AI Agent Creation - ZoRobotics/Files GitHub Wiki

πŸ€– AI Agent Creation β€” Principles and Advantages

ZoRo Agents are persistent, wallet-native AI entities powered by the zoro-ai-v1 model. Each agent operates on encrypted memory, Web3 data, and DAO-approved datasets, enabling verifiable, contextual behavior across chains, interfaces, and sessions. Unlike conventional agent frameworks, ZoRo provides a decentralized, cost-efficient, and intelligence-aligned environment built for Web3-native AI applications.


πŸ“ Core Principles of Agent Architecture

The ZoRo Agent framework is not a tool for launching static LLM bots. It is a protocol-level infrastructure for lifelong digital intelligence, where every agent:

  • Is cryptographically bound to a wallet address (EOA or smart wallet)
  • Accumulates private and public memory across time, sessions, and interfaces
  • Has the right to operate using Web3-native permissions and signature-based logic
  • Can be verified, cloned, permissioned, paused, or delegated by its owner
  • Learns from user behavior, project taskflows, and biometric input streams (optional)
  • Pays for its own operation (inference, memory, sync) using programmable tokens (ZORO)

Agents are defined not by prompt engineering, but by identity + memory + behavior scope β€” giving developers the ability to define intelligence not as a product, but as an evolving, composable function on-chain.


🧠 Agent Composition

Each agent instance in ZoRo is structured as follows:

1. Identity Layer

  • Wallet address (user, team, DAO)
  • Optional alias, handle, or namespace
  • Session routing via wallet signature

2. Model Binding

  • Current: zoro-ai-v1 (custom fine-tuned LLaMA variant)
  • Automatically connected to the agent’s memory vector space
  • Future versions will allow multi-model switching or delegation

3. Memory Graph

  • Chat history
  • Task completions
  • On-chain event reactions
  • Biometric sequences
  • Project-specific interactions
  • Stored using zk-encrypted slots in on-chain meta-profile

4. Access Logic

  • Who can query the agent
  • Who can write to its memory
  • Whether memory is public/private/DAO-visible
  • Enforced by on-chain access policy and wallet signature verification

🧩 Use Cases

Use Case Description
Personal On-Chain Assistant Summarizes voting, proposals, transactions, staking, NFT activity
Project-Scoped Agent Ingests contributor data, annotation tasks, docs; answers questions
Biometric Companion Learns from physical data β€” sleep, motion, glucose; delivers insight
Cross-App AI Telegram bot + Web + Mobile, all with memory continuity
Data Curation Agent Operates on training tasks, validates or routes content for model learning
Community Tooling Answers based on DAO history, docs, metrics, and governance logic

πŸ“Š Why Build on ZoRo vs Other Platforms?

ZoRo is the only system where agent memory, logic, and behavior are native to the chain β€” not externalized or stored off-session.

Feature ZoRo AI Open Source / Other AI APIs
Identity Layer Wallet-bound agents Stateless sessions
Encrypted Memory On-chain, zk-attested Volatile or off-session context
Data Ownership User-signed, permissioned Hosted by platform provider
Web3 Payment Integration Native ZORO token logic None / fiat gateways
Custom Knowledge Base Web3+biometric+DAO datasets General web-scraped corpora
Model Adaptation Fine-tuned for wallet/Web3 logic General-purpose LLMs
Open Agent Interoperability Shared memory + API + project ID Isolated models and accounts
Cost per 1K tokens ~$0.0001 (in ZORO) $0.002–$0.03 (OpenAI/HuggingFace)
Deployment Flexibility Web, mobile, CLI, Telegram Mostly web or cloud-bound
Training Feedback Loop DAO + contributor-driven Closed fine-tune cycle

πŸͺ™ Token-Powered Access

Every agent action is tokenized using ZORO:

  • Per-call inference: 0.0001 ZORO per generated token
  • Memory usage: Billed based on context depth and payload
  • Subscription: 20 ZORO/month unlocks persistent memory and reduced costs

β†’ ZORO Token


πŸ”— Next Steps

β†’ AI-on-Chain
β†’ Inference API & SDK
β†’ Run a Node