Product Overview – User Token for Digital Identity and Web3 provides a modular framework for representing users within blockchain ecosystems. A User Token acts as a portable digital identity that can carry attributes, attestations and permissions across networks and applications. It enables seamless authentication, personalized access, and secure ownership of digital assets in a decentralized world. This overview explains the concept, architecture, use cases, and terminology that underpin modern digital identity in Web3.
User Token is a digital credential that binds a real user, or an entity acting on its behalf, to a cryptographically secured token on a blockchain. It represents identity, reputation, and rights that persist across applications, wallets, and services while maintaining user consent and control. The token can reference cryptographic proofs, verifiable credentials, and attestations issued by trusted authorities, enabling verification without exposing sensitive data. The scope includes onboarding, authentication, authorization, and consent management within decentralized ecosystems, where users own their identity and can selectively disclose attributes as needed. Unlike traditional login systems, a User Token operates in a decentralized trust model where no single central authority controls access. The token can be minted, updated, revoked, or delegated according to policy rules embedded in smart contracts or identity gateways. It supports cross-platform interoperability so that a user can prove eligibility, ownership, or rights to services in different DApps with a single portable identity. The design integrates with Decentralized Identity standards, Verifiable Credentials, and secure wallet-based authentication, reducing friction while improving security and privacy. Finally, the tokenization of identity enables new business models that hinge on user-centric control, consent, and portable credentials. Tactical deployment guides emphasize privacy preserving techniques such as zero knowledge proofs and selective disclosure to minimize data leakage. Governance rules in the token contract define revocation, renewal, and recovery flows to maintain trust. Organizations adopting User Token strategies align with compliance, interoperability, and user autonomy to unlock scalable identity solutions.
Core Components and Architecture describes how a User Token system is built to balance security, privacy, scalability, and interoperability. The architecture includes a token smart contract layer that encodes ownership, issuer and policy data, a credential reference store for attestations, and a policy engine that governs authentication and access controls. An identity gateway coordinates user consent, presents proofs to verifiers, and mediates interactions with wallets and DApps. The system also encompasses off-chain data references, attestation services, and privacy layers that minimize exposed information while preserving verifiability. The overall design emphasizes modularity, with well-defined interfaces between identity modules, credential services, and application layers. Interoperability standards and verifiable credential formats enable cross-chain and cross-domain usage, while security practices such as key management, revocation mechanisms, and auditable event history provide resilience against compromise. The architecture supports scalable onboarding for millions of users by leveraging off-chain storage and selective disclosure, while anchoring critical proofs on-chain to preserve trust. Governance and upgrade paths ensure the system can evolve without breaking existing integrations, and monitoring tools provide visibility into token state, attestation validity, and access events across ecosystems.
On-chain components form the verifiable core of the User Token system. They store the token state, issuer, owner, and cryptographic proofs that enable trustless verification by any compliant verifier. On-chain data provides a durable, tamper resistant audit trail and public attestations that wallets and DApps can validate instantly. Off-chain components carry sensitive attributes, larger credential payloads, or privacy-preserving claims that should not appear on the public ledger. These may reside in decentralized storage, encrypted databases, or privacy layers implemented with zero knowledge proofs. The trade-offs are clear: on-chain data is secure and auditable but incurs gas costs and slower updates; off-chain data reduces cost and preserves privacy but requires reliable binding to the on-chain token to prevent mismatch and spoofing. A practical hybrid approach anchors essential proofs on-chain while keeping detailed personal data off-chain, with secure references to attestations. This design supports scalable identity management, ensures data minimization, and enables controlled data sharing across DApps and services. Proper governance rules define when data can be added, updated, or revoked, and who can authorize disclosures, which is critical for regulatory compliance and user trust.
Smart contract modules in the User Token system are designed to be interoperable and replaceable. A typical reference architecture includes an IdentityRegistry contract that records token ownership and issuer, a CredentialStore that holds attestation references, and an AccessControl module that enforces permissions across apps. A TokenGateway handles minting, renewal, and revocation in a controlled manner, while a WalletBridge enables secure interaction with user wallets and signing flows. Additional modules such as Verifier, RevocationRegistry, and AuditTrail support compliance, transparency, and trust. Interaction patterns involve the user presenting a cryptographic proof to a verifier, which checks the on-chain registry and the attached credentials. Oracles and identity providers may supply attestations or attest the validity of external data. The architecture emphasizes modularity: each component has a clear responsibility, a defined interface, and upgrade paths through proxy patterns. Front-end DApps interact with contracts through standardized APIs and wallet integrations, enabling smooth user experiences across ecosystems. Data flows start with secure wallet authentication, proceed to token validation, and culminate in permissioned access to resources, all while preserving user consent and privacy and maintaining an auditable trace for governance and compliance.
Real world deployments show how User Token enables identity driven workflows across sectors. They illustrate benefits such as faster onboarding, stronger consent control, and safer data sharing between users and services. The following cases outline representative uses:
Across sectors, tokenized identities enable faster onboarding, stronger consent control, and safer data sharing between users and services. These scenarios illustrate the flexibility and impact of User Token structures while highlighting privacy and interoperability considerations.
User Token is a portable digital identity credential anchored in a blockchain that enables verified access and credential sharing with user consent. Digital Identity refers to the digital representation of a person or organization, including verified attributes, credentials, and control over disclosure. Decentralized Identity is an approach where individuals manage their own identifiers with cryptographic proofs rather than relying on centralized authorities. Verifiable Credentials are cryptographically signed attestations that a verifier can check against a public or semi public registry. A DID, or Decentralized Identifier, is a globally unique identifier controlled by the subject rather than a central authority. Smart Contracts are programmable agreements that enforce rules for token issuance, revocation, and access control. A Crypto Wallet is a secure software or hardware device that holds public and private keys and presents proofs to services. On-chain means data stored on the blockchain ledger; Off-chain means data stored outside the blockchain, often with references on chain. Tokenization is the process of turning real world or abstract properties into transferable digital tokens. Access Control Solutions specify who can perform actions and access resources based on identity and policy. DApps are decentralized applications that rely on blockchain networks and smart contracts for function. Attestations and Verifiable Credentials enable trust without exposing sensitive data. Authentication is the process of proving identity, while Authorization determines what actions are allowed. Identity Management encompasses the processes and technologies to create, maintain, and retire user identities in a secure, compliant manner. The glossary here aims to reduce ambiguity and align teams on standards to support interoperable, privacy-respecting identities in Web3.
User Token is a foundational element for digital identity in Web3, enabling secure, portable identities across DApps and blockchains. This section outlines the core features, architectural principles, and technical specifications that drive decentralized authentication, attestation, and access control. We explore token standards, interoperability, performance, and developer tooling to ensure scalable identity solutions that work across wallets, smart contracts, and decentralized services. By harmonizing identity data with cryptographic proofs and privacy-preserving techniques, User Token supports seamless user experiences while preserving user sovereignty. The goal is to deliver a robust framework for decentralized identity that integrates with crypto wallets, DApps, and enterprise use cases without compromising security or user consent.
Identity verification within User Token relies on verifiable credentials anchored to a user’s digital identity. Attestations are issued by trusted entities—such as KYC providers, educational institutions, or corporate verifiers—and cryptographically bound to the token profile. Verification flows leverage a combination of on-chain attestations and privacy-preserving proofs, enabling lightweight authentication without exposing sensitive data. The design emphasizes user consent, revocation capabilities, and time-bound validity to prevent stale credentials from compromising access control.
During onboarding, a user links a wallet to a Decentralized Identifier (DID) and selects attestation sources they trust. When a service requests proof, the user can present a verifiable credential or a zero-knowledge proof that confirms attributes such as age, nationality, or membership without revealing raw data. Attesters publish revocation lists and maintain attestation quality through governance processes, while relying on cryptographic signatures to ensure authenticity and integrity. The result is a flexible, consent-driven verification flow that scales with DApps and cross-chain identity use cases.
Verification flows must accommodate diverse requirements—from high-assurance KYC in financial services to lightweight access checks for community platforms. On-chain verification can anchor the attestation onto smart contracts for automatic evaluation, while off-chain checks preserve privacy where possible. Integrations typically involve issuing an attestation with a signature by the attester, encoding it into a credential standard, and presenting it through a wallet or identity hub. Revocation, expiry, and update mechanisms ensure that credentials stay current and that compromised attestations can be invalidated rapidly.
By combining these verification primitives with Decentralized Identity concepts, User Token enables interoperable authentication across DApps and ecosystems, supporting responsible access control without centralized chokepoints. The approach aligns with privacy and security best practices while embracing the flexibility required by Web3 solutions. In practice, developers can orchestrate verification flows through standard attestation formats and smart contract logic, ensuring a scalable foundation for trusted interactions across the blockchain. As identity regulations and technologies evolve, the framework remains adaptable, enabling integrations with new attestation services and emerging identity verification protocols.
Identity token standards provide a modular foundation for on-chain identities, enabling portable authentication across wallets, DApps, and blockchains. The following table compares core standards, highlighting data handling, attestations, and cross-chain interactions.
| Standard | Focus | Strengths | Interoperability Notes |
|---|---|---|---|
| ERC-725 | Identity registry and key management | Extensible on-chain identity, supports multi-key and role-based access control | Works with ERC-725Y/ERC-725X; integrates with DID methods and wallets |
| ERC-735 | Claims and attestations | Verifiable attributes, revocation, delegated attestations | Integrates with ERC-725 for attestations; cross-chain support via bridges |
| W3C DID | Decentralized Identifiers and DID Documents | Universal identity references across ecosystems | Not a token standard; complements on-chain identity; widely supported by wallets and browsers |
| ERC-725Y | Identity metadata | Separated data endpoints; flexible data management | Enhances compatibility with DIDs and VCs; used with off-chain storage |
Together these standards enable modular identity logic, cross-chain attestation, and portable credentials across DApps and wallets.
Performance and scalability are central to delivering a responsive identity layer that can grow with user adoption and cross-chain deployments. Efficient design minimizes on-chain gas while preserving cryptographic security and auditability. To achieve this, a mix of on-chain and off-chain strategies is employed, balancing immediacy with privacy.
These strategies collectively support predictable performance, tighter security postures, and a smoother user experience for identity-enabled Web3 services.
Developers access Identity tokens through a consistent API surface and developer-friendly SDKs, enabling rapid integration into Web3 applications. The API layer exposes identity resolution, attestation issuance, and verification status, with endpoints designed for the common workflows of DApps, wallets, and services that rely on portable credentials.
SDKs are available for JavaScript/TypeScript, Python, and Go, providing client libraries that wrap cryptographic operations, DID resolution, and smart contract interactions. The JavaScript/TypeScript SDK offers React and Node integrations, including hooks like useIdentity and useAttestation to simplify UI development. The Python and Go SDKs support server-side verifications, credential issuance workflows, and automation pipelines for enterprise deployments. Comprehensive examples illustrate wallet connections, credential requests, and verification flows while adhering to security best practices.
Integration guides cover onboarding, testing, and deployment with reference architectures for user-centric identity dashboards, verifier services, and issuer portals. They document credential revocation, attestation key rotation, and lifecycle monitoring, plus testing strategies with mock verifiers and sandbox environments. Security considerations emphasize protecting private keys and API keys, input validation to prevent replay attacks, and rate-limiting to mitigate abuse. The guidelines promote interoperability by advocating standards-aligned credential formats, appropriate DID method selection, and governance models that foster trust across ecosystems.
User Token represents a portable digital identity that lives on the blockchain. It enables users to authenticate, authorize, and prove attributes across Web3 applications without repeatedly sharing sensitive data. By tokenizing identity, organizations can offer seamless access to DApps, marketplaces, and services while preserving user control. This approach combines digital identity, privacy best practices, and cryptographic proofs to improve trust at scale. The discussion here covers the benefits, security considerations, privacy protections, and regulatory implications of adopting User Token in modern Web3 ecosystems.
Privacy-preserving designs for User Token start with the premise that identity is powerful when it can be proven without exposing sensitive data. Zero-knowledge proof systems enable a user to demonstrate a property, such as being a member of a trusted group, without revealing membership lists or personal attributes. This capability reduces data exposure and friction for users, especially when interacting with multiple DApps and services. Selective disclosure complements this by letting a user reveal only the minimum attributes needed to authorize an action. Together, these patterns create trust without unnecessary data sharing.
Implementations commonly rely on verifiable credentials and decentralized identifiers. A credential issued by a trusted authority can be carried by a user across ecosystems, and a verifier can check the validity of the credential using cryptographic proofs rather than querying a centralized database. The addition of zero-knowledge proofs allows the verifier to confirm statements about the credential holder without learning underlying data. Revocation mechanisms, short-lived credentials, and consent-first flows further ensure that shared data remains under the user’s control, even as trust requirements evolve.
From a privacy architecture perspective, data minimization is a guiding principle. Identity attributes are kept out of on-chain storage whenever possible, and pointers or hashes reference off-chain assets instead of the data itself. Standards bodies and open protocols, such as W3C DID and VC, promote interoperability while upholding privacy by design. In practice, this means careful separation of identity claims, access policies, and application logic, so every system component knows only what it needs. Auditable privacy controls, including governance around attribute schemas and disclosure policies, reinforce accountability without sacrificing user autonomy.
Performance and scalability are important considerations in privacy-preserving designs. Zero-knowledge calculations may add computational load and latency, so developers adopt layered architectures, cached proofs, and verifier-efficient protocols. Hardware wallets, secure enclaves, and MPC-based key management reduce exposure risk during disclosure. Education and onboarding are essential, since users must understand what is being proven and what data remains private. Network operators and service providers should implement clear consent dialogs, transparent disclosure logs, and regular privacy impact assessments to ensure the system remains compliant with evolving expectations and regulations.
Real-world deployments illustrate that privacy is a shared responsibility among issuers, users, and validators. By documenting disclosure policies, auditing proof flows, and monitoring for anomalous linkability, ecosystems can preserve privacy without compromising the ability to verify identity when required.
Security measures for User Token must address the full threat surface, including cryptographic weaknesses, user behavior, and system integration points. A rigorous threat model starts by identifying asset classes such as private keys, seed phrases, credential data, and the smart contracts that govern access. It maps actors from opportunistic attackers to insiders and evaluates potential impact on confidentiality, integrity, and availability. By articulating this map, teams can prioritize defenses, set measurable security objectives, and align controls with business risk appetite. Regular risk assessments and threat intelligence sharing help keep defenses current as new attack patterns emerge.
Key management is central to protection. Exposure of seed phrases or wallet keys leads to immediate token loss and credential misuse. Deploying hardware wallets, passphrase protection, and multi-party computation reduces single points of failure. Threshold signatures and MPC enable distributed signing and recovery flows that tolerate partial compromise. Recovery processes must resist social engineering while preserving user convenience, and key lifecycles should include rotation, revocation, and secure backups. Continuous monitoring and anomaly detection further reduce blast radius by triggering automatic revocation when suspicious activity is detected.
Smart contract and protocol risks include bugs, misconfigurations, and unsafe interactions across modules such as authentication, credential issuance, and access control. Formal verification, secure coding standards, and repeated security testing improve resilience. Supply chain risk arises when dependencies or external validators influence identity decisions; diversification, attestation, and external audits mitigate this. Design patterns such as modular architecture, upgradable contracts with careful governance, and fail-safe fallback paths reduce systemic exposure. Incident response planning, runbooks, and simulated breach drills strengthen readiness and shorten disaster response times.
Operational security and monitoring are essential for ongoing resilience. Privacy-preserving designs can be undermined by metadata leakage, social engineering, or misconfiguration, so teams implement strict data minimization, robust access controls, and continuous compliance checks. Logging and tamper-evident records support forensics without revealing sensitive attributes. Encryption, secure channels, and validated cryptographic libraries reduce integration risk, while proof verification exercises confirm that identity claims remain trustworthy. Finally, governance processes—policy reviews, security training, and transparent disclosure practices—help sustain trust as attackers evolve.
Mitigation strategies emphasize defense in depth, regular testing, and rapid incident response. By combining technical controls with disciplined governance, organizations can minimize the probability and impact of security breaches while maintaining user confidence in token based identities.
Regulatory compliance for User Token starts with understanding how privacy, data protection, and digital identity intersect in a decentralized model. The GDPR framework emphasizes data minimization, purpose limitation, and data subject rights, all of which must be reflected in token design, credential issuance, and verification workflows. Token issuers should avoid storing unnecessary personal data on-chain and favor off-chain storage with secure references. Where data must be processed, privacy by design and data protection impact assessments help identify and mitigate risks early in the product life cycle.
Under GDPR, role responsibilities must be defined, with controllers and processors ensuring lawful bases for processing, transparency, and user consent where applicable. Technical measures such as pseudonymization, encryption, and access controls reduce identifiability. The right to erasure and data portability pose particular challenges for immutable ledgers, so organizations rely on data minimization, off-chain storage, and revocation of credentials to mitigate exposure while preserving auditability.
The CCPA and similar laws introduce consumer rights to opt out of data sale, request deletion, and access information. For User Token ecosystems, compliance means clear disclosures about data usage, robust opt-out mechanisms, and the ability to revoke credentials where appropriate. Cross-border transfers must follow data protection rules, including adequacy decisions, standard contractual clauses, and transfer impact assessments. By designing modular architectures that isolate or relocate data, teams reduce compliance risk while enabling global identity services.
A formal compliance program includes DPIAs, data processing agreements, third party risk screening, and ongoing audits. Organizations should align with open standards for identity verification, maintain transparent governance over credential issuance, retention schedules, and revocation policies, and implement incident response plans that document data breach notification procedures. By weaving privacy and legal requirements into the product lifecycle, User Token solutions can sustain trust while enabling innovative Web3 identity workflows.
Risks associated with tokenized identities include privacy leakage through cross-service correlation, reliance on external validators, and governance failures that enable abuse of access controls. Mitigation starts with layered privacy controls, strict disclosure policies, and independent verification of identity claims. Regular audits and threat modeling help identify new exposure vectors as ecosystems evolve. Clear remediation paths, incident response playbooks, and transparent communication with users reduce the impact of incidents.
Limitations of current designs include performance overhead, potential user friction, and the challenge of aligning immutable on-chain data with dynamic regulatory rights. Mitigations involve optimizing proof systems, adopting off-chain storage for sensitive data, and using revocable credentials to enforce access without exposing long-term data. Designing modular, upgradable components allows the identity layer to adapt without a full system rewrite.
Mitigation strategies emphasize governance, education, and continuous improvement. Regular security reviews, bug bounty programs, and formal verification of critical paths increase resilience. Clear attribute schemas and standardized cryptographic suites reduce interoperability risk, while retention and deletion policies provide traceable data management. By coupling technical safeguards with robust governance, organizations can balance innovation with responsible risk management for token based identities.
Additional measures include ongoing monitoring, privacy impact assessments, and regulatory horizon scanning to anticipate changes in law and enforcement. Engaging with policymakers, standards bodies, and industry consortia helps align product design with evolving expectations, ensuring that risk is managed proactively rather than reactively.
Even with zero-knowledge proofs, privacy can leak via metadata, timing, or cross-service linkage. Observers can correlate interactions across unrelated services by analyzing transaction patterns, address reuse, or shared attributes. To mitigate, organizations should minimize metadata, rotate identifiers, batch disclosures, and enforce strict disclosure policies. Use of ephemeral wallets and separate signing keys for different contexts also reduces cross-domain linkability. Regular privacy impact assessments and external privacy audits help discover unintended leaks.
Risks arise when keys are lost, stolen, or extracted from devices. Mitigation includes hardware wallets, passphrase protection, and multi-party computation for shared control. Implement strict key rotation and revocation procedures, together with tamper-resistant storage and secure backup strategies. Recovery processes should be resistant to social engineering and have clear authorization workflows. Continuous monitoring for anomalous key use, and rapid revocation of compromised credentials, are essential to limit damage.
Blockchain immutability protects integrity but conflicts with data erasure requests and regulatory rights. Solutions include keeping personal data off-chain, using cryptographic references rather than raw data, and enabling revocation of credentials so access is denied even if data remains on-chain. Governance should define data retention periods, revocation scopes, and deletion workflows for related off-chain records. Cross-consent updates and transparent user controls ensure that users know when and what data may be retained and when it can be safely discarded.
Regulatory landscapes for digital identity are evolving, with harmonization efforts ongoing and jurisdiction-specific requirements. Organizations should map data flows, clarify roles of controllers and processors, and implement contractual safeguards with service providers. Cross-border transfers must follow data protection rules, including adequacy decisions, standard contractual clauses, and transfer impact assessments. By designing modular architectures that can isolate or relocate data, and by maintaining clear documentation, teams reduce compliance risk while enabling global identity services.
Explore how pricing for User Token aligns with your digital identity initiatives across Web3 solutions, enabling secure authentication and decentralized access control for your DApps. Whether you are validating identity on the blockchain, issuing tokens for user ownership, or integrating wallet-based workflows, our plans scale with usage, data needs, and governance requirements. This section details pricing models, what’s included at each tier, and the limited-time offers that help teams accelerate their deployment without compromising security or user experience. We emphasize transparency, predictable billing, and practical value, so product leads, developers, and security teams can estimate costs alongside the potential ROI of decentralized identity and tokenization. By combining flexible pricing with a clear SLA and support options, we aim to make User Token a cost-effective backbone for digital identity across permissioned and public blockchains.
Pricing Models and What’s Included outline a modular ladder designed to scale with the breadth of your digital identity strategy on User Token. At the core, pricing is built around predictable usage metrics that matter for blockchain-based identity: monthly active users (MAUs), API calls, and token issuance events, with additional charges for on-chain verifications and smart contract interactions as needed. The Free Starter tier provides essential identity services, basic authentication, and access to community support, making it suitable for pilots of DApps and sample wallets without upfront costs. As usage grows, Growth and Pro tiers unlock higher quotas, deeper analytics, enhanced security features, and higher-touch support, enabling product teams to ship decentralized identity solutions with confidence. For enterprises with stringent governance, data residency, and custom compliance requirements, Enterprise or Custom Plans can be negotiated to include dedicated onboarding, tailored SLAs, and secure deployment options across multi-region environments.
The inclusions vary by tier but share a common foundation: Decentralized Identity tooling, integration with cryptographic wallets, and robust authentication workflows supported by Smart Contracts and verifiable credentials. All plans include core analytics dashboards, audit logs, and developer tooling that streamline integration with DApps, wallets, and identity providers, while optional add-ons cover advanced risk-scoring, compliance reporting, and dedicated security reviews. The objective is clarity: customers should be able to estimate ongoing costs by considering MAUs, the volume of identity verifications, and the cadence of tokenization events, while understanding what features are available at each level and how they contribute to user experience and security.
Upgrade paths are designed to minimize friction. When teams transition from Free to Growth or from Growth to Pro, they gain higher throughput, faster support response times, and access to preview features that accelerate innovation in decentralized identity management. Clear onboarding timelines and migration guides help ensure a smooth transition for developers, security engineers, and tokenization architects, aligning cost considerations with project milestones and governance reviews.
Enterprise and Custom Plans are designed for organizations that require tailored architectures, strict governance, and multi-region deployments. Alongside standard identity tooling, these plans can bundle private network access, data residency options, and connectors to on-premises identity services or existing SSO providers, ensuring compatibility with your current cybersecurity posture and regulatory requirements. We collaborate to define a bespoke feature set that aligns with your use cases—ranging from large-scale DApps authentication to token-based entitlement management—while maintaining a predictable cost model.
Service-level agreements (SLAs) for enterprise customers cover uptime, incident response, and change-control processes. We offer dedicated security reviews, quarterly penetration tests, and access to compliance artifacts such as SOC 2, ISO 27001, and data processing agreements. Onboarding includes hands-on workshops, architecture reviews, and a phased rollout plan to minimize risk, with a migration path that accommodates existing contracts, data migration needs, and complex identity flows across multiple chains.
Dedicated success management, custom dashboards, and personalized onboarding ensure rapid adoption and measurable outcomes. Our enterprise teams work with security, legal, and product stakeholders to tailor governance, approvals, and reporting cadences, while providing ongoing optimization recommendations for performance, cost efficiency, and interoperability with wallets and smart contracts across ecosystems.
Trial Periods, Free Tiers, and Discounts explain how you can evaluate User Token without long-term commitments. We typically offer a 14-day trial with full feature access to validate your use case, verify identity at scale, and test decentralized access control in your DApps, with no obligation to commit upfront.
Non-profit, educational, and startup initiatives may qualify for targeted discounts or credits during promotional windows, making it easier to pilot digital identity work without compromising security or compliance. The terms are designed to be transparent, with clear eligibility criteria and straightforward renewal rules.
Promotional terms include discounts for annual subscriptions, volume-based pricing for growing organizations, and targeted offers for educational programs or research initiatives. These promotions are time-bound to encourage early adoption and to help you plan a cost-effective migration from prototype to production across Web3 infrastructures.
Billing cycles are flexible, with monthly or annual options that support organizations planning long-term digital identity projects. The billing experience emphasizes clear invoices, multi-entity billing, and transparent usage metrics tied to MAUs, verifications, and tokenization events.
Payment methods include credit cards, ACH, and wire transfers, with invoicing available for enterprise deployments and multi-entity agreements. We support currency options aligned with regional requirements and provide prorated adjustments when plans change mid-cycle.
SLA coverage and uptime commitments are defined by tier, with standard response times for general issues and accelerated responses for Critical Priority incidents. Escalation paths are documented, and you’ll have visibility into performance dashboards and incident post-mortems.
Support options range from Standard support during business hours to Priority and Enterprise levels with 24/7 coverage, dedicated technical account management, and proactive monitoring. Onboarding and quarterly business reviews help ensure ongoing alignment between cost, performance, and product outcomes across digital identity systems and DApps.
