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Comparisons

Modular Rollup Stack (e.g., Eclipse) vs Monolithic L1 for Game Engine

A technical comparison for CTOs and architects on deploying game logic, analyzing execution, consensus, and data availability trade-offs between modular and monolithic architectures.
Chainscore © 2026
introduction
THE ANALYSIS

Introduction: The Architecture Decision for Game Engines

Choosing between a modular rollup stack and a monolithic L1 is a foundational decision that dictates your game's performance, cost, and development velocity.

Monolithic Layer 1s (e.g., Solana, Avalanche) excel at providing a unified, high-performance environment. Their tightly integrated consensus, execution, and data availability layers offer exceptional throughput (e.g., Solana's 2k-5k TPS for simple transfers) and low, predictable latency. This is ideal for real-time gameplay mechanics where sub-second finality is critical. However, this integration can lead to network-wide congestion and fee spikes during peak demand, as seen in past Solana outages.

Modular Rollup Stacks (e.g., Eclipse, Caldera) take a different approach by decoupling these layers. You execute on a custom VM (like the SVM or EVM) while leveraging a separate chain for security (e.g., Ethereum via EigenDA) and another for data availability (e.g., Celestia). This results in a key trade-off: you gain sovereignty and predictable, ultra-low fees (often <$0.001 per transaction) but inherit the complexity of managing a multi-component system and the latency of cross-layer communication.

The key trade-off: If your priority is maximum performance and simplicity for a fast-paced, high-frequency trading or action game, a battle-tested monolithic L1 is the pragmatic choice. If you prioritize sovereignty, predictable micro-transaction economics, and customizability for a complex economy or web2-style user experience, a modular rollup stack built with Eclipse or Caldera offers a superior long-term foundation.

tldr-summary
Modular Rollup Stack vs. Monolithic L1

TL;DR: Key Differentiators at a Glance

A side-by-side comparison of the two dominant architectural paradigms for building on-chain games, based on performance, cost, and sovereignty.

01

Choose a Modular Rollup Stack (e.g., Eclipse, Caldera)

For games requiring custom execution environments and predictable costs.

  • Sovereign Execution: Deploy a dedicated rollup with a custom VM (e.g., SVM for Unity games). This enables gas-free user transactions and native game logic integration.
  • Predictable Economics: Fixed, low-cost data posting to a Data Availability layer (e.g., Celestia, EigenDA) decouples your costs from L1 congestion.
  • Real Example: A game like Star Atlas uses a custom SVM rollup to handle thousands of in-game asset transactions per second without exposing players to Solana's variable fees.
02

Choose a Monolithic L1 (e.g., Solana, Avalanche)

For games prioritizing deep liquidity and immediate composability.

  • Native Liquidity & Composability: Your in-game assets exist natively in the same state machine as DeFi giants like Raydium or Trader Joe. Enables instant swaps and lending without bridges.
  • Proven Throughput: Leverage a battle-tested, high-TPS chain (e.g., Solana's 5,000+ TPS real-world capacity) without the overhead of managing a new chain's sequencer and validator set.
  • Real Example: A play-to-earn game on Avalanche can have its tokens instantly traded on its native DEX, Pangolin, creating a seamless in-game economy.
03

Modular Rollup: The Cost & Control Trade-off

Pros:

  • Tailored Performance: Optimize the chain for your game's specific needs (e.g., fast block times for real-time actions).
  • Cost Predictability: Data availability costs are stable, shielding you from L1 gas wars.

Cons:

  • Operational Overhead: You are responsible for the sequencer, bridging infrastructure, and network security.
  • Fragmented Liquidity: Assets are siloed on your chain, requiring secure bridges to access broader DeFi ecosystems.
04

Monolithic L1: The Liquidity & Simplicity Trade-off

Pros:

  • Instant Ecosystem Access: Plug into existing wallets (Phantom, MetaMask), oracles (Pyth, Chainlink), and indexers.
  • Reduced DevOps: No need to manage chain infrastructure; focus solely on smart contract development.

Cons:

  • Congestion Risk: Your game competes for block space with all other apps (e.g., NFT mints, DeFi liquidations), leading to variable and potentially high transaction fees.
  • Architectural Constraints: You must work within the limits of the L1's virtual machine (e.g., EVM, SVM), which may not be ideal for complex game state.
HEAD-TO-HEAD COMPARISON

Modular Rollup Stack vs Monolithic L1 for Game Engines

Direct comparison of key technical and economic metrics for game development.

MetricModular Rollup Stack (e.g., Eclipse)Monolithic L1 (e.g., Solana, Avalanche)

Transaction Cost (Avg. In-Game)

< $0.001

$0.01 - $0.25

Time to Finality (for UX)

~2 seconds

~400ms - 2 seconds

Throughput (TPS) for Game Logic

10,000+ (customizable)

2,000 - 65,000 (shared)

Native Customizability (VM, Data)

Sequencer Revenue Capture

Shared Security Model

Ethereum, Celestia, etc.

Native Validator Set

Time to Production (New Chain)

~3-6 months

N/A (Build dApp on L1)

pros-cons-a
MODULAR ROLLUP VS MONOLITHIC L1

Pros and Cons: Modular Rollup Stack (Eclipse, Celestia, Arbitrum Orbit)

Key strengths and trade-offs for game engine integration at a glance.

01

Modular Stack: Sovereign Execution & Customization

Full control over the execution environment. Deploy a dedicated rollup (e.g., Eclipse with SVM, Arbitrum Orbit with Stylus) to run a game-specific virtual machine. This allows for native integration of game engines like Unity or Unreal and custom fee tokens (e.g., in-game currency for gas). Ideal for studios requiring deterministic performance and unique economic models.

02

Modular Stack: Scalability & Cost Predictability

Horizontally scalable throughput. By separating execution from consensus/data availability (DA), you avoid network congestion from other dApps. Using Celestia for DA (~$0.0015 per MB) or Ethereum via Orbit provides sub-cent transaction costs at scale. Critical for games with high-frequency micro-transactions or massive player onboarding events.

03

Monolithic L1: Native Composability & Liquidity

Instant access to a unified liquidity pool and user base. Building directly on Solana or Sui means your in-game assets can be traded on native DEXs (e.g., Raydium, Turbos) without cross-chain bridges. This enables real-time, on-chain economies where assets from other protocols (DeFi, NFTs) can be integrated into gameplay seamlessly.

04

Monolithic L1: Simplified Infrastructure

Eliminates multi-component operational overhead. A monolithic chain provides a single, vertically integrated stack for consensus, execution, and data. This reduces the complexity of managing sequencers, DA layer relays, and bridge security. Best for teams that prioritize developer velocity and want to avoid the DevOps burden of a custom chain.

pros-cons-b
MODULAR ROLLUP STACK vs. MONOLITHIC L1

Pros and Cons: Monolithic L1 (Solana, Avalanche, Sui)

Key strengths and trade-offs for game engine integration at a glance. Choose based on your team's priorities for sovereignty, performance, and ecosystem access.

02

Modular Rollup: Optimized Data Availability

Decouple security from execution costs. Use a high-throughput DA layer like Celestia or EigenDA for ~$0.001 per MB of state data. This matters for games with high-frequency micro-transactions and complex NFT state changes, drastically reducing operational overhead.

< $0.001
DA Cost per MB
03

Monolithic L1: Native Liquidity & Composability

Instant access to a unified liquidity pool and user base. Solana's ~$4B TVL and Avalanche's subnet ecosystem provide deep, native DeFi integrations (e.g., Jupiter, Trader Joe). This is essential for games requiring seamless asset swaps, lending, or staking without cross-chain bridges.

$4B+
Solana DeFi TVL
04

Monolithic L1: Proven High Throughput

Battle-tested, low-latency performance. Solana's 2,000-5,000 TPS with 400ms block times and Sui's parallel execution offer sub-second finality for in-game actions. This matters for real-time gameplay where transaction confirmation speed directly impacts user experience.

400ms
Solana Block Time
2k-5k
TPS
05

Modular Rollup: Long-term Cost Predictability

Insulation from mainnet congestion fees. Your game's economics are not subject to volatile base layer gas wars (e.g., Ethereum mainnet spikes). This allows for stable, sustainable microtransaction models and predictable infrastructure budgeting.

06

Monolithic L1: Simplified Dev & Tooling

Mature, all-in-one developer toolkit. Leverage Solana's Anchor framework, Avalanche's subnet manager, or Sui's Move language with extensive documentation, indexers (The Graph), and standardized RPC providers. Reduces initial development complexity and time-to-market.

MODULAR ROLLUP STACK VS. MONOLITHIC L1

Decision Framework: When to Choose Which Architecture

Eclipse (Modular Rollup Stack) for Gaming

Verdict: The superior choice for high-throughput, custom-built game economies. Strengths:

  • Tailored Performance: Leverages a dedicated data availability layer (e.g., Celestia) and a high-speed execution environment (e.g., SVM, MoveVM) to achieve 10,000+ TPS with sub-second finality, critical for real-time gameplay.
  • Sovereign Economics: Enables custom fee tokens and gas models, allowing studios to subsidize or abstract transaction costs for players. Native integration with engines like Unity/Unreal via SDKs.
  • Isolated State: Game logic and congestion are siloed from other applications, preventing network-wide spam from affecting your game's performance.

Monolithic L1 (e.g., Solana, Sui) for Gaming

Verdict: A strong, integrated alternative for games that value deep liquidity and a mature toolchain. Strengths:

  • Unified Liquidity: Direct access to the L1's native DeFi ecosystem (e.g., Raydium, SuiSwap) for in-game asset trading without cross-chain bridges.
  • Proven Tooling: Benefits from the L1's established indexers, wallets (Phantom, Sui Wallet), and developer frameworks that a new rollup must build from scratch.
  • Network Effects: Immediate visibility to the chain's existing user and developer community. Trade-off: Your game competes for block space with all other apps on the L1, risking performance degradation during network-wide congestion.
verdict
THE ANALYSIS

Final Verdict and Strategic Recommendation

A data-driven conclusion on selecting the optimal infrastructure for a high-performance game engine.

Modular Rollup Stacks (e.g., Eclipse, using Solana VM) excel at providing dedicated, high-throughput execution for your game's core logic. By leveraging a specialized settlement and data availability (DA) layer like Celestia, they can achieve significantly lower transaction costs and higher theoretical TPS (often 10,000+) for in-game microtransactions and asset swaps. This architecture isolates your game's performance from network congestion, a critical advantage for real-time interactions. For example, a game built on Eclipse can settle on Solana for speed while using Celestia for cheap data, creating a cost structure where fees can be sub-cent.

Monolithic L1s (e.g., Solana, Sui) take a different approach by optimizing all layers—execution, settlement, consensus, and data availability—into a single, vertically integrated chain. This results in superior composability and a unified security model, where your in-game assets can interact seamlessly with the broader DeFi ecosystem (e.g., Jupiter, Raydium) without cross-chain bridges. The trade-off is that your game's performance is tied to the overall network demand; during peak usage, fees can spike and latency may increase, as seen in Solana's historical congestion events.

The key trade-off: If your priority is predictable, ultra-low-cost execution and maximal control over your chain's resources, choose a Modular Rollup Stack. This is ideal for games with high-frequency, low-value transactions (e.g., pay-to-craft, micro-rewards). If you prioritize deep, native composability with a mature DeFi/NFT ecosystem and are willing to accept variable network conditions, choose a high-performance Monolithic L1. Consider the rollup path if you are building a closed-loop economy; choose the monolithic route if your assets need to be liquidity hubs from day one.

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