Traditional vs Tokenized Authorized Participant Models

Authorized Participant Model Comparison: Traditional vs Tokenized

The authorized participant mechanism — which keeps ETF market prices aligned with NAV through creation and redemption arbitrage — operates fundamentally differently in traditional and tokenized ETF structures. Across the $14 trillion global ETF market, approximately 8 firms process over 95% of all creation and redemption activity, and the transition to tokenized AP models represents the most significant structural change in ETF market microstructure since the first ETF (State Street’s SPY, tracking the S&P 500) launched on the American Stock Exchange in January 1993. This comparison examines the structural, economic, and regulatory dimensions of both models.

Operational Comparison

How Traditional AP Operations Work

Understanding the tokenized model’s advantages requires a detailed understanding of the traditional process it replaces.

Step 1: Opportunity identification. The AP’s trading desk monitors ETF market prices and indicative NAV (iNAV) throughout the trading day. When the ETF’s market price deviates from iNAV by more than the AP’s cost-of-arbitrage threshold (typically 10-30 basis points depending on liquidity), the AP initiates creation (if premium) or redemption (if discount) activity.

Step 2: Basket assembly (creation) or share accumulation (redemption). For creation, the AP must assemble the published creation basket — purchasing each constituent security in the correct quantities from multiple exchanges and trading venues. For a broad-market equity ETF with 500+ constituents, this requires executing hundreds of individual trades across multiple exchanges within a narrow time window. For redemption, the AP accumulates the required number of ETF shares (one creation unit, typically 25,000-100,000 shares) from the secondary market.

Step 3: Order submission. The AP submits a creation or redemption order to the fund’s distributor before the daily cutoff time (typically 4:00 PM ET for US equity ETFs). The order specifies: creation or redemption; number of creation units; and the applicable basket (pro-rata or custom, if permitted under Rule 6c-11).

Step 4: Settlement (T+1). On the settlement date (one business day after order submission in the US), the AP delivers the creation basket securities to the fund’s custodian through DTC, and the fund’s transfer agent delivers newly created ETF shares to the AP through DTC. For redemption, the flows reverse. DTCC’s NSCC acts as the central counterparty, guaranteeing settlement completion. During the settlement window, both parties bear counterparty exposure managed through NSCC margin requirements.

Step 5: Reconciliation. After settlement, the AP’s back-office team reconciles the trade — verifying that the correct securities were delivered, the correct number of ETF shares were received, and all fees were properly calculated. The fund’s transfer agent independently reconciles the transaction against the share registry. The fund’s custodian reconciles the portfolio holdings change.

This entire process involves at minimum 6 intermediaries (AP, distributor, transfer agent, custodian, DTC, NSCC) and generates paperwork across multiple systems. Errors — which occur in an estimated 1-3% of creation-redemption transactions — require manual resolution that can take hours to days.

How Tokenized AP Operations Work

The tokenized model compresses the same economic transaction into a single atomic blockchain interaction.

Step 1: Opportunity identification. The AP monitors the ETF’s secondary market price against on-chain NAV calculated by the fund’s NAV smart contract using oracle price feeds. The on-chain NAV updates with every block (approximately every 12 seconds on Ethereum), providing more frequent and transparent reference pricing than the 15-second iNAV updates used in traditional markets.

Step 2: Smart contract interaction. The AP calls the fund’s creation-redemption smart contract function, specifying: creation or redemption; number of creation units; and the basket composition. The smart contract verifies: the AP is authorized (whitelist check); the basket matches the published composition (on-chain verification); and the basket value satisfies the minimum creation unit requirement.

Step 3: Atomic settlement. If all conditions pass, the smart contract executes an atomic delivery-versus-payment transaction: the AP’s tokenized basket securities are transferred to the fund’s custody address, and newly minted ETF share tokens are transferred to the AP’s wallet — simultaneously, in a single indivisible transaction. If any condition fails, the entire transaction reverts — no partial execution, no settlement risk.

Step 4: Immediate finality. The transaction is final once included in a confirmed block. No reconciliation is needed — the blockchain provides a single, immutable, shared record of the transaction that all parties (AP, fund, custodian, regulator) can independently verify. The entire process — from opportunity identification to settled, finalized creation — can complete in under 60 seconds.

Economic Impact Analysis

Settlement cost reduction: Traditional AP operations incur settlement costs including: DTC delivery charges ($0.15-0.50 per trade); custodian processing fees ($5-25 per transaction); NSCC clearing fees; reconciliation labor costs (estimated $50-100 per creation/redemption event); and error resolution costs (when they occur). Total settlement costs for a single creation event: estimated $200-500 in direct costs plus operational overhead.

Tokenized settlement reduces these to blockchain transaction costs (gas fees) of $5-50 per event on Ethereum L1, $0.10-1.00 on Layer 2 networks (Polygon, Arbitrum), or less than $0.01 on Stellar. This represents a 90-99% reduction in direct settlement costs.

Capital efficiency improvement: The T+1 settlement cycle requires APs to commit capital during the settlement period. For a large AP processing 100 creation/redemption events daily averaging $10 million each, the overnight capital commitment is approximately $1 billion. This capital earns no return while committed to settlement — it is pure dead-weight cost.

JP Morgan estimated that the move from T+2 to T+1 in May 2024 freed approximately $70 billion in aggregate capital across US markets. Moving from T+1 to T+0 (atomic settlement) would free the remaining settlement capital — estimated at $200+ billion across the ETF market — and eliminate the approximately $2-3 billion in annual margin and collateral costs associated with the NSCC clearing process.

Arbitrage efficiency enhancement: Faster settlement enables faster arbitrage response to ETF premium/discount deviations. Traditional AP arbitrage requires several hours to execute (from identifying the opportunity to submitting the creation/redemption order before the daily cutoff). Tokenized arbitrage could execute in seconds to minutes, at any time of day. This speed improvement could reduce average ETF premiums and discounts by 50-80% for liquid ETFs, improving price efficiency for all secondary market investors.

Concentration Risk Analysis

Traditional concentration risk: The traditional AP oligopoly — where approximately 8 firms (Jane Street, Virtu Financial, Citadel Securities, Goldman Sachs, JP Morgan, ABN AMRO, Cantor Fitzgerald, Flow Traders) process 95%+ of US ETF creation/redemption — creates concentration risk. During the March 2020 COVID market crash, several APs temporarily withdrew from certain fixed-income ETFs, causing discounts to widen to 3-5% for investment-grade bond ETFs — a level that inflicted real losses on investors who sold during the dislocation.

Tokenized democratization potential: The tokenized model could mitigate this concentration by enabling broader AP participation. The barriers that sustain the current oligopoly — massive capital requirements for settlement exposure, complex bilateral agreements, back-office infrastructure for basket processing, and DTC membership requirements — are substantially reduced in a smart contract-based model. A smaller broker-dealer or institutional market maker could potentially qualify as a tokenized AP by meeting smart contract whitelist requirements (KYC verification, minimum capital threshold) without the operational overhead of traditional AP infrastructure.

New concentration risks in tokenized models: However, tokenized AP models may introduce new forms of concentration: blockchain network dependency (all AP activity depends on a single blockchain’s uptime and performance); oracle network concentration (if all APs rely on the same oracle feeds for pricing, oracle failure affects all AP activity simultaneously); smart contract risk (a vulnerability in the creation-redemption contract could affect all AP activity, whereas traditional AP failures are firm-specific); and MEV (miner/maximal extractable value) risk — sophisticated blockchain actors could front-run AP arbitrage transactions by observing them in the mempool and executing competing transactions before the AP’s transaction is included in a block.

Regulatory Considerations

Both models operate within Rule 6c-11’s framework for creation and redemption, but the SEC Division of Investment Management has not addressed how smart contract-based AP operations satisfy the rule’s specific requirements. Key unresolved questions include:

• “Written policies and procedures” requirement: Rule 6c-11 requires ETFs to adopt “written policies and procedures governing the construction and acceptance of baskets.” Does a smart contract’s immutable code constitute “written policies and procedures”? Or must the fund maintain separate written documentation describing the smart contract’s logic?

• Compliance monitoring obligations: The rule requires ongoing compliance monitoring of basket policies. Does on-chain automated enforcement satisfy this requirement, or must a human compliance officer independently review each creation-redemption transaction?

• AP agreement structure: Traditional AP agreements are bilateral contracts between the fund sponsor and each AP. In a tokenized model, the smart contract whitelist replaces bilateral agreements. Does this whitelist-based approach satisfy the Investment Company Act’s requirements for AP contractual relationships?

The FINRA requirements for broker-dealers participating as APs in tokenized ETFs may need adaptation to address blockchain-specific operational risks and capabilities. ESMA’s DLT Pilot Regime provides more explicit guidance on how AP-equivalent functions should operate on distributed ledger infrastructure in the EU context. The Hong Kong SFC requires tokenized fund structures to maintain AP arrangements equivalent to their traditional counterparts.

The institutional investor guide addresses how investors should evaluate AP arrangements in tokenized structures, and the SEC vs ESMA comparison examines regulatory divergence on AP model requirements across the two largest fund jurisdictions. The SEC publishes ETF regulation at sec.gov.

Operational Cost Comparison

The economic implications of traditional versus tokenized AP models differ across several cost dimensions:

For the European ETF market — which manages approximately EUR 2.1 trillion in assets — the aggregate efficiency gains from tokenized AP models could exceed EUR 500 million annually once adoption reaches critical mass, primarily through settlement cost reduction and working capital optimization.

Implementation Timeline and Transition Architecture

The transition from traditional to tokenized AP models will occur gradually, with several phases:

Phase 1 (current): Tokenized fund products operate alongside traditional ETFs, with separate AP arrangements. Products like BlackRock’s BUIDL ($2.01 billion AUM across 8 chains, listed as collateral on Binance and trading on Uniswap DEX), Franklin Templeton’s BENJI ($1.01 billion AUM across 9 chains with patent-pending intraday yield), and WisdomTree’s WTGXX ($742.8 million AUM, SEC exemptive relief for 24/7 trading granted February 24, 2026) demonstrate tokenized fund operations but do not replace traditional ETF AP mechanics.

Phase 2 (expected 2026-2028): Dual-class ETF structures emerge, offering both traditional and tokenized share classes within a single fund. APs can create and redeem either class, with smart contracts governing the tokenized class and traditional infrastructure governing the traditional class. This dual-class approach enables gradual migration without forcing binary choice.

Phase 3 (expected 2028-2030): Fully tokenized ETFs with native on-chain AP operations launch in jurisdictions with mature regulatory frameworks — likely Switzerland (via SDX), Hong Kong (via HKEX integration), and Luxembourg (under the DLT Pilot Regime). These products demonstrate that tokenized AP models can operate at institutional scale.

Phase 4 (expected 2030+): Regulatory frameworks mature to the point where tokenized AP operations are the default rather than the exception. ESMA technical standards and SEC operational guidelines address tokenized AP mechanics explicitly.

The broker-dealer infrastructure analysis examines the technology and compliance investments that existing AP firms must make to operate in tokenized ETF structures, while the FINRA requirements analysis covers broker-dealer regulatory obligations for tokenized ETF distribution.

For inquiries regarding this analysis: info@etftokenisation.com