Aptos Move Architect

Design and implement Move smart contracts on the Aptos blockchain.

Updated Aug 27, 2026

Search Tags:#smart contracts #move #aptos

Ready to run

npx skills add https://github.com/zacharyr0th/next-starter --skill aptos-move-architect

💬 Prompt for ChatGPT / Claude Chat▼

Please help me install this Agent Skill.
Skill: Aptos Move Architect
Source: https://github.com/zacharyr0th/next-starter/tree/main/.claude/skills/aptos/aptos-move-architect
Command: npx skills add https://github.com/zacharyr0th/next-starter --skill aptos-move-architect

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Expert guidance on Move smart contract development for Aptos, including modules, resources, events, and security patterns.

Core Features & Use Cases

Move fundamentals, resources, and modules
NFT/FA token standards and ownership
Security patterns and testing with Move Prover
Advanced patterns: events, multisig, tables

Quick Start

Ask for a Move module example implementing a simple resource with events.

Frequently Asked Questions about Aptos Move Architect

High-intent search queries and answers about installing and using this skill.

FAQPage Schema

How do I design and implement a Move smart contract on Aptos?▼

Move smart contracts on Aptos are built using modules that define resources, structs, and functions. Start by understanding Move fundamentals—modules, abilities, generics, and the resource model—then structure your contract with access control patterns, events for state changes, and Move.toml for package management. Test with unit tests and Move Prover for formal verification before deployment.

What's the difference between FA and NFT token standards in Move?▼

FA (Fungible Asset) and NFT standards in Move serve different token types on Aptos. FA handles homogeneous, divisible assets like coins; NFT standards manage unique, non-fungible digital items. Both use Aptos Objects for ownership and transfer, with Move's resource model enforcing strict asset control and preventing duplication.

How do I emit events and implement access control in Move contracts?▼

Move contracts emit events by defining event structs and calling move_to or event::emit within functions. Access control uses pattern checks—verifying signer authority, object ownership, or custom capability structs—to gate sensitive operations. Combine these with Move's linear type system to ensure only authorized actors can execute state-changing actions.

Can I use Move Prover to verify my Aptos smart contract?▼

Move Prover formally verifies Move code on Aptos by checking invariants, preconditions, and postconditions. Write specs alongside your module code, then run prover to prove absence of panics, assertion failures, and logical violations. This catches security flaws before deployment in production-ready scenarios.

What are gas-optimized deployment patterns for Move on Aptos?▼

Gas-optimized Move contracts minimize computation by using tables for sparse storage instead of vectors, batching operations, and avoiding redundant state checks. Design modules with efficient data structures, pack multiple writes into single transactions, and leverage Aptos Objects for scalable ownership—reducing per-transaction gas costs across projects of varying complexity.

Do I need multisig or randomness patterns in my Move contract?▼

Multisig patterns in Move enforce decisions requiring multiple approvers through capability passing and threshold checks. Randomness patterns use Aptos Move framework functions for on-chain random number generation. Include these patterns when your contract requires distributed authorization or nondeterministic behavior in gameplay, sampling, or governance workflows.