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SOON SVM L2 Deep Dive: Can Solana's Virtual Machine Challenge EVM Dominance on Ethereum?

· 11 min read
Dora Noda
Dora Noda
Software Engineer

When SOON Network raised $22 million through an NFT sale in late 2024 and launched its Alpha mainnet on January 3, 2025, it wasn't just another Layer 2 rollup—it was the opening shot in what could become blockchain's most significant architectural battle. For the first time, Solana's Virtual Machine (SVM) was running on Ethereum, promising 50-millisecond block times against Ethereum's 12-second finality. The question isn't whether this works. It already does, with over 27.63 million transactions processed. The question is whether the Ethereum ecosystem is ready to abandon two decades of EVM orthodoxy for something fundamentally faster.

The Decoupled SVM Revolution: Breaking Free from Solana's Orbit​

At its core, SOON represents a radical departure from how blockchains have traditionally been built. For years, virtual machines were inseparable from their parent chains—the Ethereum Virtual Machine was Ethereum, and the Solana Virtual Machine was Solana. That changed in June 2024 when Anza introduced the SVM API, decoupling Solana's execution engine from its validator client for the first time.

This wasn't just a technical refactoring. It was the moment SVM became portable, modular, and universally deployable across any blockchain ecosystem. SOON seized this opportunity to build what it calls "the first true SVM Rollup on Ethereum," leveraging a decoupled architecture that separates execution from settlement layers.

Traditional Ethereum rollups like Optimism and Arbitrum inherit the EVM's sequential transaction model—each transaction processed one after another, creating bottlenecks even with optimistic execution. SOON's decoupled SVM takes a fundamentally different approach: transactions declare their state dependencies upfront, allowing the Sealevel runtime to process thousands of transactions in parallel across CPU cores. Where Ethereum L2s optimize within the constraints of sequential execution, SOON eliminates the constraint entirely.

The results speak for themselves. SOON Alpha Mainnet delivers average block times of 50 milliseconds compared to Solana's 400 milliseconds and Ethereum's 12 seconds. It settles on Ethereum for security while utilizing EigenDA for data availability, creating a hybrid architecture that combines Ethereum's decentralization with Solana's performance DNA.

SVM vs. EVM: The Great Virtual Machine Showdown​

The technical differences between SVM and EVM aren't just performance metrics—they represent two fundamentally incompatible philosophies about how blockchains should execute code.

Architecture: Stack vs. Register​

The Ethereum Virtual Machine is stack-based, pushing and popping values from a last-in-first-out data structure for every operation. This design, inherited from Bitcoin Script, prioritizes simplicity and deterministic execution. The Solana Virtual Machine uses a register-based architecture built on eBPF bytecode, storing intermediate values in registers to eliminate redundant stack manipulations. The result: fewer CPU cycles per instruction and dramatically higher throughput.

Execution: Sequential vs. Parallel​

EVM processes transactions sequentially—transaction 1 must complete before transaction 2 begins, even if they modify entirely different state. This was acceptable when Ethereum handled 15-30 transactions per second, but it becomes a critical bottleneck as demand scales. SVM's Sealevel runtime analyzes account access patterns to identify non-overlapping transactions and executes them concurrently. On Solana mainnet, this enables theoretical throughput of 65,000 TPS. On SOON's optimized rollup, the architecture promises even greater efficiency by eliminating Solana's consensus overhead.

Programming Languages: Solidity vs. Rust​

EVM smart contracts are written in Solidity or Vyper—domain-specific languages designed for blockchain but lacking the mature tooling of general-purpose languages. SVM programs are written in Rust, a systems programming language with memory safety guarantees, zero-cost abstractions, and a thriving developer ecosystem. This matters for developer onboarding: Solana attracted over 7,500 new developers in 2025, marking the first year since 2016 that any blockchain ecosystem surpassed Ethereum in new developer adoption.

State Management: Coupled vs. Decoupled​

In EVM, smart contracts are accounts with tightly coupled execution logic and storage. This simplifies development but limits code reusability—every new token deployment requires a fresh contract. SVM smart contracts are stateless programs that read and write to separate data accounts. This separation enables program reusability: a single token program can manage millions of token types without redeployment. The trade-off? Higher complexity for developers accustomed to EVM's unified model.

The Universal SVM Stack: From One Chain to Every Chain​

SOON isn't building a single rollup. It's building the SOON Stack—a modular rollup framework that enables deployment of SVM-based Layer 2s on any Layer 1 blockchain. This is Solana's "Superchain" moment, analogous to Optimism's OP Stack enabling one-click rollup deployment across Base, Worldcoin, and dozens of other networks.

As of early 2026, the SOON Stack has already onboarded Cytonic, CARV, and Lucent Network, with deployments running on Ethereum, BNB Chain, and Base. The architecture's flexibility stems from its modularity: execution (SVM), settlement (any L1), data availability (EigenDA, Celestia, or native), and interoperability (InterSOON cross-chain messaging) can be mixed and matched based on use case requirements.

This matters because it addresses the core paradox of blockchain scaling: developers want Ethereum's security and liquidity, but they need Solana's performance and low fees. Traditional bridges force a binary choice—migrate entirely or stay put. SOON enables both simultaneously. An application can execute on SVM for speed, settle on Ethereum for security, and maintain liquidity across chains through native interoperability protocols.

But SOON isn't alone. Eclipse launched as Ethereum's first general-purpose SVM Layer 2 in 2024, claiming to sustain 1,000+ TPS under load without fee spikes. Nitro, another SVM rollup, enables Solana developers to port dApps to ecosystems like Polygon SVM and Cascade (an IBC-optimized SVM rollup). Lumio goes further, offering deployment not just for SVM but also MoveVM and parallelized EVM applications across Solana and Optimism Superchain environments.

The pattern is clear: 2025-2026 marks the SVM expansion era, where Solana's execution engine escapes its native chain to compete on neutrality with Ethereum's rollup-centric roadmap.

Competitive Positioning: Can SVM Rollups Overtake EVM Giants?​

The Layer 2 market is dominated by three networks: Arbitrum, Optimism (including Base), and zkSync collectively control over 90% of Ethereum L2 transaction volume. All three are EVM-based. For SOON and other SVM rollups to capture meaningful market share, they need to offer not just better performance but compelling reasons for developers to abandon the EVM ecosystem's network effects.

The Developer Migration Challenge​

Ethereum boasts the largest developer community in crypto, with mature tooling (Hardhat, Foundry, Remix), extensive documentation, and thousands of audited contracts available as composable primitives. Migrating to SVM means rewriting contracts in Rust, learning a new account model, and navigating a less mature security audit ecosystem. This isn't a trivial ask—it's why Polygon, Avalanche, and BNB Chain all chose EVM compatibility despite inferior performance.

SOON's response is to target developers already building on Solana. With Solana attracting more new developers than Ethereum in 2025, there's a growing cohort fluent in Rust and SVM architecture who want Ethereum's liquidity without migrating their codebase. For these developers, SOON offers the best of both worlds: deploy once on SVM, access Ethereum capital through native settlement.

The Liquidity Fragmentation Problem​

Ethereum's rollup-centric roadmap has created a liquidity fragmentation crisis. Assets bridged to Arbitrum can't seamlessly interact with Optimism, Base, or zkSync without additional bridges, each introducing latency and security risks. SOON's InterSOON protocol promises native interoperability between SVM rollups, but this only solves half the problem—connecting to Ethereum mainnet liquidity still requires traditional bridges.

The real unlock would be native async composability between SVM and EVM environments within the same settlement layer. This remains an unsolved challenge for the entire modular blockchain stack, not just SOON.

The Security vs. Performance Trade-off​

Ethereum's strength is its decentralization: over 1 million validators secure the network through proof-of-stake. Solana achieves speed with fewer than 2,000 validators running on high-end hardware, creating a more centralized validator set. SOON rollups inherit Ethereum's security for settlement but rely on centralized sequencers for transaction ordering—the same trust assumption as Optimism and Arbitrum before decentralized sequencer upgrades.

This raises a critical question: if security is inherited from Ethereum anyway, why not use EVM and avoid migration risk? The answer hinges on whether developers value marginal performance gains over ecosystem maturity. For DeFi protocols where every millisecond of latency affects MEV capture, the answer may be yes. For most dApps, it's less clear.

The 2026 Landscape: SVM Rollups Multiply, But EVM Dominance Persists​

As of February 2026, the SVM rollup thesis is proving itself technically viable but commercially nascent. SOON processed 27.63 million transactions across its mainnet deployments—impressive for an 18-month-old protocol, but a rounding error compared to Arbitrum's billions of transactions. Eclipse sustains 1,000+ TPS under load, validating SVM's performance claims, but hasn't yet captured enough liquidity to challenge established EVM L2s.

The competitive dynamic mirrors early cloud computing: AWS (EVM) dominated through ecosystem lock-in, while Google Cloud (SVM) offered superior performance but struggled to convince enterprises to migrate. The outcome wasn't winner-takes-all—both thrived by serving different market segments. The same bifurcation may emerge in Layer 2s: EVM rollups for applications requiring maximum composability with Ethereum's DeFi ecosystem, SVM rollups for performance-sensitive use cases like high-frequency trading, gaming, and AI inference.

One wildcard: Ethereum's own performance upgrades. The Fusaka upgrade in late 2025 tripled blob capacity via PeerDAS, slashing L2 fees by 60%. The planned Glamsterdam upgrade in 2026 introduces Block Access Lists (BAL) for parallel execution, potentially closing the performance gap with SVM. If Ethereum can achieve 10,000+ TPS with native EVM parallelization, the migration cost to SVM becomes harder to justify.

Can SVM Challenge EVM Dominance? Yes, But Not Universally​

The right question isn't whether SVM can replace EVM—it's where SVM offers sufficient advantages to overcome migration costs. Three domains show clear promise:

1. High-frequency applications: DeFi protocols executing thousands of trades per second, where 50ms vs. 12s block times directly impact profitability. SOON's architecture is purpose-built for this use case.

2. Solana-native ecosystem expansion: Projects already built on SVM that want to tap Ethereum liquidity without full migration. SOON provides a bridge, not a replacement.

3. Emerging verticals: AI agent coordination, on-chain gaming, and decentralized social networks where performance unlocks entirely new user experiences impossible on traditional EVM rollups.

But for the vast majority of dApps—lending protocols, NFT marketplaces, DAOs—EVM's ecosystem gravity remains overwhelming. Developers won't rewrite working applications for marginal performance gains. SOON and other SVM rollups will capture greenfield opportunities, not convert the installed base.

The Solana Virtual Machine's expansion beyond Solana is one of the most important architectural experiments in blockchain. Whether it becomes a force that reshapes Ethereum's rollup landscape or remains a niche performance optimization for specialized use cases will be decided not by technology, but by the brutal economics of developer migration costs and liquidity network effects. For now, EVM dominance persists—but SVM has proven it can compete.

BlockEden.xyz provides high-performance node infrastructure for both Ethereum and Solana ecosystems. Whether you're building on EVM or SVM, explore our API marketplace for production-grade blockchain access.

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