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Guides

How to Architect a Token to Pass the Howey Test

A developer-focused guide on structuring token economics, distribution, and smart contracts to mitigate securities law risks. Includes practical code snippets and legal considerations.
Chainscore © 2026
introduction
LEGAL ENGINEERING

Introduction: The Developer's Guide to Token Legal Design

A technical framework for designing tokens that align with regulatory requirements, focusing on the Howey Test as a primary legal benchmark.

For developers, a token is a smart contract with programmable logic. For regulators, it is a potential investment contract subject to securities laws. The Howey Test, established by the U.S. Supreme Court, is the critical framework used to make this determination. It defines an investment contract as: (1) an investment of money, (2) in a common enterprise, (3) with a reasonable expectation of profits, (4) to be derived from the efforts of others. If your token's economic design triggers all four prongs, it is likely a security under U.S. law.

Architecting a token to avoid being a security requires designing its functionality to fail one or more prongs of the Howey Test. The most common technical strategies target prongs three and four. To negate the expectation of profit, design the token's primary utility to be immediate consumption or access, not price speculation. For example, a token that acts solely as a gas token for a blockchain, a governance token for protocol parameter votes without profit-sharing, or a non-fungible token (NFT) representing unique digital art can be structured to emphasize utility over investment.

To break the dependency on the efforts of others (prong four), the protocol must be sufficiently decentralized and functional at launch. This means the core development team's ongoing managerial efforts should not be the essential driver of the token's value. Technical implementations include deploying immutable, autonomous smart contracts, ensuring the network is fully operational for its intended use, and decentralizing governance to token holders or a DAO before the token is widely distributed. The goal is to create a system where value accrual is a function of network usage, not promotional promises from a central team.

Consider real-world examples. Filecoin's FIL token, which facilitates decentralized storage, was structured with a clear utility purpose (paying for storage) but faced scrutiny due to its initial fundraising. In contrast, MakerDAO's MKR governance token, which manages the DAI stablecoin system, derives its value from the fees generated by the autonomous protocol, not from a central promoter. The architectural difference is in the tokenomics: MKR's value is tied to system performance and governance rights, deliberately distancing it from a passive investment return.

Your technical checklist should include: deploying all core smart contracts with verified, open-source code on-chain; ensuring the network or dApp is fully functional for its stated purpose at token launch; designing token distribution mechanisms (e.g., liquidity mining, airdrops) that do not resemble a capital raise; and documenting the token's consumptive utility within the application's logic. This proactive, code-first approach to legal design is now a fundamental part of building sustainable Web3 projects.

prerequisites
LEGAL AND TECHNICAL FOUNDATIONS

Prerequisites and Legal Disclaimer

Before architecting a token to avoid being classified as a security, you must understand the legal framework and possess the necessary technical skills. This guide outlines the essential knowledge and a critical disclaimer.

The Howey Test is the primary legal standard in the United States for determining whether a transaction qualifies as an investment contract, and thus a security. Established by the Supreme Court in SEC v. W.J. Howey Co., the test has four prongs: (1) an investment of money, (2) in a common enterprise, (3) with an expectation of profit, (4) derived from the efforts of others. If your token offering satisfies all four, it is likely a security under U.S. law. You must be familiar with this test and recent SEC enforcement actions against projects like LBRY and Ripple to understand the regulatory landscape.

From a technical perspective, you need a working knowledge of smart contract development and token standards. Proficiency with Solidity and development frameworks like Hardhat or Foundry is essential. You should understand the core differences between fungible token standards (ERC-20) and non-fungible token standards (ERC-721, ERC-1155), as the token's utility and transferability are key legal considerations. Familiarity with decentralized governance mechanisms (e.g., DAOs using Governor Bravo) is also crucial, as shifting control away from a central promoter is a common strategy to negate the "efforts of others" prong.

Disclaimer: This guide provides educational information about token design and is not legal advice. Blockchain law is complex and rapidly evolving. The application of the Howey Test is fact-specific and subject to interpretation by courts and regulators. You must consult with a qualified securities attorney licensed in your jurisdiction before launching any token. Relying solely on technical design patterns without formal legal counsel carries significant risk of regulatory action, including fines, cease-and-desist orders, and investor lawsuits.

Consider the functional role of your token from the outset. Tokens designed primarily for consumptive use within a functioning network (e.g., for paying transaction fees, accessing software, or representing in-game items) have a stronger argument against being a security. Document this utility clearly in your whitepaper and code. Avoid promotional language that emphasizes potential price appreciation or characterizes purchases as "investments." The SEC's Framework for 'Investment Contract' Analysis of Digital Assets provides critical guidance on these factors.

Finally, ensure you have the tools to analyze your design. This includes legal analysis with counsel and technical analysis through comprehensive testing and auditing. Use tools like Slither or Mythril for static analysis, and engage a professional smart contract audit firm (e.g., OpenZeppelin, Trail of Bits, CertiK) before deployment. A well-architected, secure, and functional token is the foundational technical prerequisite for any subsequent legal arguments regarding its status.

key-concepts-text
SECURITIES LAW

Core Concepts: The Howey Test Prongs

A technical guide for developers on structuring tokens to avoid classification as an investment contract under U.S. securities law.

The Howey Test, established by the Supreme Court in SEC v. W.J. Howey Co., is the primary framework used by the U.S. Securities and Exchange Commission (SEC) to determine if an asset qualifies as an investment contract and thus a security. The test has four prongs: (1) an investment of money, (2) in a common enterprise, (3) with a reasonable expectation of profits, (4) derived from the efforts of others. For a token to avoid being deemed a security, it must fail at least one of these prongs. This guide focuses on the architectural and design decisions developers can make to address each prong.

Prong 1: Investment of Money

This prong is typically satisfied in token sales, as users exchange fiat or other crypto assets for the token. The key legal nuance is that the "investment" must be made in exchange for the security itself. If a token is functionally distributed—such as through airdrops to active network users, rewards for providing compute resources, or purchases for immediate consumption (like in-game currency)—it may not meet this prong. The transaction's economic reality, not just its form, is scrutinized.

Prong 2: Common Enterprise

This involves the pooling of investors' funds, where their fortunes are linked. In horizontal commonality, investor funds are pooled, and profits are shared pro-rata, which is common in many ICO structures. To mitigate this, avoid pooled treasury models where token value is directly tied to a shared asset pool managed by promoters. Architecting a system where token utility and value are decentralized and derived from individual user actions, rather than a collective pool, can help argue against horizontal commonality.

Prong 3 & 4: Expectation of Profits from Others' Efforts

These are the most critical prongs for token architects. The expectation of profit must be primarily from the entrepreneurial or managerial efforts of a promoter or third party. If a token's value appreciates solely from market forces of supply and demand (like Bitcoin) or from the user's own efforts, it may pass. Design tokens with consumptive utility at launch—such as granting access to a software service, functioning as in-app currency, or representing a governance right in a fully functional DAO. The development team's ongoing, essential efforts to drive value are a major red flag.

Technical implementation is key. A token that is fully functional and decentralized at the time of sale is stronger. This means the core protocol should be live, audited, and governed by a decentralized autonomous organization (DAO) where developers no longer control essential functions. Promotional materials must emphasize utility over investment. Avoid language promising future returns, roadmaps tied to developer actions for price appreciation, or staking mechanisms that resemble profit distributions from a common enterprise.

Real-world examples illustrate the spectrum. The SEC deemed Filecoin's 2017 ICO a security due to promises of building a network and investor profit expectations. In contrast, the Ethereum network, particularly post-Merge, is often cited as sufficiently decentralized, where ETH's value stems from its utility as gas, not from the ongoing efforts of a central group. For builders, the path involves prioritizing genuine utility, decentralizing control early, and transparently communicating the token's consumptive purpose, not its investment potential.

LEGAL DESIGN COMPARISON

Security Token vs. Utility Token Design Patterns

Key architectural differences between tokens designed to represent an investment contract and those designed for network utility.

Design FeatureSecurity Token PatternUtility Token Pattern

Primary Purpose

Represents an investment contract or asset ownership

Provides access to a product, service, or network function

Investor Expectation of Profit

Explicitly derived from the efforts of a third party (promoter)

Derived from personal use or network adoption, not managerial efforts

Distribution Mechanism

Regulated offerings (Reg D, Reg A+, Reg S), often to accredited investors

Public sale, airdrop, or earned rewards, often with no purchase requirement

Transferability Restrictions

Typically restricted (e.g., holding periods, KYC/AML gates)

Generally permissionless and freely transferable on secondary markets

Underlying Asset/Revenue Rights

Often tied to equity, debt, real estate, or profit share

No claim to underlying assets or issuer revenue; value is functional

On-Chain Functionality at Launch

Often minimal; acts primarily as a record of ownership

Essential and operational; required to interact with a live protocol or dApp

Typical Legal Framework

Securities laws (e.g., U.S. Securities Act of 1933)

Attempts to qualify under utility or commodity frameworks

Post-Sale Promotional Activity

Heavily restricted to avoid creating a secondary market

Permitted to encourage adoption and usage of the network

mitigating-common-enterprise
TOKEN ARCHITECTURE

Step 1: Mitigating the 'Common Enterprise' Prong

The 'common enterprise' prong of the Howey Test examines whether investors' fortunes are tied together by the promoter's efforts. This guide explains how to architect token utility to avoid creating this legal relationship.

The common enterprise prong is satisfied when investors' funds are pooled, or their fortunes are tied to the success of a promoter's efforts. For token projects, this often manifests as a design where the token's value is explicitly linked to the development and marketing work of a central team. The SEC has argued that a common enterprise exists when a token's functionality is not yet live, making its future value wholly dependent on the issuer's promises. Your architectural goal is to decouple the token's utility from the ongoing managerial efforts of any single entity.

To mitigate this risk, design the token to function within a live, operational network or protocol from day one. The token should grant access to a core service, like paying for compute power on a decentralized cloud, voting on a live DAO's proposals, or serving as the required medium of exchange in an active marketplace. For example, Filecoin's FIL token was integral to its operational data storage network at launch, not a speculative asset for a future platform. This demonstrates utility independent of the Filecoin team's future development work.

Avoid structures that resemble an investment contract. Do not market the token based on the development roadmap of a future platform. Do not create a treasury or fund that uses token sale proceeds to finance development in a way that directly correlates token value with those specific efforts. Instead, document that funds are for general corporate purposes or protocol security. The token's smart contracts should enable its primary utility without requiring further upgrades or actions from the founding team to be valuable.

Implementing decentralized governance early can further disperse managerial influence. Transfer control of protocol upgrades, treasury management, or key parameters to a DAO where token holders vote. This demonstrates that the fortunes of token holders are tied to the collective decisions of a decentralized community, not the promotional efforts of a central team. Reference the MakerDAO and MKR token model, where token holders govern critical system parameters like stability fees and collateral types, fulfilling a utility that exists regardless of the original developers' continued involvement.

Finally, ensure all public communications and documentation—the whitepaper, website, and social media—consistently emphasize the token's current utility and functional role. Avoid promises of future profits derived from the team's work. By architecting a token that is useful at launch within a functioning ecosystem and governed by its holders, you create a strong argument that it is a consumptive or participatory tool, not an investment in a common enterprise.

reducing-profit-expectation
HOWEY TEST COMPLIANCE

Step 2: Reducing 'Expectation of Profits'

This section details how to design a token's economic and utility model to minimize the legal risk of creating an 'expectation of profits' from the efforts of others.

The second prong of the Howey Test asks whether a purchaser has an expectation of profits. For a token to be considered a utility asset and not a security, this expectation must be minimized or eliminated. The key is to architect the token's primary purpose around consumptive utility rather than speculative investment. This means the token's core value should derive from its use within a functional network or application, not from the potential for its market price to increase based on the development team's future work.

To achieve this, the token's design must create a direct, non-speculative reason for holding and using it. Implement mechanisms where the token is the exclusive medium for accessing a service, paying for network resources, or participating in governance. For example, in a decentralized storage network, the token should be required to pay for storing and retrieving data. In a gaming ecosystem, it should be the sole currency for purchasing in-game assets or accessing premium features. This creates a use case that is independent of secondary market trading.

Actively discourage passive holding for price appreciation. This can be done through programmatic design choices. For instance, implement a continuous token burn mechanism tied to usage (e.g., a portion of transaction fees is destroyed), which creates deflationary pressure linked to network activity, not speculation. Avoid marketing language that promises or implies future returns. All communications should focus on the token's utility, network growth, and technological roadmap, not its investment potential or price performance.

Consider the legal concept of a 'consumptive intent' analysis. Document and design for the primary user persona who acquires the token to use it, not to resell it. This intent can be reinforced by requiring token locking or staking for utility purposes, such as staking to run a validator node or to gain enhanced access rights. The economic model should reward active participation (like providing a service) more generously than passive holding, aligning incentives with network utility.

Real-world examples illustrate this principle. Filecoin's FIL token is primarily used to pay for decentralized storage and retrieval; its value is theoretically tied to the cost of that service. Ethereum's ETH is used to pay transaction fees (gas) and is required for staking to secure the network. While both tokens are traded, their fundamental utility provides a strong argument against them being pure investment contracts. Your token's architecture must make its utility equally unambiguous and central to its design.

minimizing-efforts-of-others
TOKEN ARCHITECTURE

Step 3: Minimizing Reliance on 'Efforts of Others'

To pass the Howey Test, a token must not derive its value primarily from the managerial efforts of a central promoter. This section details technical and governance mechanisms to architect a token for true decentralization.

The third prong of the Howey Test examines whether a purchaser expects profits from the entrepreneurial or managerial efforts of others. For a token, this translates to a critical question: does its value and functionality depend on the ongoing, essential work of a core development team or foundation? If the answer is yes, the token is likely a security. The goal is to architect a system where the network's success is driven by a broad, permissionless ecosystem of participants, not a centralized entity. This requires designing for protocol autonomy and community-led governance from the outset.

Technically, this means minimizing or eliminating administrative keys and upgrade mechanisms controlled by a single entity. Use immutable smart contracts where possible, as seen with Uniswap V2's core contracts. If upgrades are necessary, implement a time-locked, multi-signature wallet controlled by a decentralized autonomous organization (DAO). The Lido protocol's Lido DAO is a prime example, where staking parameters and treasury management are governed by LDO token holders. Code should be fully open-source and audited, enabling independent verification and forks, which reduces reliance on the original developers.

Economic and utility design is equally crucial. The token should have a clear, immediate utility within the protocol's function, such as paying for gas (ETH), governing (UNI), or providing collateral (MKR). Avoid models where the sole utility is a claim on future profits from a business. Furthermore, the protocol's core operations should be permissionless and self-sustaining. For instance, a decentralized exchange's liquidity pools and fee mechanisms should operate automatically without manual intervention. The growth of the ecosystem should be fueled by open tooling and APIs that allow third-party developers to build without needing approval from a central team.

Finally, foster a decentralized development and governance pipeline. This involves transitioning roadmap execution and treasury management to a DAO, funding public goods and grants through community proposals, and ensuring no single entity controls essential infrastructure like oracles or front-ends. The progression of the Curve ecosystem, with its Curve DAO controlling fee switches and gauge weights for CRV emissions, demonstrates this principle. Documentation, communication, and decision-making should be transparent and on-chain where feasible, shifting the 'efforts' from a centralized promoter to a distributed network of contributors and users.

SECURITY AND COMPLIANCE

Code Implementation Examples and Risks

Comparison of token contract patterns and their associated legal and technical risks regarding the Howey Test.

Contract Feature / PatternUtility Token (No Profit Rights)Staking / Reward TokenGovernance Token with Dividends

Primary Function

Access to a software service or product

Earn additional tokens for locking assets

Vote on protocol decisions and receive fee revenue

Transfer Restrictions

None (freely tradable)

Often includes lock-up periods

May be restricted to accredited investors

On-Chain Profit Expectation

Common Implementation

ERC-20 with fixed supply, used for in-app purchases

ERC-20 with mintable rewards from a treasury

ERC-20 with snapshot voting and fee distribution logic

Key SEC Risk Factor

Low (if utility is consumptive and immediate)

High (appearance of an investment contract)

Very High (profit-sharing is a hallmark of a security)

Example Code Pattern

function redeemForService(uint256 amount) external

function stake(uint256 amount) external returns (uint256 rewards)

function distributeDividends() external onlyGovernance

Technical Risk

Low complexity, high reliance on off-chain service

Medium complexity (reward math, inflation control)

High complexity (secure voting, fair distribution)

Audit Criticality

Standard

High (economic model exploits)

Critical (governance takeover, fund drainage)

distribution-and-documentation
LEGAL ARCHITECTURE

Step 4: Structuring Distribution and Legal Documentation

This step focuses on designing your token's distribution mechanics and legal framework to demonstrate a lack of investment contract characteristics under the Howey Test.

The distribution method is a critical factor in the Howey analysis. Airdrops to existing community members, rewards for protocol usage, and sales strictly limited to accredited investors under Regulation D are common strategies. The key is to structure the distribution so recipients are not paying money with an expectation of profits from the efforts of others. For example, a retroactive airdrop to past users rewards them for historical contributions, not as an investment in future development.

Legal documentation must explicitly disclaim any profit expectation. Your Token Sale Agreement or Terms of Service should state that the token is a functional utility asset for accessing a network or service, not an investment. Include clear warnings that token value may fluctuate and that the issuer makes no promises regarding development or value appreciation. This documentation creates a formal record of the transaction's intent, which regulators will scrutinize.

Implementing technical safeguards is equally important. Use vesting schedules and lock-ups for team and investor allocations via smart contracts to prevent immediate dumping, which can be seen as promoting speculative trading. For developer grants and ecosystem funds, structure distributions as milestone-based smart contract streams (e.g., using Sablier or Superfluid) that release tokens upon verifiable work completion, tying receipt directly to participation.

Transparency is non-negotiable. Publish a detailed Legal Memo or Disclosure Document that analyzes the token under the Howey Test framework, citing specific distribution features that negate an investment contract. Make all relevant documents—terms of sale, whitepaper disclaimers, and grant agreements—publicly accessible. This proactive disclosure demonstrates good faith and a substantive effort to comply with regulatory guidance, which is a favorable factor in any subsequent analysis.

LEGAL & TECHNICAL GUIDANCE

Frequently Asked Questions on Token Architecture

Answers to common developer questions on structuring tokens to comply with securities law, focusing on the Howey Test and practical implementation.

The Howey Test is a legal framework from a 1946 U.S. Supreme Court case used by the SEC to determine if an asset qualifies as an investment contract and is therefore a security. It matters because if your token is deemed a security, you face stringent registration requirements or must find an exemption.

The test has four prongs:

  1. An investment of money
  2. In a common enterprise
  3. With an expectation of profit
  4. Derived from the efforts of others

If your token offering satisfies all four, it is likely a security. For developers, the primary focus is on prongs 3 and 4: you must architect the token's utility and economic model so that value appreciation is not the primary motivation and is not solely dependent on the founding team's future work.

conclusion
ARCHITECTURAL SUMMARY

Conclusion and Next Steps

Successfully designing a token to pass the Howey Test requires a deliberate, proactive approach from the earliest stages of development. This guide has outlined the key legal principles and technical strategies to consider.

The core takeaway is that utility must be demonstrable and integral to a functioning network. A token that merely represents a claim on future profits from a common enterprise will likely be deemed a security. To mitigate this, focus on functional utility: design tokens for access (like a software license key), governance (with real, non-speculative impact), or as a medium of exchange within a closed ecosystem. The development and marketing narrative should consistently emphasize this utility over potential price appreciation. Documenting these design decisions is crucial for demonstrating intent to regulators.

For technical implementation, consider on-chain mechanisms that enforce utility. For a governance token, integrate it with a decentralized autonomous organization (DAO) framework like Aragon or a custom Governor contract from OpenZeppelin, where votes directly control protocol parameters. For an access token, implement require checks in your smart contracts that gate essential functions. Avoid features that mimic traditional securities, such as automated dividend distributions or buyback programs funded solely from project treasury reserves. The code itself should reflect the token's non-security nature.

Your next steps should involve a multi-disciplinary review. First, conduct a technical audit of your token's smart contracts with a firm like Trail of Bits or CertiK to ensure the code aligns with your stated utility. Second, engage with legal counsel specializing in digital assets for a formal analysis of your specific tokenomics and business model. Finally, plan for long-term decentralization; a token's status can change if the network remains overly reliant on a central team. Resources like the SEC's Framework for 'Investment Contract' Analysis and the HoweyCoin parody site are useful references for understanding regulatory perspectives.

How to Architect a Token to Pass the Howey Test | ChainScore Guides