Agrarian Crypto Commons Smart Contract System
Technical diagrams illustrating the architecture and processes of a blockchain-based agricultural commons system.
Core Smart Contract Architecture
This class diagram shows the main components of the smart contract system and their relationships. The CommonsDAO is the central contract that coordinates members, resources, and governance.
Class Diagram: Core Smart Contract Architecture
Key Components:
- CommonsDAO: The main contract that coordinates all activities
- Member: Represents individual community members and their rights
- ResourcePool: Manages shared resources within the commons
- ProposalRegistry: Handles governance proposals and voting
- LunarpunkOfflineConsensus: Enables operation without constant internet access
- InterCommonsAgreement: Facilitates cooperation between different commons
Resource Allocation Process
This sequence diagram illustrates how resources are requested and allocated within the commons, showing the interaction between members, the DAO, and resource pools.
Sequence Diagram: Resource Allocation Process
This process embodies the principle of democratic resource allocation. Small requests are processed automatically, while larger requests require community approval through voting, ensuring both efficiency and collective decision-making.
Proposal Lifecycle
This state diagram shows the different states a proposal can go through, from creation to execution or rejection.
State Diagram: Proposal Lifecycle
The proposal lifecycle ensures transparent governance by clearly defining the stages each community decision goes through. This process supports high-bandwidth direct democracy by making the decision-making process clear and accessible to all members.
Inter-Commons Agreement Process
This activity diagram shows the decision flow for creating agreements between different agricultural commons without relying on state enforcement.
Activity Diagram: Inter-Commons Agreement Process
This process demonstrates how commons can create binding agreements without relying on state violence for enforcement. Smart contracts automatically execute the terms once both communities have approved, creating trust through cryptography rather than coercion.
Lunarpunk Offline Consensus System
This component diagram shows how the offline consensus mechanism works for agricultural commons without reliable internet access.
Component Diagram: Offline Lunarpunk Consensus System
The Lunarpunk approach ensures that communities can maintain sovereignty even without reliable internet access. By combining physical data transport (USB keys, paper) with local mesh networks and cryptographic validation, rural commons can operate blockchain systems in remote or disconnected environments.
Replicatable Modeling System
This class diagram shows how economic models can be shared and replicated between commons.
Class Diagram: Replicatable Modeling System
The Replicatable Modeling System enables agricultural commons to share successful economic and governance models. Communities can fork existing models, customize parameters to fit their specific needs, and simulate outcomes before implementation. This creates a knowledge commons that accelerates learning and adaptation across the network.
Technical Implementation Notes
These diagrams represent a conceptual architecture for an agrarian crypto commons system. Actual implementation would require:
- Selection of appropriate blockchain platform (e.g., Ethereum, Solana, or a custom Layer 2 solution)
- Gas optimization for resource-constrained environments
- Careful security auditing to prevent exploitation
- User-friendly interfaces that abstract blockchain complexity
- Offline-first design for communities with limited connectivity
The system prioritizes democratic control, resource sharing according to need, and inter-community cooperation without centralized authority—all core principles of anarcho-syndicalist organization.