-for-securities transaction unless fees, margin, or other cash obligations are also settled digitally.
How Does a Repo Settle With Tokenized Deposits?
The clearest way to see the difference is to walk the same trade through both models.
What it looked like before
Let’s assume a dealer needs dollar funding at 10:00 to cover a settlement obligation, and expects the cash back by 13:00. On conventional rails, the shortest practical tenor is overnight, so the dealer borrows overnight and pays for a full day of funding.
Collateral is instructed to a tri-party agent, cash moves separately through the payment system, and both legs reconcile at end of day. If the dealer needs to swap out that collateral at any point during the day, they have to restart the entire slow, manual messaging process.
What it looks like now
J.P. Morgan’s Kinexys platform shows how this tokenized process works in real life. First, the two parties agree on a trade using a digital bidding platform, and the deal is booked. Next, an automated agent tells a third-party manager to put the required collateral into a special tokenization account. As soon as both the buyer’s and seller’s instructions match up, that collateral is instantly turned into a digital token.
Meanwhile, the buyer prefunds a blockchain digital deposit account from its conventional deposit account at the bank. At the pre-agreed time, the buyer’s collateral token balance is credited, and the cash value moves between the two parties’ blockchain deposit accounts in the same step. At the repurchase time, the repo reverses automatically, tokens are burnt, and cash, including repo interest, returns to the buyer while collateral returns to the seller.
Applying this new tokenized system to the same trade, the dealer can now agree to a precise three-hour repo loan instead of being forced into an overnight one, and the position closes itself at 13:00 without an operations instruction.
As a real-world example, Banco Santander and J.P. Morgan successfully ran two intraday repos of roughly three hours in January 2025, sized at USD 50 million and EUR 50 million.
There is one important detail that shouldn’t be missed. The buyer prefunds the on-chain account before settlement. Prefunding is a real working capital consideration, and it partly offsets the funding saving unless the bank runs a continuous on-chain cash position.
The Difference Between Traditional Vs Tokenized Workflow of Repo Financing
| Repo stage | Conventional workflow | Tokenized workflow |
| Opening settlement | Cash and securities instructions move through separate systems | Settlement logic coordinates both legs and releases cash against verified collateral delivery |
| During the repo | Margin and substitution require new messages across several systems | Valuation events can trigger controlled margin or substitution workflows |
| Funding period | Usually shaped by operating windows and available settlement cycles | Funding can begin and mature at precise intraday times |
| Closing settlement | Principal, interest, and collateral return require another coordinated settlement | The closing leg can execute from the same agreed transaction state |
| Records | Participants reconcile their own records after events occur | Approved parties share a synchronized record while private data remains access-controlled |
What Are the Architecture Models for Tokenized-Deposit Repo?
There could be three models, and they differ in how much of the trade is actually digitalized. The three models below are the versions most relevant to a bank building around a tokenized deposit.
Model 1: Tokenized cash with conventional securities
The deposit moves on-chain. The collateral stays in the CSD. An integration layer waits for confirmation that the securities have moved, then releases the tokenized deposit.
CSD confirms collateral delivery
↓
Integration layer receives confirmation
↓
Tokenized deposit is released
This improves the cash side and adds some automation in settlement timings and reconciliation. It does not solve collateral mobility, and the settlement window is still governed by the CSD’s operating hours. So the transaction is coordinated using a trusted message or APIs across two systems rather than being technically atomic.
Model 2: Tokenized record linked to conventional collateral
The bonds remain with a regulated custodian or CSD. A digital record represents legal control over those specific securities. When the record moves, the underlying securities are locked or reallocated in the traditional infrastructure. HQLAX’s Digital Collateral Record is the working example of this design.
Securities held at custodian or CSD
↕
Authoritative digital collateral record
↕
Cross-ledger repo orchestration
↕
Tokenized deposit ledger
This model can improve collateral mobility without requiring every security to be issued natively on-chain. But its safety depends on the legal link between the digital record and the securities. The system must prevent the same asset from being transferred or pledged elsewhere.
Model 3: Tokenized securities and tokenized deposits
Both legs are digitally transferable and a smart contract governs the exchange.
Tokenized security
↕
Repo smart contract
↕
Tokenized deposit
This is the strongest model. It supports atomic DvP, intraday repo, real-time substitution, immediate collateral release, and programmable margining on a shared record of cash and collateral.
But moving both assets on-chain does not create atomicity by itself. If the assets are on different ledgers, the interoperability layer must provide synchronized execution and clear finality.
Design considerations
Four decisions will determine whether a Model 2 or Model 3 design works in production.
- Finality. The ledger’s finality model has to be compatible with the legal moment of transfer. Probabilistic finality is difficult to reconcile with settlement finality obligations.
- Privacy. Repo trade prices and loan details are highly sensitive business data. A private network where one central administrator can see every trade is not acceptable, so selective privacy controls must be built into the system from day one.
- The legal link. For Model 2 builds, ensuring that holding the digital token gives legally enforceable ownership of the underlying asset. This is the single most important requirement.
- Fourth, integration with existing systems. Daily record-keeping, risk management, and regulatory reporting must work across both traditional and blockchain-based trades without creating extra work.
Which Platforms Are Already Using Tokenized Deposits for Repo?
| Implementation | What it proves |
| J.P. Morgan, HQLAᵡ | This live cross-ledger model settles cash through blockchain deposit accounts on Kinexys and transfers securities ownership through HQLAᵡ. It processed $5 billion in its first month, with up to $1 billion on a trading day. It is the clearest example of Model 2. |
| Broadridge Distributed Ledger Repo | DLR processed an average of $354 billion per day in March 2026 and nearly $8 trillion during the month. It proves that a DLT-based repo workflow can operate at institutional scale. They started as a passive ledger attached to a conventional account. From late 2024, it appears to use US Treasury tokens minted by DTC, with a smart contract synchronizing the transfer of collateral tokens at DTCC against a cash payment between accounts at BNY Mellon. Broadridge opened access to Kinexys in May 2024 to offer a cash-on-chain option also, but that route is limited to J.P. Morgan Chase account holders. |
| Clearstream D7 DLT ECB trials | Clearstream processed intraday and overnight cleared repo using tokenized securities. The cash leg used digital central bank money connected to TARGET2, though, and not exactly tokenized deposits. But it shows the operating model that Model 3 can support with a different digital settlement asset. |
What Challenges Must Banks Solve
- The first challenge is incomplete collateral digitization. If the actual securities still live on old, slow computer networks, tokenized cash can speed up the payment side but cannot make the collateral move faster between custodians and central depositories.
- Second is cross-ledger dependency. Model 1 depends on confirmation from a conventional securities system. Model 2 depends on the collateral registry, custodian, and interoperability layer. A delay or conflicting state can stop DvP.
- The third is liquidity design. Tokenized finance can reduce delays and release collateral sooner, but it can also reduce the netting benefits and time buffers that exist in current systems. This forces banks to have cash ready at all times. Real-time treasury tracking and emergency cash reserves will be necessary.
- Another challenge could be smart contracts and external data feeds risks that can trigger incorrect margin calls or transfer of wrong collateral if price data, any event data, or contract logic is flawed. To prevent this, banks need clear rules for human overrides, audit logs, and emergency recovery plans.
FAQs
Can tokenized deposits improve repo trades if the securities stay in a traditional central depository (CSD)?
Yes absolutely. It will make cash payments faster, automate the release of funds, and reduce back-office checks. However, they cannot make the securities move instantly or allow for perfect, single-step settlement as long as the assets live on a separate network.
Why is repo a strong use case for tokenized deposits
Repo is a strong use case because it has a clear cash leg and a clear collateral leg. Tokenized deposits can make the cash leg programmable and easier to coordinate with collateral movement.
Are tokenized deposits the same as wholesale CBDC?
No. A tokenized deposit is a commercial bank liability. A wholesale CBDC is central bank money. Both can serve as settlement assets, but they carry different credit, access, and redemption arrangements.
Does a repo smart contract replace the GMRA-like laws?
No. The GMRA and applicable law define the legal rights and remedies. The smart contract automates agreed operational events such as settlement, interest, margining, substitution, and maturity.
Can tokenized deposits improve securities lending?
Yes, when the transaction uses cash collateral or requires digital fee and margin payments. In securities-for-securities lending, most of the benefit must come from the collateral and asset-transfer infrastructure.
Zeeve for Unbiased Consultancy and Privacy-Enabled Tokenized Deposit Infrastructure
Repo infrastructure has to connect bank money, collateral systems, market data, legal controls, and several regulated participants. It also has to protect positions, pricing, balances, and counterparty information.
Zeeve helps banks, financial market infrastructures, and other institutions design, deploy, and operate privacy-enabled blockchain infrastructure with ISO 27001- and SOC 2 Type II-compliant security posture for tokenized deposits. Institutions can use a private deployment, a shared consortium network, or an interoperable model that connects existing collateral venues.
The Zeeve Privacy Layer can add entire workflow privacy with confidential transactions, selective disclosure, and role-based access controls for participants and regulators. Zeeve also supports integration with core banking, custody, identity, and compliance systems, as well as Bring Your Own Cloud options.
Zeeve, as a partner of Cosmos Labs and LF Decentralized Trust Foundation, brings the expertise needed for Hyperledger Besu implementations, along with Cosmos CTS as a core tokenization engine. Banks can also use using a Cosmos chain, a Besu network, or any other custom chain as a DLT network, and integrate it with the Zeeve privacy layer to build their privacy-enabled tokenized deposit-based repo solution.
Talk to our experts to discuss your requirements.
