# Smart Contract Architecture DeSciAi’s smart contract architecture is foundational to its decentralized operations, ensuring transparency, automation, and security across the platform. The platform uses a modular smart contract framework, built on Ethereum and Ethereum Layer 2, to streamline processes, reduce costs, and provide scalability. Below is a breakdown of how the smart contracts work step-by-step: **Step 1: Smart Contract Layer Design** The platform’s smart contract infrastructure is designed to be flexible, secure, and easily upgradable. Built primarily using **Solidity**, these smart contracts are secured with templates and frameworks from industry leaders like **OpenZeppelin**, ensuring best practices in code quality and safety. The contracts are divided into core functional modules, including governance, funding, IP tokenization, and reward mechanisms. These modules interact seamlessly to manage everything from research proposals to intellectual property (IP) tokenization and milestone-based funding disbursements. **Step 2: Governance Contracts** Governance plays a crucial role in DeSciAi, and smart contracts handle the voting mechanisms that facilitate decentralized decision-making. The platform employs both **token-weighted voting** and **delegated voting** to ensure fair and transparent governance. Token holders can vote on critical decisions, such as funding allocations, milestone approvals, and platform upgrades. Smart contracts execute the votes and ensure that each decision is recorded immutably on the blockchain. Additionally, **Dispute Resolution** processes are built into the smart contracts, allowing the community or designated representatives (delegates) to resolve conflicts as part of the DAO governance structure. This decentralized approach ensures that decision-making is in the hands of the stakeholders, rather than a centralized authority. **Step 3: Funding and Milestone Contracts** Once a research proposal is accepted, **Funding Contracts** take over, ensuring the appropriate allocation of funds based on milestones. These contracts handle the submission and review of proposals, as well as the Initial Research Offering (IRO). Research Tokens (PRTs) are minted, and the contract ensures a fair distribution of tokens during the IRO. Each milestone in the research project is connected to a specific fund disbursement, which is triggered only after certain conditions are met. The **Milestone Contract** uses multi-signature wallets to ensure that funds are only released after validation by **AI agents**, **SMEs**, and **DAO votes**. This ensures that funds are used appropriately and milestones are met before the next stage of funding is unlocked. **Step 4: IP Tokenization Contracts** DeSciAi revolutionizes intellectual property (IP) management by using smart contracts to tokenize research outputs. **IP Tokenization Contracts** leverage the ERC-721, ERC-1155, and ERC-4907 standards to create **Research NFTs (R-NFTs)**. These tokens represent ownership of research outputs, including patents, datasets, and publications. These tokens can represent unique assets (ERC-721), semi-fungible assets (ERC-1155), or assets with temporary access rights (ERC-4907). Fractional ownership of IP can also be achieved by splitting R-NFTs into **fungible tokens (ERC-20)**, enabling easier investment and commercialization of research outputs. **Step 5: Reward Contracts** To incentivize participation and contributions, DeSciAi uses **Reward Contracts** that allocate rewards to various stakeholders based on their performance and contribution to the project. These include **Subject Matter Experts (SMEs)**, **delegates**, **AI agents**, and **Human Entity Committee (HEC)** members. The reward system is tied to **reputation scores**, **voting power**, and **token holdings**. Contributors with higher reputation and performance metrics receive greater rewards. These smart contracts automate the distribution of rewards from the platform’s treasury, ensuring that all participants are fairly compensated for their efforts. **Step 6: Upgradeability and Future-Proofing** DeSciAi’s smart contracts are built to evolve. The platform uses **proxy patterns**, such as the **OpenZeppelin Transparent Proxy**, which allow for seamless upgrades without interrupting the ongoing operations of the platform. This ensures that as DeSciAi grows and adapts to new regulatory or technological changes, the smart contracts can be upgraded without causing disruptions to the platform’s functionality. **Step 7: Security and Audit** To ensure the highest standards of security, DeSciAi employs regular **third-party security audits** to verify the integrity of the smart contracts. The platform also offers **bug bounty programs**, encouraging community-driven efforts to identify vulnerabilities before they can be exploited. Additionally, **fail-safe mechanisms** are integrated into critical contracts to provide emergency stop functions in case of a detected exploit, allowing the platform to act quickly and mitigate any potential damages. **Step 8: Interaction with Other Layers** The smart contracts on DeSciAi interact with other layers of the platform’s architecture, including decentralized storage and AI agent systems. For instance, **R-NFTs** are stored on decentralized platforms like **IPFS** and **Arweave** for security and permanence, while **AI agents** are employed to verify milestone data and identify any discrepancies. All interactions between these layers are governed by the smart contracts, ensuring that data integrity and governance are maintained. In conclusion, DeSciAi’s smart contract system is integral to the platform’s operation, enabling secure, efficient, and transparent governance, funding, and IP management. By automating these processes and utilizing blockchain’s decentralization, DeSciAi ensures that research funding, execution, and commercialization are handled with trust and transparency. --- # Agent Instructions: Querying This Documentation If you need additional information that is not directly available in this page, you can query the documentation dynamically by asking a question. Perform an HTTP GET request on the current page URL with the `ask` query parameter: ``` GET https://desciailabs-organization.gitbook.io/desciai.io/security-and-transparency/smart-contract-architecture.md?ask= ``` The question should be specific, self-contained, and written in natural language. The response will contain a direct answer to the question and relevant excerpts and sources from the documentation. Use this mechanism when the answer is not explicitly present in the current page, you need clarification or additional context, or you want to retrieve related documentation sections.