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Livepeer 思维模型
Livepeer 是一种加密经济协作协议,确保全球按需 GPU 网络的安全,该网络针对实时视频和 AI 进行优化,并通过面向开发者的平台和应用程序进行公开。 你可以将 Livepeer 视为一个去中心化的无服务器 GPU 结构,拥有加密经济控制平面,服务通过一系列面向开发者的产品和应用程序进行公开。 Livepeer 类似于你访问和构建传统云服务提供商的方式,例如,社交媒体依赖于底层基础设施,你通过一套产品和应用程序(如 Twitter、Instagram、Facebook)进行访问。 Livepeer 的加密经济原语和去中心化计算网格为系统提供了额外的优势,例如抗审查、经济安全以及无信任协作。More on Crypto-Primitive Advantages
More on Crypto-Primitive Advantages
The decentralisation and cryptoeconomic primitives of Livepeer add additional benefits to the system including
- dynamic scaling & resilience (no single point of failure)
- global payment rails (accessible by AI agents)
- permissionless global participation & access (accelerates innovation and incentivises participation)
- fairer creator economics (gives creators transparent, guaranteed revenue streams)
- lower latency and data ownership (data stays local to the user)
- lower costs without lock‑in (no middlemen)
- incentives provide a runway to self‑sustaining, permissionless, global infrastructure without the need for venture capital (ramp to the tipping point)
- network effects (as more participants join, the network becomes more valuable to all participants)
- and more…
基础设施层
协议A crypto‑economic protocol that secures and coordinates the network. (incentives, staking, governance, payments)
网络
- the protocol provides trust, coordination and payment mechanisms
A global GPU network that performs the actual compute work. (supply, routing, performance)
应用程序和平台
- the network supplies compute, routing, and verification
A set of developer‑facing tools and applications (APIs, SDKs, apps) which expose the network’s capabilities in a usable way.
- the platforms expose the network’s capabilities in a usable way.
Livepeer 作为类似 OSI 的堆栈
映射基础设施架构的传统方法之一是使用 OSI 模型. 虽然该模型并不能完美映射到去中心化系统——且正被 AI 快速改造,但该框架仍有助于理解不同层次及其相互作用。 Livepeer 大致可以被视为一个 OSI 堆栈,其中“cloud control plane”被加密经济协议取代,持久存储是可选的、外部的,并且次于实时流式计算。网络与协议栈
将其视为全球去中心化的开放计算基底。Layer 1: Physical Compute & Resource Layer
Layer 1: Physical Compute & Resource Layer
“Raw atoms”What it is:
- GPUs, CPUs, memory, bandwidth
- Heterogeneous hardware (consumer → data‑center grade)
- Power, latency, geographic placement
- Hardware is contributed and owned by independent operators
- Capacity is surfaced to the network via orchestrator infrastructure
- NVIDIA, AMD, bare metal, cloud VMs
- Orchestrators (GPU operators)
- Gateways (in some cases - depending on deployment)
Layer 2: Transport & Media Substrate
Layer 2: Transport & Media Substrate
“Bits move”What it is:
- Video transport, chunking, codecs, streaming primitives
- Frame-level + segment-level delivery
- Peer discovery, routing, and delivery paths
- Segment-based processing and delivery patterns
- Low-latency media delivery is a core competence (“video DNA”)
- Gateway-mediated delivery patterns (client/server hybrid)
- Gateways (as the primary network-facing media/API surface)
- Orchestrators (as the execution endpoints)
- Underlying Internet transport (TCP/UDP/HTTP/WebRTC etc.)
Layer 3: Distributed Execution Network
Layer 3: Distributed Execution Network
“Who Actually does the work?”What it is:
- Distributed job routing + load balancing
- Service discovery and selection
- Capacity-aware and performance-aware execution selection
- Orchestrator selection and routing mechanisms
- Segment/task model: work can be broken into independently computable units
- Execution endpoints expose pricing/fees and performance characteristics
- Orchestrators (provide execution + advertise capability)
- Gateways / clients (initiate and route work via protocol/network rules)
Layer 4: Crypto-Economic Coordination Layer
Layer 4: Crypto-Economic Coordination Layer
“Coordination, Trust, Provenance”What it is:
- On‑chain logic that secures and coordinates the network
- Cryptoeconomic primitives that align incentives
- Work/role coordination, reputation signals, and network rules enforcement
- On-chain protocol + off-chain coordination patterns that:
- allow permissionless participation
- coordinate stake-weighted influence and selection
- align behavior with network goals
- Ethereum smart contracts (on Arbitrum L2)
- Blockchain network (Arbitrum L2)
- Network participants (orchestrators, delegators, gateways) operating under protocol rules
Layer 5: Economic & Security Layer
Layer 5: Economic & Security Layer
“Why anyone behaves” (incentives alignment, game theory)What it is:
- Cryptoeconomic primitives that align incentives
- Game‑theoretic mechanisms that ensure correct behavior
- Incentives for participation and penalties for misbehavior
- LPT staking + delegation
- Inflation-based rewards (protocol issuance)
- Fee capture and distribution (usage-based)
- Slashing (where enabled) to penalize malicious/incorrect behavior
- Governance processes (LIPs, voting, treasury stewardship)
- Protocol participants:
- Delegators (stake delegation / security backing)
- Orchestrators (service provision under stake)
- Governance participants (proposal + voting + stewardship)
Layer 6: Data & State Layer
Layer 6: Data & State Layer
“What persists”What it is:
- The data plane around jobs: segments, manifests, logs, receipts
- Temporary + derived artifacts needed for execution and verification
- Livepeer is intentionally light on storage
- Video segments and state are often ephemeral and pipeline-driven
- Long-term storage is typically external (object stores, CDNs, decentralized storage)
- Video segments (temporary)
- Manifests, logs, receipts
- Verification metadata
- Broadcasters / application operators (sometimes own long-term storage)
- External storage providers (S3, GCS, IPFS, Arweave, etc.)
- Not the Livepeer chain
平台与应用栈
Layer 7: Platform Services
Layer 7: Platform Services
“Batteries included”What it is:
- Managed services that abstract protocol/network complexity and make it easy to build on Livepeer
- Operational tooling: dashboards, analytics, key management, billing abstraction
- Provides features such as stream management, analytics, key management, billing abstraction
- Hosted/managed gateway experiences
- Templates, pipelines, and reference apps
- Ecosystem-led products that package the network into a usable platform
- Livepeer ecosystem teams (Inc, Foundation-funded projects, community teams)
- Gateway operators offering service layers on top
- Livepeer Studio
- Streamplace
- Daydream
- and anyone who builds on top of the Livepeer protocol and network
Layer 8: Developer Interfaces
Layer 8: Developer Interfaces
“How builders integrate”What it is:
- APIs, SDKs, client libraries, docs, example repos
- Gateway APIs
- SDKs (JS, Python, etc.)
- BYOC-style integrations (containerized apps connecting to the stack)
- Product teams and open-source contributors
- Gateway implementations exposing consistent interfaces
Layer 9: Developer Applications
Layer 9: Developer Applications
“What builders ship”What it is:
- End-user applications and services built on top of Livepeer
- The final layer is where the end-user applications and services are built.
- This is where the magic happens and is what most users will interact with.
- Independent developers, studios, ecosystem teams
- Anyone who builds end-user applications on top of Livepeer or Livepeer Platform services
Layer 10: End User
Layer 10: End User
“Humans and (increasingly) AI Agents”What it is:
- Viewers, creators, AI consumers.
- Users typically never see
- orchestrators,
- staking/delegation,
- protocol mechanics.
- The applications and experiences (Layer 9)
End users never see orchestrators, stakes, or protocol mechanics.
中间件与集成
Livepeer replaces persistent storage coupling with streamed, ephemeral compute coordination.
Not Kafka. Not Airflow. Not Kubernetes. But conceptually: A decentralized serverless GPU fabric with a cryptoeconomic control plane.