
Examine how blockchain gaming fuels mass adoption of crypto and web3, focusing on play-to-earn economies, tokenization, digital ownership, and the economic incentives shaping gamer economies.
Identify who benefits from the economics of blockchain gaming and play-to-earn, including techies building blockchain gaming applications and analysts analyzing them.
Explore market trends in gaming, learn basic gaming and Web3 concepts, study token engineering, examine blockchain games and design choices, and analyze play-to-earn growth drivers, business models, and value creation.
Explore how the video game market reached about $200 billion in 2021, growing 13% annually, driven by mobile and internet access, with play-to-earn and blockchain gaming reshaping value.
Explore pay-to-play, free-to-play, and play-to-earn models, including subscriptions, freemium access, and advertisements. Learn how the play-to-earn model leverages blockchain to reward players with in-game currency for playing.
Explore the two gameplays—player versus player and player versus environment—and how play-to-earn games design incentive structures for PvP and PvE, including artificial intelligence and virtual world dynamics.
Explore single-player, multiplayer, and massively multiplayer online games with pve and pvp dynamics, and how shared worlds accessed after purchase relate to blockchain gaming.
Explore how user generated content enables third-party modifications, from weapons to new levels, shaping game dynamics and fueling the rise of metaverse ecosystems.
Explore how metaverse projects drive growth in blockchain gaming. The Sandbox builds a shared virtual world where users own real estate, create experiences, monetize games, and earn SAND through quests.
Examine gaming guilds as teams that form in online multiplayer games to compete and sponsor players, driving the play-to-earn ecosystem through sponsorships and blockchain and web3 concepts.
Learn how smart contracts are self executing programs on blockchain networks that act as accounts, hold crypto assets, automate tasks, and form the logic behind decentralized applications and token systems.
Explore how tokens function as a virtual medium of value on blockchain networks and represent fiat currencies, commodities, voting rights, DeFi liquidity pool shares, and artwork usage rights.
Explore fungible tokens and non-fungible tokens (NFTs), and learn how ERC-20 and ERC-721 standards enable unique token IDs and attach asset metadata.
Explore how NFTs enable unique, immutable identities and transfer histories on distributed ledgers. See how ERC-721 tokens represent ownership of physical assets, digital arts, and virtual collectibles, including loans.
Explore token supply concepts in tokenomics, detailing max-supply, total-supply, and circulating-supply. Compare max-supply to fully diluted stock, total-supply to outstanding stock, and circulating-supply to free float shares.
Calculate token market capitalization by circulating supply times price, akin to free float capitalization, and determine fully diluted market cap using max supply (if defined) or total supply times price.
Explore how minting creates new coins and how burning removes them from supply. Examine how minting and burning schedules affect token economics, including pre-mine, max supply, and distribution to investors.
Explore liquidity mining and yield farming in DeFi, where liquidity pools enable automated market making and incentives like governance tokens for yield farmers to optimize strategies.
Explore token engineering as economic engineering for web3 platforms, focusing on mechanism design and how token supply enters and exits circulation to align with business outcomes and maximize ecosystem value.
Explore tokens as currency, governance tools, and liquidity trackers on Web3 platforms, and why dual or multi-token models pair utility tokens with NFTs for assets like real estate and collectibles.
Examine how Mana functions as a payment instrument in Decentraland, enabling transactions for land and estate NFTs, avatars, wearables, names, and other marketplace NFTs on Ethereum.
Explore governance voting with veCRV escrow on Curve Finance, where locking CRV in CurveDAO earns veCRV to vote and boost rewards; locks range from one week to four years.
Explain how liquidity pool contributions are tracked with non-fungible Uniswap v3 positions (ERC-721), featuring multiple fee tiers, concentrated liquidity ranges, and on-chain generative art.
Stake SNX to mint synthetic tokens such as sUSD, sLink, and sBTC, backed by staked SNX at a target collateralization ratio, enabling zero slippage exposure to crypto, fiat, and commodities.
Discover the two groups of token engineering goals: product goals and value related goals, and how practitioners balance these perspectives to optimize token design.
Link token issuance to key performance indicators and design incentive structures that boost user acquisition, engagement, voting participation, and liquidity, using joining bonuses, interaction rewards, and behavioral models.
Explore signaling theory, hedonic value, and endowment effects in decentralized apps, and examine hyperbolic discounting and cognitive biases shaping incentives for engagement and growth.
Explore how token supply drives platform value through the money-supply theory and the mv=pq framework, and how velocity motivates staking and yield farming.
Explore how token engineering shapes platform design by aligning incentives within market design and mechanism design, ensuring network-wide cooperation in blockchain gaming.
Explore blockchain gaming as a distributed database. Architecture choices decide which parts run on a public blockchain or off-chain, enabling in-game asset transactions and a financial system.
Explore how blockchain and NFTs provide proof of ownership, transparency, and cross-platform interoperability for in-game assets stored on decentralized databases like IPFS.
Explore Huntercoin, the first blockchain-based game launched in 2014 before Ethereum, where on-chain game logic, a Namecoin/Bitcoin fork, enables map-based coin collection and player-versus-player combat, highlighting decentralization and scalability limits.
Explore CryptoKitties, launched in 2017 by Dapper Labs, a blockchain game where users collect, breed, and trade cats as NFTs, shaped by 48 genes and governed by Ethereum smart contracts.
Explore Axie Infinity, a play-to-earn game by Sky Mavis on the Ronin sidechain, where NFT Axies with six body parts and three genes breed for combat in Lunacia.
Explore the sandbox metaverse, The Sandbox, on Ethereum, where players build, own, and monetize gaming experiences using Vox Edit, Game Maker, and land NFTs; earn sand by completing quests.
Explore how architecture affects the economics of play-to-earn blockchain games by balancing on-chain transaction data with off-chain storage and centralized game logic, using IPFS in hybrid designs.
Evaluate blockchain network size and gas fees, noting that complexity drives costs in play-to-earn games, affecting speed and economics; explore moving from Ethereum to l2 and l1 options.
Explore play-to-earn models, including upfront investments, earnings from playing, asset valuation, and the economic questions of investment, earnings, and asset value, with Axie Infinity, NFTs, and DeFi tools.
Explore economic drivers fueling play-to-earn growth, from COVID-era unemployment to guild scholarships, and show how user generated content and metaverse trends boost token utility and network effect.
Update November 2022: Professionally created captions were added.
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In 2021 blockchain game activity grew by 2000%...yes 2000% and 52% of blockchain activity come from gaming dApps.
Now, When it comes to mass adoption of crypto and web3, no other industry is likely to play a more important role than online gaming.
Some web3 concepts such as virtual currency ownership, trading of virtual goods, user-generated content, and tokenization already existed in the online gaming world.
Another aspect is that the regulatory scrutiny that most applications areas of web3 are exposed to, is virtually non-existent in the case of gaming. So, gaming web3 platforms can scale fairly rapidly without the fear of regulatory interventions.
Unlike most other web3 application areas, incumbents are themselves driving the growth of the sector. For example, Microsoft acquired Activision Blizzard, one of the biggest California-based video gaming companies in a $68.7 billion dollar deal to build its own Metaverse. Major game publisher Ubisoft launched in-game NFTs.
The point is that like any other industry blockchain gaming has challenges but it is most likely the best-positioned sector for mass adoption of blockchain and web3.
Now, this course is not about which game tokens to invest in, neither it is about game design or game building. This course is about the economics of blockchain games and more specifically play to earn games.
Blockchain games especially play-to-earn game platforms are intricate economies that require special attention from the game builders.
This means designing the game economics should involve utmost care and this is what this course is about. Yes, we will discuss some projects in blockchain gaming and play-to-earn but the focus will be on economics.