What are the benefits of tokenizing real world assets, and what are the limits?

Tokenizing a real world asset improves the record of who owns it and how that record is updated: transfers can settle in minutes, at any hour, in small units, with payouts sent by a program and a register every party can read. The limits are everything the record does not control: the legal claim behind the token, the rules on who may hold it, the number of people willing to buy it, and the quality of the asset itself. Each benefit is real under a stated condition, and each one stops at a point that the marketing rarely names.

That is also the reading of the official bodies that have studied the subject. The Financial Stability Board wrote in 2024 that many of the purported benefits of tokenisation have yet to be fully proven, and the International Organization of Securities Commissions concluded in 2025 that efficiency gains are uneven. Both say the benefits depend on conditions, stated here one benefit at a time.

Rules on tokenized assets differ from one country to the next, and nothing here is legal, tax or investment advice. The cost figures in the worked example are illustrative and labelled as such; no return is promised and no product is recommended.

What does tokenization actually change about an asset?

Tokenization changes the register of an asset, not the asset. A building, a loan, a fund share or a bar of gold stays exactly what it was; what moves is the list of owners, which is now kept as tokens on a shared programmable ledger instead of in the books of a registrar, a transfer agent or a custodian.

The International Monetary Fund's 2025 note on the subject puts it in one line: tokenization implies recording and transferring assets on a widely shared and trusted digital ledger that can be programmed. Three properties follow, and every claimed benefit is one of them at work. The ledger is shared, so the parties look at the same record instead of reconciling several. It is always running, so an entry can be made outside business hours. It is programmable, so a rule (who may receive the token, how a payout is divided) can be written into the token and applied without a person in between.

What the sentence leaves out matters as much. The ledger records that an address holds a token. Whether that token is a share, a claim on an issuer, a beneficial interest in a vehicle or only a contractual promise depends on documents and on law, both of which sit outside the ledger. The same applies to price: a ledger records trades, it does not produce buyers.

Does tokenization make settlement faster?

Tokenization can cut settlement from one or more business days to minutes, but only when the cash and the asset are both on a ledger that can move them together, and the speed has a liquidity cost. When the money still travels through a bank, the trade settles at the speed of the bank.

Settlement is the moment the asset and the payment actually change hands. In the United States the standard cycle for most securities trades is one business day after the trade, under a Securities and Exchange Commission rule that took effect in 2024, and private assets such as fund interests or property often take far longer because the register is updated by hand. A token transfer is final within minutes on most networks, and if the payment is also a token, the two can be exchanged in one transaction that either completes entirely or does not happen.

The condition is the cash leg. IOSCO's 2025 report lists the lack of credible settlement assets among the factors that hinder scale: without a form of money on the same ledger that both parties accept, the asset moves in minutes and the payment follows by wire.

The limit is that instant settlement is gross settlement. In a traditional system, a firm's trades for the day are netted and only the difference is paid. Take an illustrative firm that buys three positions for $400,000, $250,000 and $350,000 and sells two for $300,000 and $450,000 on the same day. Netted at the end of the day, it pays $250,000. Settled one by one at the moment of each trade, it must have the cash for each purchase in place first, up to $1,000,000 if the purchases come before the sales. IOSCO notes that atomic settlement may reduce settlement risk but requires pre-positioning of settlement assets, and the FSB warns that it may substantially increase liquidity demands in the system. Speed is bought with idle cash. For a single transfer between two parties this cost is trivial; for an active trading book it is not, and IOSCO records that market participants continue to favour traditional settlement infrastructure.

Does tokenization lower minimums and open an asset to more investors?

Tokenization lowers the technical cost of holding a small unit, so an asset can be offered in $1,000 pieces instead of $100,000 pieces; it does not change who the law allows to buy.

The minimum on a private asset mostly reflects administration: each holder must be identified, recorded and paid. An illustrative $2,000,000 asset sold in $100,000 units has 20 holders; sold in $1,000 units it could have up to 2,000. When the register and the payouts run on a program, the cost of the extra 1,980 lines falls sharply, which is what makes the smaller unit workable. IOSCO found some evidence that tokenized money market funds offer advantages in broadening investor access and fractional ownership.

Three things stay the same. Investor eligibility is set by securities law, and many private offerings remain limited to professional or accredited investors whatever the unit size; a token that enforces a whitelist of approved addresses is applying that rule, not relaxing it. Identity checks are still performed on each holder, by the issuer or by a regulated intermediary. And a small unit of a risky asset is still a risky asset: the FSB observes that fractionalisation combined with weak transparency could lead to excessive risk taking by investors who are not qualified to assess the exposure.

What do round-the-clock transfers and automated distributions really deliver?

A token can be transferred at any hour and a distribution to hundreds of holders can be sent in minutes by a program, which removes cut-off times and most of the per-payment cost. Neither feature makes the underlying asset price itself at night, and neither removes the work of deciding who is owed what.

Round-the-clock transfer is useful where timing matters: posting collateral over a weekend or moving a position between time zones. The condition is that the counterparty and the cash are also available at that hour. The limit is valuation. A fund that holds bonds computes its value when the bond market is open. The FSB points out that stress could be intensified when the reference asset markets are closed while trading of the token is still active: the token keeps trading on a price nobody can refresh, and redemptions for cash still wait for business hours.

Automated distribution is the most concrete saving in the whole list. Income is divided according to the register at a stated moment and paid to every holder, in one run, with an onchain record of each payment. The condition is that holders accept payment in a tokenized form of money and that their addresses have been screened. What does not change is everything upstream: the income must be collected and verified, the amount to distribute must be approved, withholding tax must be computed per holder, and somebody is accountable when the instruction is wrong. A program executes an instruction faithfully, including a mistaken one, and an onchain payment cannot be recalled.

Is a tokenized register more transparent, and what does programmability add?

A tokenized register shows every holder's balance and every transfer to anyone entitled to look, in real time, and programmability lets the transfer rules and the payout formula run without manual steps. Transparency of the register is not transparency of the asset, and a rule written in code is only as good as its drafting and its legal backing.

On a tokenized register, the total supply, the transfers and the distributions are visible and timestamped, which makes an audit of the cap table or of a payout far quicker. Two limits apply. The first is privacy: on a public network balances are visible to everyone, which many institutions will not accept, so permissioned ledgers restrict the view and with it part of the benefit. The second limit is scope. The ledger proves how many tokens exist; it does not prove that the building is insured, that the loan is performing or that the gold is in the vault. Those facts still rest on an auditor, a custodian or a valuer.

Programmability is where the IMF sees both the promise and the new risk. Compliance rules can travel with the token, a transfer can be made conditional on payment, and assets can be combined in ways that are slow to arrange by contract. The same note warns of risks from chains of contingent contracts and from faulty code, and the FSB adds that coding errors may not be easily resolved once deployed.

Does tokenization make an illiquid asset liquid?

Tokenization makes an asset easier to transfer; it does not make it liquid. Liquidity is the presence of buyers willing to pay a price close to value, at the moment the holder wants to sell, and no register creates that.

A token for a share of an apartment building can technically move in a minute. It will move only if someone wants that share of that building, is eligible to hold it, has passed the issuer's checks, and agrees on a price for an asset that is valued perhaps once a year.

The evidence gathered by the standard-setters is consistent. IOSCO's 2025 report states that natively issued tokenized securities have thus far exhibited low levels of secondary market liquidity, and that many of the promised benefits, particularly around secondary market liquidity, are not clearly evidenced. The FSB goes a step further and treats the claim as a risk in itself: a token representing a share of an asset could give a false impression of ample market liquidity.

Where liquidity does improve, the cause is usually something other than the token: an issuer that commits to redeem at net asset value on set dates, a market maker paid to quote, or an underlying asset that was already liquid, such as short-dated government debt. In those cases tokenization speeds up access to liquidity that existed.

Which benefits hold, under what condition, and where does each stop?

Each of the eight commonly claimed benefits holds under one main condition and stops at one main limit, set out below.

What new costs and risks does tokenizing an asset add?

Tokenizing an asset adds four families of cost and risk that a traditional register does not carry in the same form: legal enforceability of the token, smart-contract and key risk, fragmentation across ledgers, and a compliance burden that now runs on two systems.

Legal enforceability comes first because every other benefit rests on it. The FSB notes that the claims token holders have on issuers or underlying assets may lack legal clarity, and that the point at which settlement is considered final may not be clearly defined. IOSCO stresses that where an onchain record and an offchain register coexist, it is essential to understand which of the two is the official legal record. In some structures the onchain transfer has legal effect only once a transfer agent has reconciled it.

The table groups the main new exposures with the control that usually answers each.

Fragmentation deserves a word because it works directly against the liquidity claim. The FSB observes that many ledger platforms cannot transmit and share data with each other, and that a lack of fungibility between tokens could fragment liquidity and cause prices to diverge. An asset issued on three networks has three small pools of holders, not one large one, unless the issuer connects them.

Compliance does not shrink either: the issuer still identifies holders, monitors transfers and withholds tax, now also screens wallet addresses, and often keeps an offchain register alongside the ledger.

What have the BIS, IOSCO, the FSB, the IMF and the OECD written about tokenization?

The five bodies reach the same broad conclusion in different words: the potential efficiency gains are plausible, the evidence so far is thin, adoption is small, and the outcome depends on governance, law and a sound settlement asset.

The Bank for International Settlements and its Committee on Payments and Market Infrastructures, in a report to the G20 in October 2024, wrote that token arrangements could decrease transaction costs and enable innovative use cases. The same report adds that the risks typically associated with financial market infrastructures also apply to token arrangements but may materialise differently, and that improving safety and efficiency will require sound governance and risk management.

The Financial Stability Board, also in October 2024, found that adoption is very low but appears to be growing, and that tokenisation therefore does not currently pose a material risk to financial stability. It named five vulnerabilities to watch if the market grows: liquidity and maturity mismatch, leverage, asset price and quality, interconnectedness, and operational fragilities.

The International Monetary Fund's Fintech Note of January 2025 is the most favourable on mechanics. It finds that tokenization can reduce the costs of issuing, servicing and redeeming assets because fewer intermediaries may be involved, and can lower trading costs through reduced counterparty risk and more flexible settlement. It also warns that shocks could be amplified if institutions become more interconnected, hold lower liquidity buffers or take on more leverage.

The Organisation for Economic Co-operation and Development, in a January 2025 policy paper devoted to the impediments, noted that adoption of tokenisation remains scarce despite growing market enthusiasm.

IOSCO's final report of November 2025 is the most detailed on market practice. It records that efficiency gains are uneven, that many participants still rely on traditional infrastructure for trading and post-trade processes, and that adoption is still limited. It also puts the scale in proportion: about $10 billion of tokenized bonds issued over a decade against roughly $140 trillion outstanding globally. On cost, it observes that the examples do not clearly or conclusively show whether the claimed benefits have been achieved.

What does one distribution to 400 holders cost each way?

In this illustrative example, paying $250,000 of income to 400 holders costs $2,266 through bank transfers and $508 through an onchain distribution on a low-fee network, a saving of $1,758 per run for the issuer. Every figure below is an assumption chosen to show the mechanics, not a market rate; replace each with your own quotes.

The assumptions: a vehicle distributes $250,000 each quarter to 400 holders, an average of $625 each. On the bank route, 340 holders are domestic and paid by batch transfer at $0.40 each, 60 are abroad and paid by international wire at $18 each, the paying agent charges $600 per run, and reconciling returned and misdirected payments takes 6 hours at $75 an hour. On the onchain route, the issuer converts the $250,000 into a dollar stablecoin at 0.10%, screens the 400 receiving addresses at $0.25 each, spends 2 hours at $75 preparing and approving the run, and pays a network fee per transfer of $0.02 on a low-fee network or $1.50 on a busy one.

Two readings of the table matter more than the totals. The bank route is dominated by the 60 international wires, which cost $1,080 of the $1,216 in per-payment fees; a vehicle with only domestic holders would save far less. And the onchain route moves a cost instead of removing it: a holder who needs dollars in a bank account converts the stablecoin personally. If 120 of the 400 holders do so at an illustrative 0.5%, they bear $375 between them, about $3.13 each on a $625 payout. Counting that, the saving across everyone falls from $1,758 to $1,383 on the low-fee network, and from $1,166 to $791 on the busy one.

When does the saving cover the cost of setting up?

On the illustrative figures, the payout saving alone repays the setup in about ten years for 400 holders and in under two years for 4,000 holders. Distribution savings justify tokenization only at scale; below it, the case has to rest on the other benefits.

Assume a one-off setup of $70,000: $40,000 of legal structuring and $30,000 for an independent audit of the token and distribution contracts. With 400 holders and four distributions a year, the issuer saves $1,758 a run, or $7,032 a year, and $70,000 divided by $7,032 is just under ten years.

Now scale the same vehicle to 4,000 holders and $2,500,000 per distribution, with the same mix (3,400 domestic, 600 abroad) and 20 hours of reconciliation on the bank route. The bank route costs $14,260 a run. The onchain route on the low-fee network costs $3,730, most of it the $2,500 conversion. The saving is $10,530 a run, $42,120 a year, and the setup is repaid in about 1.7 years.

The gap widens with the number of holders because the bank route grows with every payment while the onchain route grows mainly with the amount converted. Recurring costs on both sides, such as custody and annual audits, are left out: the example measures the payout run only.

How do you test a tokenization claim before relying on it?

Test a tokenization claim by asking five questions in order: what the token legally is, which record prevails, how the cash moves, who can buy, and what happens when something fails. A claim that survives all five is a benefit; a claim that depends on an unanswered one is a hope.

The order matters: a fast settlement is worth little if the token carries no enforceable right, and a transparent register is worth little if it is not the one a court would read.