This post explains what tokenization standards are and why they matter. I’ll start with what tokens actually are, then move into what token standards do, which families are worth knowing in 2026, and how they map to real institutional use cases.
One thing to note before we get started: whether you work at a bank, an asset manager, or a market infrastructure provider, you do not need to learn every standard. You only need to understand how a small set of them affects issuance, settlement, and control.
Also, I’ll avoid crypto‑bro jargon wherever possible and use practical examples where it helps. There is a glossary at the end to clarify any unavoidable blockchain-specific terms.
In This Guide
- What Is a Token?
- What Is a Token Standard?
- Why Token Standards Matter to Financial Institutions
- Key Tokenization Standards in 2026
- Decision Guide for Tokenization Standards
- Glossary of Terms
What Is a Token?
A useful way to think about tokens (in this context) is to go back to the gold standard.
Under the gold standard, a banknote was not the gold itself. It was a standardised claim on gold held elsewhere, backed by law and by the issuer’s balance sheet. The note made the claim easy to hold, transfer, and settle with, without moving bullion around.
A token plays a similar role to a traditional bank note, but in a digital setting.
Here, a token is a digital unit that represents something you already understand: cash, a security, a fund share, or a claim on some other asset. The underlying asset and legal structure can stay exactly the same. What changes is how the claim is represented and how it moves.
On a shared ledger (for example, a blockchain), that token:
- Sits in an account or wallet instead of on a traditional register
- Moves between parties via transactions submitted to a common network
- Is updated by shared infrastructure rather than a single institution’s database
A tokenised Treasury bill is still a Treasury bill. The banknote representing the claim now lives on shared digital rails rather than solely inside one institution’s systems.
What Is a Token Standard?
A token standard is the rulebook for how those digital “banknotes” behave on a specific network.
It defines, in a consistent way:
- How holdings and balances are represented
- How value moves between parties (which operations exist, who must sign them)
- Which lifecycle actions are available (mint, redeem, freeze, claw back, apply corporate actions)
On Ethereum and similar networks, that rulebook is usually implemented as a token smart contract such as ERC‑20. On Canton, the same idea appears as a set of DAML interfaces like CIP‑56. On Stellar, it is either built‑in asset behaviour or a Soroban contract interface such as SEP‑41.
The vocabulary differs, but the goal is the same: any compliant token on that rail behaves in a predictable way that other systems can rely on.
Note: Despite the name, a smart contract is not a contract in the legal sense. It is a self-executing piece of code that automates specific actions, such as moving a token from point A to point B once certain conditions are met.
Why Token Standards Matter to Financial Institutions
For institutional teams, token standards are about risk, cost, and flexibility, not technical fashion.
They determine:
- Integration effort: Whether every new asset requires fresh code and custom plumbing, or whether you can connect to a familiar interface and focus on product design.
- Operational predictability: Whether operations, risk, and audit can rely on consistent behaviour for transfers, approvals, freezes, and other events, instead of learning a new pattern for each token.
- Compliance and control: How much of your ownership rules, eligibility criteria, and emergency powers can be expressed in the system itself, rather than only in documents and manual procedures.
- Vendor and network optionality: Whether multiple wallets, custodians, and venues can support the same assets without bespoke work, and whether you can move activity if client demand or regulation shifts.
Without standards, every tokenization project looks like a bespoke IT build and a new operational runbook. With standards, adding a new product is closer to adding a new instrument type to systems you already know how to run.
Key Token Standards in 2026
| Standard |
Network / rail |
Main purpose |
Typical use cases |
| ERC-20 |
Ethereum-style networks |
Basic interchangeable token interface |
Stablecoins, basic RWAs, utility tokens |
| ERC-1400 |
Ethereum-style networks |
Security tokens with capital-markets features |
Tokenised equity, bonds, funds |
| ERC-3643 (T-REX) |
Ethereum-style networks |
Permissioned, identity-aware tokens |
Regulated RWAs, private credit, fund platforms |
| CIP-56 |
Canton |
Bilateral, private institutional tokens |
Syndicated loans, collateralised trades, DvP |
| Stellar native |
Stellar base protocol |
Built-in asset issuance and controls |
Payments, stablecoins, corridor RWAs |
| SEP-41 / SAC |
Stellar (Soroban) |
Contract-based token interface |
Programmable RWAs and on-ledger applications on Stellar |
| TIP-20 |
Newer payment-focused rails |
Payments-oriented token standard |
Stablecoin payments, treasury and working capital |
With that mental model, the landscape narrows to a handful of names that cover most serious institutional activity.
You can think in three layers: base Ethereum‑style standards, institutional standards on those rails, and network‑specific standards elsewhere.
Ethereum: ERC‑20
On Ethereum and compatible networks, ERC‑20 is the foundational standard for interchangeable tokens.
It provides:
- A minimal, predictable interface for balances, transfers, and approvals
- A common surface that wallets, exchanges, and applications are built around
You will see ERC‑20 across a wide range of assets, from simple utility tokens to representations of real‑world instruments. Even when more specialised standards are used, they are usually designed to stay compatible with ERC‑20 so existing infrastructure can support them.
For financial institutions, ERC‑20 is the baseline: if you are interacting with assets on these rails, your systems need to understand this interface.
Ethereum: ERC‑1400
ERC‑1400 is a security‑token framework aimed at regulated instruments on Ethereum‑family networks.
It extends the basic ERC‑20 model by introducing:
- The ability to distinguish tranches or restricted positions within a single instrument
- References to off‑chain legal documentation and disclosures
- Controlled operations that let an authorised party apply corporate actions, fix errors, or redeem under defined conditions
This aligns with how existing capital‑markets infrastructure thinks about positions, restrictions, and lifecycle events. If you are exploring tokenised equity, bonds, or funds on these rails, ERC‑1400 is one of the main standards worth understanding.
Ethereum: ERC‑3643 (T‑REX)
ERC‑3643, often referred to as T‑REX, focuses on who is allowed to hold and trade a tokenised asset.
Common features include:
- Linking each holder to an entry in an identity registry that tracks KYC status, jurisdiction, and investor type
- Checking those rules on every transfer so only eligible investors can hold or receive the asset
- Encoding caps, lock‑ups, and regional restrictions directly into the token’s behaviour
This makes ERC‑3643 a natural fit for platforms that want to use public infrastructure while keeping strong investor controls and clear compliance boundaries.
Both ERC-1400 and ERC-3643 are built on top of the ERC-20. They are fully backwards-compatible with ERC-20 so that standard wallets can still display balances. However, they intercept the standard ERC-20 "transfer" function to inject institutional business logic:
- ERC-1400 intercepts the transfer to check for complex financial logic: Are there legal locks on this specific tranche of shares? Do we need to force a clawback?
- ERC-3643 (T-REX) intercepts the transfer to check identity: Is the receiver's wallet linked to an on-chain identity registry? Have they passed KYC in an allowed jurisdiction?
Canton: CIP‑56
CIP‑56 is the token standard used on the Canton Network for institutional‑grade tokens.
It is built around:
- Bilateral “offer–accept” transfers instead of unilateral pushes, so both sides explicitly participate in settlement
- Integration with Canton’s identity and permissioning, so only approved parties can hold or move a given asset
- Atomic Delivery‑versus‑Payment and multi‑leg settlement as a first‑class feature of the network
This suits workflows where counterparties are known, privacy matters, and settlement risk needs to be tightly controlled, such as syndicated loans, collateralised trades, and cross‑application settlement.
Stellar Token Standards
On Stellar, institutions usually encounter two models for tokens:
- Native asset issuance on the base protocol: Assets are defined via issuer accounts, distribution accounts, and trustlines, with issuer‑level flags controlling who can hold and how assets can be revoked or frozen. This is widely used for payment tokens, stablecoins, and corridor‑specific real‑world assets.
- SEP‑41 and Stellar Asset Contracts: On Soroban, SEP‑41 defines a contract‑level interface for tokens, with the Stellar Asset Contract as the reference implementation. This gives you an ERC‑20‑style contract surface while remaining native to Stellar’s ecosystem.
Together, these give you a spectrum from simple, protocol‑level issuance to more programmable contract‑based tokens, depending on how much custom logic and composability you need.
Tempo: TIP‑20
On newer payment‑focused networks, standards like TIP‑20 are emerging for stablecoins and high‑volume payment flows.
They typically:
- Stay broadly compatible with ERC‑20 so existing tools and integrations work
- Add features that matter for payments and treasury: richer metadata, policy hooks for compliance, flexible fee models, and operational controls such as pausing
For corporates and fintechs using tokenised cash as working capital and settlement rails, this class of standard can be more relevant than complex security‑token frameworks.
Token Feature Matrix
| Feature |
ERC-20 |
ERC-1400 |
ERC-3643 |
CIP-56 |
Stellar native |
SEP-41 / SAC |
TIP-20 |
| Allow-list / block-list |
Partial |
Yes |
Yes |
Yes |
Partial |
Partial |
Yes |
| Privacy |
No |
Partial |
Partial |
Yes |
No |
Partial |
Partial |
| Opt-in to receive |
No |
Yes |
Yes |
Yes |
Yes |
Yes |
Yes |
| Offer–accept flows |
No |
No |
No |
Yes |
No |
Partial |
No |
| Pre-approved / delegated transfers |
Partial |
Partial |
Yes |
Yes |
Partial |
Partial |
Yes |
| Forced transfer / clawback |
No |
Yes |
Yes |
Partial |
Yes |
Yes |
Yes |
| Freeze / lock controls |
No |
Yes |
Yes |
Yes |
Yes |
Yes |
Yes |
| Mint / burn controls |
Yes |
Yes |
Yes |
Yes |
Yes |
Yes |
Yes |
| Native DvP / multi-leg workflows |
No |
Partial |
Partial |
Yes |
No |
Partial |
Partial |
Partial = available, but not standardized or depends on how the issuer configures the token.
Read more here: Tokenization Standards: Features Comparison for Capital Markets.
Decision Guide for Tokenization Standards
From an institutional perspective, you can reduce this to a few questions:
- Are you focused on securities and funds on Ethereum‑style networks?
Make sure your teams understand ERC‑20, then look closely at ERC‑1400 and ERC‑3643 for regulated products. - Are you exploring privacy‑sensitive, cross‑institution workflows and settlement?
Evaluate CIP‑56 and Canton’s model for bilateral, private, atomic settlement between known institutions. - Is your priority payments, stablecoins, and corridor‑specific real‑world assets?
Pay attention to Stellar’s asset model and SEP‑41, and to payment‑centric standards like TIP‑20 on newer rails.
You do not need to pick a single standard or a single network for everything.
What you need is infrastructure, custody, and policy tooling that can support several of these families at once, so you can follow liquidity, regulation, and client demand rather than being constrained by the technical choices of your first pilot.
Glossary of Terms
While the shift toward tokenization promises greater efficiency, it also introduces a new vocabulary that can feel disconnected from established financial operations.
The following glossary maps these emerging blockchain concepts to the traditional frameworks you already use, ensuring that technical standards like ERC-1400 or CIP-56 are understood through the lens of institutional risk, control, and settlement.
| Blockchain ecosystem term |
Institutional equivalent / analogue |
What it means in this context |
| Token |
Standardized claim / banknote |
A digital unit representing an asset (cash, securities, or fund shares) held on a shared ledger instead of a single institution’s database. |
| Smart contract |
Self-executing rulebook |
A small program running on a shared ledger that automatically updates balances and states when predefined conditions are met. |
| DAML |
Business workflow language |
A purpose-built language used to describe permissions and workflows (who can do what with an asset) across multiple parties. |
| Minting |
Issuance |
The lifecycle action of creating new digital units of an asset on the ledger. |
| Redeeming |
Retire / cancel |
The lifecycle action of removing a token from the ledger, often triggered by a claim on the underlying asset. |
| ERC-20 / SEP-41 |
Interchangeable interface |
Technical rules that ensure basic tokens (like stablecoins or simple RWAs) behave in a predictable way for wallets and exchanges. |
| Wallet |
Account / digital sub-ledger |
The digital location where a token “sits,” replacing the traditional entry on a centralised register. |
| Atomic settlement |
Instant DvP (Delivery vs Payment) |
A multi-leg settlement where the exchange is simultaneous and conditional, so either everything completes or nothing does. |
| Identity registry |
KYC/AML whitelist |
A system, used in standards like ERC-3643, that tracks investor status and jurisdiction so only eligible parties can hold an asset. |
| Bilateral transfer |
Offer–accept settlement |
A process (standard in CIP-56) where both parties explicitly participate in the move, reducing unilateral settlement risk. |
| Trustline (Stellar) |
Asset opt-in |
A protocol-level setting that defines which specific assets an account is authorised to hold or receive. |