Introduction to Token Engineering for Web3 Platforms

Examine how Web3 platforms are self-sustaining, multi-sided ecosystems that cannot be controlled after deployment, with self-sovereign economies contrasting centralized Web2 platforms.

Web3 platforms operate as closed-loop, self-regulating systems built on feedback loops, unlike open-loop economics influenced by centralized entities, with human behavior guided by economic and psychological incentives.

Learn how token engineering designs the economic framework for web3 platforms, detailing mechanism design, token types, and token inflow and outflow to align with business outcomes and maximize ecosystem value.

Explore smart contracts as the building blocks of token systems. See how they are self-executing programs on blockchain networks that act as accounts, hold deposits, and govern token functions.

Explore tokens as virtual values on a blockchain, representing fiat, commodities, voting rights, liquidity pool shares, and artwork usage, with tokens issued by smart contracts and coins by block creation.

Security tokens are issued as securities, while utility tokens power payments, governance rights, and DeFi liquidity provisioning; token engineering focuses on utility tokens and coins rather than security tokens.

Explore fungible tokens and nonfungible tokens (NFTs), including ERC-20 and ERC-721 standards with unique token IDs and asset metadata. See how token engineering relates to fungible tokens on decentralized platforms.

Explore how tokens power Web3 platforms for payments, governance voting, and staking, and examine single-token versus multi-token models, including metaverse cases with a utility token and NFTs representing assets.

Discover tokens as payment instruments through Mana in the Decentraland metaverse, an Ethereum-based platform where Mana (ERC-20) enables NFT land and estate purchases, avatars, wearables, and marketplace transactions.

Explore how governance voting uses tokens like veCRV on Curve Finance, where locking CRV into CurveDAO yields voting power, boosts rewards, and earns fees based on lock duration.

Explore how tokens track liquidity pool contributions through Uniswap v3 position NFTs, an ERC-721 representation with fee tiers and concentrated liquidity, replacing fungible ERC-20 positions.

Explore how staking SNX tokens mint synthetic tokens on the Synthetix platform, creating sUSD, SLink, and sBTC that track prices without asset ownership, backed by collateralized SNX.

Explore how tokens raise funds for project development and incentivize contributors, and survey the core ideas of token economics or tokenomics.

Explain max supply, total supply, and circulating supply, including minted and burnt tokens, and relate them to fully diluted stock, outstanding stock, and free float shares.

Explore how decimals determine currency divisibility and minimum transaction values, using Bitcoin's 8 decimals and Ether's 18 to enable small investments and support the Bitcoin and Ether economies.

determine the token's market value by multiplying circulating supply by price, and explain fully diluted market cap as max supply times price (or total supply if no max).

Explore minting, supply, and burning schedules in Web3 platforms, including how minting rate changes over time and pre-mine or pre-mint distributions to investors and early contributors, and burn events.

Examine token supply models on decentralized platforms through concrete examples like cake tokens on Pancakeswap with per-block minting and burning, plus Sushiswap, Torn, and Farm governance tokens.

Define the goals for the token engineering exercise, including product related goals and value related goals. Balance these two perspectives while designing a token model for a hypothetical application.

Explore how token engineering drives the product perspective to achieve key performance indicators such as user acquisition, engagement, voting participation, mining, and liquidity through incentive structures.

Explore behavioral models used in token engineering, including signaling theory, hedonic value, endowment effects, hyperbolic discounting, and cognitive biases like confirmation, anchoring, and loss aversion that shape ownership and engagement.

From a value perspective, token supply shapes platform value via money supply theory, inflationary and deflationary pressures, and Burniske and Tatar’s value framework.

Explore the value framework based on mv=pt and mv=pq, linking crypto market cap, velocity, price, and transactions, and learn how token value rises with activity.

Understand how token engineering fits into platform design, between market design and mechanism design, by shaping incentive structures that align network participants with the platform’s economic goals.

Define the business case and model, set KPIs, design mechanism and interactions, establish product and value goals, choose token types and specs, and simulate the token model to guide design.

Design a token model for a play-to-earn web3 slot game using a single ST token, balancing winnings, fees, rewards, and liquidity and governance pools with configurable yields.

Build a Python one-year token model, simulate registration rewards and plays, perform sensitivity analysis on key variables, and explore a 1% daily decay to reduce inflation.

Explore the basics of token engineering to build a framework for future learning, noting that real web3 platforms involve complex decisions like token base size and decimals.