Blockchain

Livepeer and Theta are both used for decentralized video infrastructure, but their core positioning is not the same. Livepeer focuses more on video transcoding, GPU-based video computation, and real-time AI video processing, while Theta places greater emphasis on video content distribution, edge node networks, and a decentralized CDN ecosystem.

Livepeer is a decentralized video and AI video infrastructure network. Its core operating mechanism includes video task distribution, GPU-based video transcoding, and on-chain incentive coordination. When a user uploads a video, the Gateway sends the task to an Orchestrator node, which then uses GPU resources to complete video transcoding or AI video processing.

Livepeer (LPT) is a decentralized video and real-time AI video infrastructure built on Ethereum. It is mainly used for video transcoding, live stream distribution, and AI video processing. The network provides GPU computing power through Orchestrator nodes and uses the LPT token to coordinate node incentives, staking, and network security.

Theta Network uses a layered node system made up of three core roles: Validator Node, Guardian Node, and Edge Node. Validator Nodes are responsible for block production and main chain validation, Guardian Nodes provide consensus oversight and network security, while Edge Nodes handle edge tasks such as video delivery, AI inference, and GPU computing. Through multi-layer node collaboration, Theta aims to support blockchain security, decentralized governance, and AI edge computing capacity at the same time.

THETA and TFUEL are the two core tokens in the Theta Network ecosystem, but they do not serve the same function. THETA is mainly used for governance, node staking, and network security, while TFUEL is used to pay for gas, AI computation, video processing, node rewards, and other network resource consumption. Theta’s dual-token mechanism is designed to separate governance from network operations, improving ecosystem efficiency while supporting the growth of edge computing and AI infrastructure.

Theta EdgeCloud is a hybrid AI edge computing platform launched by Theta Network. It coordinates distributed Edge Nodes and cloud GPU resources to process AI inference, video rendering, and other computing tasks. After developers submit a task, the system allocates it to global nodes based on resource requirements, while TFUEL is used for resource payments and node rewards. Compared with traditional centralized AI cloud platforms, Theta EdgeCloud places greater emphasis on distributed GPU sharing, edge computing, and efficient resource utilization.

Theta Network (THETA) is a decentralized blockchain infrastructure built for AI, video streaming, and edge computing. Through globally distributed nodes that share bandwidth and GPU resources, it provides low-cost, highly scalable network support for video delivery, AI inference, and Web3 media applications. Its ecosystem uses a dual-token model with THETA and TFUEL, where THETA is used for governance and staking, while TFUEL is used to pay for network resources and transaction fees. As generative AI and decentralized infrastructure continue to develop, Theta has gradually expanded into EdgeCloud, GPU computing, NFTs, Web3 entertainment, and several other areas.

XDC and XRP are both blockchain networks designed for cross-border finance and enterprise payment scenarios, but their technical approaches and ecosystem positioning are not the same. XDC Network uses the XDPoS consensus mechanism and supports EVM smart contracts, RWA tokenization, and a hybrid blockchain architecture, with a stronger focus on enterprise-grade financial infrastructure and trade finance. XRP Ledger uses the Ripple Protocol Consensus Algorithm, or RPCA, and focuses more on cross-border payment liquidity and interbank settlement efficiency. The two networks differ clearly in decentralization, developer ecosystem, asset tokenization capabilities, and network use cases.

XDPoS, short for XinFin Delegated Proof of Stake, is the consensus mechanism used by XDC Network. It secures the network and confirms transactions through validator staking, delegated voting, and Byzantine Fault Tolerance, BFT. Compared with traditional PoW networks, XDPoS uses less energy, processes transactions faster, and keeps Gas costs lower. It is mainly designed for high efficiency blockchain use cases such as enterprise finance, cross border payments, and real world assets, RWA. XDPoS also balances EVM compatibility with enterprise grade performance needs, making it an important part of XDC Network’s technical architecture.

XDC Network (XDC) is a Layer1 blockchain focused on enterprise-grade financial infrastructure. It uses the XinFin Delegated Proof of Stake, or XDPoS, consensus mechanism and offers low fees, high throughput, and EVM compatibility. XDC Network is mainly designed for trade finance, real-world asset, or RWA, tokenization, cross-border payments, and institutional DeFi. Its hybrid public-private blockchain architecture helps meet enterprise needs for privacy, efficiency, and compliance. Its native token, XDC, is used for Gas fees, node staking, network governance, and on-chain settlement.

ETHGas and the traditional Ethereum Gas Market both manage blockchain transaction resources, but differ significantly in blockspace allocation, gas pricing, and confirmation logic. Learn how ETHGas compares with Ethereum’s traditional gas market model.

Gas Abstraction is an infrastructure mechanism designed to reduce the complexity of blockchain interactions. Its core goal is to allow users to complete transactions without directly managing on-chain gas payments. Through designs such as Open Gas, Account Abstraction, and realtime blockspace coordination, ETHGas attempts to create a more seamless Ethereum interaction experience. Compared with the traditional Ethereum Gas model, Gas Abstraction places greater emphasis on application-layer sponsorship, unified fee management, and realtime transaction execution. It is also regarded as one of the key infrastructure directions for the next generation of on-chain user experience.

ETHGas’s Pre-confirmation mechanism is an infrastructure design intended to improve Ethereum realtime transaction efficiency by allowing transactions to receive early execution confirmation before they are formally written into a block. Compared with the traditional Ethereum model, which relies only on final on-chain confirmation, Pre-confirmation can reduce transaction waiting time and improve the realtime nature of on-chain interactions. ETHGas combines Pre-confirmation with blockspace markets, Builder coordination, and realtime execution mechanisms to explore a new transaction execution structure under the direction of “Realtime Ethereum.”

ETHGas (GWEI) is an infrastructure protocol built around Ethereum Realtime Blockspace. It aims to improve on-chain transaction efficiency and lower the barrier to entry for users through Pre-confirmation, Gas abstraction, and blockspace market mechanisms. As transaction demand on the Ethereum network continues to grow, ETHGas seeks to optimize Ethereum’s execution efficiency and interaction experience through realtime block resource scheduling and future blockspace trading. Concepts such as Realtime Ethereum, Open Gas, and Blockspace Market are also becoming new directions in the development of on-chain infrastructure.

Cronos is a high-performance blockchain network that is compatible with the Ethereum Virtual Machine and deeply integrated with the Cosmos ecosystem. Its primary goal is to offer a low-barrier development environment and efficient on-chain infrastructure for a wide range of Web3 applications.