10 Best Obol Network Alternatives for Node Validators

In this article, we will go over the Best Obol Network Alternatives for Node Validators and compare the platforms on the basis of validator technology, DVT support, supported networks, node infrastructure, staking models, security features, integrations, and fees. Obol Network is a distributed Ethereum validation platform.

Validators have different infrastructure and operational requirements. Alternatives discussed include DVT protocols, decentralized staking platforms, managed node providers and institutional staking infrastructure to help readers understand the key differences and choose a suitable validator solution.

What Is Obol Network?

Obol Network is a decentralized infrastructure protocol designed to improve the durability of Ethereum validators using Distributed Validator Technology (DVT). It enables validator duties to be shared between multiple independent operators instead of a single node.

Obol’s distributed validator clusters and threshold signing, plus independent infrastructure, remove single points of failure and increase uptime.

This enables node operators to collaborate to run validators while retaining distributed key management. The network focuses on Ethereum staking and provides an infrastructure for decentralized, fault tolerant validator operations.

Why Look for Obol Network Alternatives?

Diverse DVT Architecture – Validators can evaluate diverse DVT architectures, operator coordination techniques, threshold signing techniques, and cluster designs to identify infrastructure that meets their technical needs.

Multi-Chain Support – The majority of Obol work occurs on Ethereum but there are a handful of options that support validator infrastructure across multiple Proof-of-Stake networks, helping operators manage multiple blockchain staking operations.

Flexible Node Infrastructure – The Options provide different deployment models (self-hosted, cloud-based, managed, institutional infrastructure) giving validators more options for operational management.

Institutional Staking Requirements – Institutional staking providers may need APIs, custody integrations, reporting, compliance controls, dedicated infrastructure, and enterprise support that specialized providers can offer.

Security requirements – When evaluating different validator infrastructure, validators can compare distributed key management, slashing protection, redundancy, client diversity, monitoring, and failover mechanisms.

Pricing & Fees – Operator pricing comparisons are important as different platforms have different fee structures including validator commissions, infrastructure fees, protocol fees or bespoke institutional pricing.

Integration Opportunities – Node operators may want platforms that can provide greater compatibility with staking protocols, custody providers, APIs, wallets, monitoring systems and existing blockchain infrastructure.

Key Points

Alternative	Key Point
SSV Network	Uses Distributed Validator Technology (DVT) with secret-shared validator keys across multiple operators, improving fault tolerance and validator uptime.
Diva Staking	Combines DVT with liquid staking, allowing validators to operate through distributed key shares while maintaining decentralization and resilience.
StakeWise V3	Supports both Obol and SSV-based distributed validators, offering flexible validator infrastructure for operators and staking vaults.
Lido Simple DVT Module	Expands validator decentralization through DVT-powered node clusters and multiple independent operators.
Rocket Pool	Decentralized Ethereum staking protocol that enables node operators to run validators with reduced capital requirements and permissionless participation.
Allnodes	Managed staking infrastructure provider offering reliable validator hosting without requiring extensive server management.
Figment	Institutional-grade staking platform used by professional validators seeking high uptime, monitoring, and enterprise support.
Chorus One	Professional validator service known for multi-chain staking infrastructure, security practices, and institutional validator operations.
P2P.org	Non-custodial staking and validator service supporting multiple proof-of-stake networks with advanced operator tooling.
Kiln	Enterprise staking and validator infrastructure provider offering API-based validator management and institutional staking services.

1. SSV Network

SSV Network is an open-source Ethereum staking network that uses Distributed Validator Technology (DVT) and is decentralized. In 2021, a public testnet was introduced, with a phased mainnet rollout planned for 2023. SSV breaks up the validator keys into multiple KeyShares, which are distributed to independent operators, providing active-active redundancy and eliminating single points of failure.

It is mainly for Ethereum validation, not regular multi-chain staking. Operators provide hardware and infrastructure, and staking services can plug in SSV via its protocol and operator network. The staking model is decentralized and non-custodial. SSV has operator set fees and a network fee which is currently set at 1% of Ethereum APR.

Top Use Cases

1. Ethereum DVT Staking – Great for distributing validator duties among several independent operators, not only one node.
2. Institutional Staking – Ideal for staking providers requiring distributed infrastructure, operator diversity and non-custodial validator management.
3. Solo Staker Redundancy – Allows solo validators to reduce reliance on any one machine by deploying multiple operator nodes.
4. Staking Pool Infrastructure – Can support staking platforms that want to incorporate DVT into their validator architecture.
5. High-Availability Validators – Use when you want the validator to constantly be running and be fault-tolerant. SSV uses threshold signing and key shares so that the full validator key is never reconstructed.

Safety Features

• Threshold Signing – A set threshold number of operators must take part to be able to produce valid signatures.
• Distributed Key Shares – Validator keys are split into several encrypted shares.
• No Single Point of Failure – No one operator owns the entire validator key.
• Audits & Bug Bounty – SSV has security audits and bug-bounty program to check for vulnerabilities in the protocol. ([SSV Network Documentation]

2. Diva Staking

Diva Staking is a protocol focused on Ethereum, which provides liquid staking and Distributed Validator Technology. The DVT implementation was started in 2022 and further enhanced from April 2023. Diva is different from other systems using middleware as it is integrated with the Diva liquid staking architecture.

Its validator technology distributes responsibilities among permissionless operators and employs cryptoeconomic incentives, collateral guaranties, automatic mechanisms to deal with bad operators, and a rotational consensus design. Diva is currently focused on Ethereum and is not a general multi-chain validator platform.

It has a liquid staking system with the infrastructure for distributed validators. Staking rewards are a mix of consensus and execution rewards. Diva says there is no protocol fee, but the operator gets 10% of the total rewards.

Most Popular Use Cases

1. Liquid Staking – Users can stake ETH and receive divETH without having to run their own validator.
2. Distributed Ethereum Validation – Designed to run Ethereum validators on its DVT architecture.
3. Permissionless Node Operation – Best for operators who want to run a node without relying on a traditional centralized validator committee.
4. Low Capital Node Operation – Operators can join with collateral, instead of needing to provide the entire 32 ETH validator deposit themselves.
5. Resilient Staking Infrastructure – Good for systems that require node redundancy, automatic recovery, and distributed validator responsibilities.

Security Characteristics

• Operator Collateral – Operators post collateral to shield stakers from some operator failures.
• MPC-Based Key Generation – Validator key shares are generated without merging the entire private key.
• 2/3 Threshold Consensus – Validators need to have enough Key Shares to meet the signing threshold to perform their duties.
• Self-Healing DVT – The protocol is able to regenerate key shares and remove failing operators, to recover validator liveliness.

3. StakeWise V3

StakeWise V3 is a decentralized Ethereum staking platform where Node Operators create and run Vaults and users delegate ETH through those Vaults. V3 utilizes its Operator Service to run validator infrastructure, and supports Ethereum and Gnosis execution environments through compatible clients such as Nethermind and Besu.

Its infrastructure is built for independent operators, not one centralized validator cluster, with operators running their own execution and consensus nodes. StakeWise also has integrations around liquid staking via osETH and its Vault architecture.

The staking model is permissionless and non-custodial at the protocol level. The fees are set by each Vault, so it will depend on which operator you choose and the terms of the Vault.

Use Cases

1. Independent Ethereum Operators – Best for operators who want to run their own staking Vault.
2. Liquid Staking – Ideal for ETH holders seeking staking exposure via the StakeWise Vault ecosystem.
3. Institutional Vaults Operators can build staking infrastructure that meets particular operational requirements.
4. Ethereum Multi-Client Infrastructure – Best for operators that desire flexibility in the execution-client infrastructure.
5. Custom Staking Services – Great for building staking services with customizable Vault parameters and operator infrastructure.

Security Features

• Non-Custodial Vault Infrastructure – Vaults isolate the staking infrastructure from users’ ETH ownership.
• Validator Key Management – Operator Service handles validator registration, withdrawals and other validator related operations.
• Execution-Client Compatibility – Supports Ethereum execution clients such as Nethermind and Besu.
  Operational Deployment Options – Operator Service can be deployed through binaries, Docker, Kubernetes or source deployment allowing operators to choose their infrastructure model.

4. Lido Simple DVT Module

Lido Simple DVT Module is a module of Ethereum staking infrastructure that plugs distributed validation into Lido’s node-operator architecture. To increase participation from smaller, geographically diverse operators, DVT clusters were used in the implementation of the module. Right now, it’s utilizing a mix of Obol and SSV Network for distributed validator clusters.

Operators are permissioned and need to complete testnet participation before onboarding. There is no bond needed at the moment. The module supports Ethereum, as Lido’s Simple DVT architecture is built specifically for Ethereum validators.

Node operators participate in clusters as multiple operators of a full validator. The module has a 10% total rewards share that is divided between the treasury and module participants depending on the cluster type.

Best Applications

1. Lido Ethereum Validation – Built for distributed validator participation in Lido’s Ethereum staking infrastructure.
2. Home Stakers – Introduces smaller and community-minded node operators into the validator ecosystem of Lido.
3. DVT Cluster Testing – Useful for deployment and operation of DVT clusters using Obol and SSV implementations.
4. Operator Diversity – Encourages more geographic and infrastructure diversity in Lido’s node-operator base.
5. Validator Resilience – DVT clusters provide redundancy between multiple operators instead of relying on a single validator machine.

Security Features

• Operator Diversity – Multiple independent operators reduce risk of dependence on a single infrastructure provider.
• Distributed Validators – Validator duties are shared by multiple operators.
• SSV & Obol DVT The module supports two existing DVT implementations.
• Cluster-Based Operation – Multiple operators collaborate to operate validators, enhancing resilience against isolated infrastructure failures.

5. Rocket Pool

Rocket Pool is a decentralized Ethereum liquid staking protocol that enables users to participate as node operators to operate validator infrastructure. Rocket Pool’s minipool architecture allows node operators to combine ETH they provide with ETH from the protocol, reducing the capital needed compared to a traditional solo validator with 32 ETH.

Its validator infrastructure is comprised of standard Ethereum consensus and execution clients, while the Rocket Pool protocol manages minipools and rewards. The current lower-bond setup uses 8 ETH from the node operator and has RPL requirements dictated by protocol rules.

Rocket Pool runs on Ethereum, not across a range of PoS networks. Staking is non-custodial via intelligent contracts and node operators receive a commission on matched protocol ETH, with the commission parameters determined by the minipool configuration.

Top Use Cases

1. Decentralized Ethereum Staking – For those users who wish to stake Ethereum through a decentralized protocol.
2. Node Operation – For operators that want to run Rocket Pool Smartnodes and minipools.
3. Lower-Capital Validator Operation – Minipools pool ETH with ETH from the protocol’s staking pool to create validators.
4. Liquid Staking – For ETH holders wanting to get exposure to staking through rETH.
5. Multiple Validator Support – Operators can run several minipools on just one Rocket Pool node infrastructure.

Security Features

• Minipool Intelligent Contracts – Each validator is associated with a minipool, managed by a smart contract.
  Doppelgänger Detection – Smartnode tooling helps prevent accidental duplicate validator operation.
• Dedicated Node Guidance – Rocket Pool recommends dedicated machines to reduce operational security risk.
• Client Diversity – Smartnode supports multiple execution and consensus client configurations

6. All nodes

Allnodes is a non-custodial Web3 infrastructure and node-hosting platform that launched in 2018. It offers validator nodes, full nodes, archive nodes, RPC endpoints, monitoring and bare metal infrastructure on 90+ networks.

Allnodes runs validator nodes for Ethereum, but the users hold their withdrawal credentials and staking assets. It takes care of server management, uptime, updates and monitoring via its infrastructure so operators don’t need to maintain physical hardware themselves.

Supported projects include Ethereum, Rocket Pool, SSV Network, Obol and many other networks. It proposes a hybrid node hosting & staking services model. Ethereum validator hosting from around $5/month, specialized networks and configurations have different prices.

Best Use Cases

1. Managed Validator Hosting – Useful for users who do not want to manage the physical validator infrastructure.
2. Multi-Chain Node Hosting – Validator and full-node infrastructure for various blockchain protocols.
3. Ethereum Staking Infrastructure – For those looking for hosted Ethereum node infrastructure.
4. Full-Node Hosting – Useful for developers and operators who need maintained blockchain full or archive nodes.
5. Node Monitoring – Best for operators who want to monitor the infrastructure and receive notifications through supported communication channels.

Safety Features

• Non-Custodial Options – Allnodes provides an option based on hardware wallets for customers who would like to keep control of operator addresses.
  Multilayer Monitoring Hosting nodes are monitored by monitoring systems to detect operational problems.
• Sentry Nodes – Sentry infrastructure can provide an extra layer around validator nodes.
  Global Infrastructure – Full node infrastructure is dispersed across multiple locations to ensure operational resilience.

7. Figment ( figment )

Figment is an institutional staking infrastructure provider founded in 2018 in Toronto. It is not a consumer-focused DVT protocol, but a validator infrastructure, staking APIs, rewards reporting, and institutional staking services. Figment provides infrastructure and API products to support Ethereum, Solana, Polkadot, Polygon, Cosmos, Cardano, Avalanche, NEAR, Sui, and other Proof-of-Stake networks.

Its validator infrastructure has been audited for operations and for slashing protection. The Staking API standardizes staking workflows across supported protocols and Rewards APIs provide standardized performance data.

Staking is non-custodial, so clients keep control of their keys. Figment typically uses institutional or custom commercial pricing, rather than publishing a universal retail validator-hosting fee.

Top Use Cases

1. Institutional Staking – For asset managers, exchanges, custodians, wallets and other institutional players.
2. Multi-Chain Staking – Provides staking infrastructure for many Proof-of-Stake networks.
3. Staking APIs – Useful for platforms which want to integrate staking features in a programmatic way.
4. White-Label Staking – For companies who want to provide staking with their own user experience.
5. Enterprise Validator Management – Ideal for organizations that require infrastructure, rewards tracking, and slashing protection.

Features of Security

• Slashing Protection – Figment has controls in place to reduce the risk of validator slashing.
• SOC 2 Type II – Has SOC 2 Type II controls in its security program.
• ISO 27001:2022 – Figment is ISO 27001 certified for information-security management.
• Infrastructure Redundancy & Key Management – Its security program consists of redundant infrastructure, key management, network security and incident-response controls

8. Chorus one

Since 2018, Chorus One has provided institutional Proof-of-Stake infrastructure. Its services include enterprise staking, public validator nodes, and infrastructure and staking related products for multiple blockchain networks. Chorus One supports more than 30 protocols including Ethereum, Solana, Cosmos, Celestia, Avalanche, and NEAR.

It has a professionally operated validator infrastructure with network-specific monitoring and operational tooling and enterprise customers can get custom staking infrastructure. The platform also provides institutional products such as OPUS for Ethereum staking.

Its staking model is less of a DVT protocol, directly comparable to SSV or Obol, and more of a non-custodial infrastructure and delegation model. Chorus One does not charge a single fee for all services. Pricing and validator commissions differ by network, asset and institutional arrangement.

Best Applications

1. Institutional Staking – for Funds, Exchanges, Custodians, Asset Managers and other professional users.
2. Multi-Chain Validation – Perfect for institutions staking across multiple PoS networks.
3. Ethereum Institutional Staking – offers institutional Ethereum staking through its OPUS product.
4. Custody Integrations – Ideal for organizations seeking staking infrastructure while maintaining their custody arrangements.
5. Enterprise Staking Operations – For organizations who want professional infrastructure, monitoring and reporting.

Security Features

• Hardware Security Models – Chorus One utilizes hardware-based security models to protect infrastructure and keys.
• FIPS 140-2 Compliant Vaults – Its institutional staking infrastructure is built on compliant secure-storage technology.
• Slashing protection logic Controls are used to mitigate the risk of validator misbehavior.
• ISO 27001 Certification – We follow an ISO 27001-certified framework for our security and data-control processes.

9. P2P.org

Founded in 2018, P2P.org is a non-custodial staking infrastructure provider for 40+ Proof-of-Stake networks. Its infrastructure includes validator nodes, staking APIs, dashboards, reporting, monitoring and white-label staking solutions for institutions, wallets, exchanges and custodians. Supported networks include Ethereum, Solana, Polkadot, Cosmos, Cardano, Polygon, Celestia, NEAR, Aptos, Sui, and more. Native staking or DVT staking with SSV for Ethereum customers.

DVT for distributed validator infrastructure. P2P.org has integrations as well, like its Staking API and integrations with custody platforms. “Usually, fees are deducted from rewards, not principal. It currently charges a 5% Ethereum standard fee for vanilla staking and a 7% fee for SSV DVT staking.

Best Usecases

1. Institutional Staking – For institutions, asset managers, exchanges, wallets and custodians.
2. Ethereum DVT Staking – Offers SSV-based distributed validator staking for Ethereum.
3. Multi-Chain Staking – Support for more than 40 Proof-of-Stake networks.
4. White-Label Staking – Perfect for platforms and wallets that want to incorporate staking into their own interface.
5. Staking API Integration – For those that want programmatic access to the staking infrastructure.

Security Aspects

• Non-Custodial Architecture – Clients always have control of their assets and private keys.
• SSV DVT – Ethereum DVT distributes validator responsibilities across various operators.
• Redundant Infrastructure – P2P.org runs redundant validator infrastructure with ongoing monitoring.
  SOC 2 Type II – Its existing security framework has SOC 2 Type II attestation

10. Kiln

Kiln is an institutional staking infrastructure provider, offering validator operations, staking APIs, dashboards, and integration tools across major Proof-of-Stake networks. Its platform supports many networks including Ethereum, Solana, Polygon, Polkadot, Cosmos, Cardano, Avalanche, Near, Celestia, Sui, Sei, Tezos, Tron and many more.

Kiln provides specialized validator infrastructure and Ethereum staking in pooled and vault-based options. Its Connect product offers a single interface for staking transactions, rewards data and custody integrations, removing the need to build network-specific infrastructure.

Kiln is a non-custodial service provider, which means that customers maintain control over their assets while utilizing its infrastructure. There is no one public fee for validators; pricing is usually commercial and specific to the network. Institutional arrangements will vary depending on the service and the volume of staking.

Top cases of use

1. Institutional Staking – For asset managers, custodians, exchanges, wallets and fintech companies.
2. Dedicated Ethereum Validators – For companies that need their own 32+ ETH validator infrastructure.
3. Multi-Chain Staking – Infrastructure for staking across multiple Proof-of-Stake networks.
4. Staking API integration – Good for platforms that want to introduce programmatic staking functionality.
5. White-Label Staking – Great for businesses wanting to offer staking or yield services via their own products.

Security Features

• Non-Custodial Architecture – Customers can keep custody via their existing wallet or custody provider.
  Multi-Cloud Infrastructure Kiln uses infrastructure across multiple cloud environments for operational resiliency.
• SOC 2 Type II – One of the current institutional security standards is SOC 2 Type II.
• Audits, Penetration Tests & Bug Bounties – Kiln says its security program includes smart-contract audits, penetration testing and bug-bounty programs

Obol Network Alternatives: Key Differences

Alternative	Primary Focus	DVT / Validator Model	Network Support	Infrastructure Model	Staking Model	Main Difference From Obol
SSV Network	Distributed Ethereum validation	DVT with distributed KeyShares and multiple operators	Primarily Ethereum	Decentralized operator network	Native ETH staking infrastructure	Similar DVT approach but uses its own operator and KeyShare architecture
Diva Staking	Liquid staking + DVT	Distributed validators with permissionless operators	Ethereum	Distributed operator infrastructure	Liquid staking with divETH	Combines DVT directly with a liquid-staking protocol
StakeWise V3	Custom staking Vaults	Validator operators run Vault-based infrastructure	Ethereum-focused	Self-operated Vault infrastructure	Liquid staking with osETH	Focuses on customizable staking Vaults rather than standalone DVT middleware
Lido Simple DVT Module	Distributed validation for Lido	DVT clusters using Obol and SSV	Ethereum	Lido-managed operator framework	Liquid staking through Lido	Integrates DVT into Lido’s staking ecosystem
Rocket Pool	Decentralized Ethereum staking	Minipool-based validator model	Ethereum	Independent Smartnode operators	Liquid staking with rETH	Uses minipools rather than a DVT cluster architecture
Allnodes	Managed node hosting	Hosted validator/node infrastructure	90+ blockchain networks	Managed/cloud infrastructure	Staking and node hosting	Broader multi-chain hosting rather than primarily DVT
Figment	Institutional staking	Professional validator infrastructure	Multiple PoS networks	Managed institutional infrastructure	Institutional staking	Emphasizes enterprise staking, APIs, and infrastructure services
Chorus One	Institutional staking infrastructure	Professional validator operations	30+ networks	Enterprise-grade managed infrastructure	Institutional staking	Broader institutional and multi-chain focus
P2P.org	Institutional staking + infrastructure	Standard validators and Ethereum DVT via SSV	40+ PoS networks	Managed and API-based infrastructure	Institutional staking	Combines multi-chain staking with SSV-based DVT
Kiln	Enterprise staking infrastructure	Dedicated and managed validators	Multiple PoS networks	Institutional, API, and cloud infrastructure	Institutional staking	Focuses strongly on APIs, custody integrations, and enterprise staking
Obol Network	Distributed Ethereum validation	DVT using distributed validator clusters	Ethereum-focused	Distributed operator clusters	Native Ethereum validation	Core DVT infrastructure focused on resilient, multi-operator Ethereum validators

Conclusion

Obol Network competitors offer alternative ways to build reliable and secure validator infrastructure. SSV Network and Diva Staking are big on distributed validation. StakeWise V3 and Lido Simple DVT, in contrast, are staking products that use specialized validator architectures.

Rocket Pool has a decentralized minipool model whereas Allnodes, Figment, Chorus One, P2P.org, and Kiln focus on managed or institutional staking infrastructure. Some of the major differences are DVT implementation, supported networks, node deployment, staking models, integrations, security mechanisms, and fees.

Before selecting another, Validators should weigh these factors against their infrastructure needs, network coverage, operational preferences, custody model, and anticipated scale of staking.

FAQ