Definition of blockchain / distributed ledger (blocks, chaining, decentralization, immutability). Why blockchain matters: trustless ledger, transparency, data integrity, potential benefits and trade-offs.

Deliverable: Short quiz + reflection — “What social / economic / business problems could blockchain address (especially in PH / SEA)?”

Historical overview (barter → commodity money → coins → fiat → digital money); functions of money (medium of exchange, store of value, unit of account); limitations of each stage. Transition to cryptocurrencies / blockchain-based money: what problems crypto aims to solve; advantages and challenges.

Assignment: Create a timeline + write an essay: “Is crypto the logical evolution of money?”

Overview of blockchain by access/permission models: public (permissionless), private (permissioned), consortium, hybrid. Pros and cons: openness vs control; decentralization vs permissioning; transparency vs privacy; scalability vs security. Real-world suitability: choose blockchain type based on project needs (enterprise registry, tokens, licensing, etc.).

Activity: Discussion + mapping — for given use-cases (e.g. license registry, brand licensing), decide which blockchain type fits best and justify choice.

How consensus works in decentralized systems: need for agreement across network to validate blocks/data. Review of major consensus mechanisms:

• Proof-of-Work (PoW) — mining puzzles, security vs energy/scale trade-offs.
• Proof-of-Stake (PoS) — validators stake coins, energy-efficient, economic trade-offs.
• Proof-of-Authority (PoA) / permissioned-validator models — for private or consortium chains.
• Other/hybrid consensus variants — trade-offs, suitability.

Exercise: Given a hypothetical project (e.g. public token, license-NFT registry, private registry), choose a consensus mechanism; justify choice & note trade-offs.

Deep dive into how blockchain transactions are created, broadcast, confirmed; how blocks are formed; ledger replication across nodes; cryptographic hashing and immutability. Explanation of wallets and key-management: public/private keys, addresses, custody/security, risks (lost keys, theft, user error).

Lab / Demo: Create a wallet; generate keys; optionally simulate transactions on test-net (or conceptual demo); use a block-explorer to inspect transactions. Assignment: Document transaction flow & describe security/data-management considerations (back-ups, key storage, access control).

Overview of cryptocurrencies as initial blockchain use-case; then exploration of tokens / digital assets for broader applications: utility tokens, governance tokens, stablecoins, NFTs, asset-tokenization, certificates, digital identity, rights, etc. Introduction to tokenomics: supply models, token distribution, inflation/deflation, staking, utility vs speculative tokens, demand dynamics.

Discussion: Risks vs potential — volatility, speculation, scams, misuse; what makes a token/project viable vs risky. Assignment: Pick two real or hypothetical token projects — analyze their tokenomics, use-case, strengths & risks; reflect on viability.

Introduction to smart contracts / decentralized applications (dApps): what they are, how they work, and how they enable programmable logic, automation, rights and contracts on blockchain. Explore real-world use-cases: license/credential registries, land/asset registries, supply-chain traceability, identity management, digital rights, NFTs, decentralized governance (DAOs), record-keeping, decentralized finance (DeFi), social impact, etc.

Design Task: Conceptual design — propose a dApp for a real-world problem relevant to participants’ context (e.g. license registry, community registry, brand license system); outline: chosen ledger type, consensus, data model, stakeholder map, pros & cons.

Overview of how crypto markets operate: trading, exchanges, token circulation, liquidity, major actors. Analysis of risks: volatility, market swings, bubbles, fraud, scams, exit-scams; security vulnerabilities in tokens or smart contracts; speculative behavior. Review regulatory/legal/ethical aspects (global & local): data privacy, consumer protection, KYC/AML, tax, compliance, jurisdictional risk. Emphasis on responsible participation.

Assignment: Research & write a “Crypto Risk & Compliance Plan” — evaluate a real or hypothetical crypto investment/trading scenario (or token launch), identify risks, mitigation strategies, regulatory considerations, contingency planning.

Introduction to the 4th Industrial Revolution (4IR): digital transformation; convergence of digital, physical, and social systems (IoT, AI, data, smart services). Analyze how blockchain / DLT / tokenization / crypto can be integrated into future-society infrastructures — e.g. decentralized governance, digital identity, asset/tokenization, supply-chain, inclusive finance, registries, social impact, transparency, trust.

Discussion / Scenario Planning: For a community / country (e.g. Philippines / ASEAN region), envision what a “blockchain-enabled society” could look like in 5–10 years (governance, identity, social programs, economic inclusion, transparency). Identify benefits & potential challenges / risks.

Assignment: Draft a “Blockchain-Future Proposal” — propose a social, community or business project that leverages blockchain + other 4IR-tech to address a real challenge; include stakeholders, data flows, governance, benefits & risks.

Explore real-world technical and systemic challenges in blockchain systems: scalability (throughput, latency), data storage growth, consensus trade-offs (energy, decentralization, performance), block size, network constraints. Review security and privacy risks: smart-contract vulnerabilities; key and custody risks; data leaks; governance centralization; potential single-points-of-failure (especially in permissioned or private chains). Examine environmental, ethical, social trade-offs — resource & energy use (especially with PoW), sustainability, social impact.

Assignment: Risk-assessment & mitigation plan for a previously proposed blockchain-based project: propose strategies to balance decentralization, privacy, scalability, sustainability; include fallback or mitigation measures.

The capstone project tracks follow Tokyo Blockchain Academy’s applied learning philosophy, allowing learners to demonstrate mastery through multiple professional pathways—technical development, enterprise application design, or analytical modeling—within a structured, non-operational learning environment.

Students choose one of the following project tracks for their capstone:

• Option A: Native-chain / dApp / Blockchain Application — design full blockchain solution: define blockchain type, consensus mechanism, data model, governance, interface / logic.
• Option B: Use Blockchain-as-a-Service (BaaS) + Application Layer — leverage third-party BaaS infrastructure; focus on application logic, governance, front-end / service layer, data model, operations, compliance.
• Option C: Crypto-Trading Portfolio Simulator / Tokenomics / Treasury / Investment-strategy / Dashboard — design a simulated trading portfolio tool; or tokenomics-based evaluation & investment strategy; or treasury/asset-management dashboard.

Deliverables (for any track): design/spec-document; data/architecture model; governance & compliance plan; risk & mitigation plan; (optional) minimal prototype or mock-up (web, spreadsheet, smart-contract, simulation); final presentation.

Capstone presentations (live or recorded); peer and instructor feedback. Final assessment (theory + design + project). Issuance of Certificate: “Blockchain Foundation & Application – PH Edition” + digital badge. Guidance on next steps: specialization tracks (smart-contract development & security; enterprise blockchain; compliance & governance; tokenomics/investment; BaaS operations; hybrid blockchain solutions; etc.).