Master’s Degree in Blockchain and Traceability in Maritime Trade
Why this master’s programme?
The Master’s in Blockchain and Traceability in Maritime Trade
Offers an in-depth immersion in the application of decentralized technologies to optimize and secure maritime supply chains. Learn to implement blockchain solutions to improve transparency, security, and efficiency at every stage of the process, from origin to final destination. Master the management of digital identities, smart contract automation, and asset traceability in a complex, globalized environment.
Differentiating Advantages
- Real-world case studies: analysis of successful implementations in the maritime and port sector.
- Industry experts: learn from professionals with experience in blockchain and international trade.
- Project development: create innovative solutions to solve specific industry challenges.
- Strategic networking: connect with leading companies and professionals in the blockchain field.
- Comprehensive vision: understand the impact of technology on logistics, finance, and regulation.
- Modality: Online
- Level: Masters
- Hours: 1600 H
- Start date:
Availability: 1 in stock
Who is it aimed at?
- Maritime trade professionals (importers, exporters, shipping companies) seeking to optimize the supply chain, reduce fraud, and improve transparency.
- Logistics and customs experts interested in implementing blockchain solutions to streamline processes, reduce costs, and increase security.
- Software developers and IT consultants who want to specialize in applying blockchain to the maritime sector and cargo traceability.
- Compliance officers who need to understand and apply emerging regulations regarding blockchain and international trade.
- Business Administration, Law, or Engineering graduates who aspire to lead the digital transformation of maritime trade with technology Disruptive.
Flexibility and Practical Application
Designed for active professionals: flexible online format, real-world case studies, and practical projects to apply knowledge to the workplace.
Objectives and skills
Implement tamper-proof traceability systems:
“Integrating blockchain and timestamps to ensure the integrity and auditability of tracking data at every stage of the supply chain.”
Managing the tokenization of maritime assets:
Evaluate feasibility, design the token structure, and ensure regulatory compliance (KYC/AML) when tokenizing assets.
Optimize document management with DLT technologies:
Implement immutable and traceable storage systems, guaranteeing the integrity and auditability of the information.
Develop innovative strategies in the maritime supply chain:
Implement predictive demand models and route optimization, integrating weather and port congestion data to reduce costs and delivery times.
Leading the digital transformation of the maritime sector:
Implement blockchain solutions for traceability and security in the maritime supply chain, optimizing processes with IoT and predictive analytics for agile and data-driven decision-making.
Design and implement Blockchain solutions for security and efficiency in maritime trade:
“Create a Blockchain-based digital identity system for the crew, facilitating real-time verification of credentials and permits and reducing document fraud.”
Study plan – Modules
- Introduction to the maritime supply chain: structure, key players, and logistics flows
- Fundamentals of blockchain technology in maritime trade: characteristics, types of blockchains, and distributed consensus
- Integration of traceability systems with blockchain: standards, protocols, and specialized platforms for tracking goods
- Advanced data analysis models applied to supply chain optimization: big data, machine learning, and predictive techniques
- Inventory control in connected maritime environments: automation, RFID, IoT, and synchronization with immutable blockchain records
- Security and encryption in data transmission: cryptographic methods for protecting sensitive information and resilience against cyberattacks
- Risk management in maritime transport using blockchain traceability: early incident detection and automated response mechanisms
- Implementation of smart contracts for automating logistics operations and ensuring compliance with agreements
- Contractual
- Auditing and regulatory compliance in blockchain systems: international regulations, customs regulations, and security standards
- Case studies and benchmarking of effective blockchain solutions for optimizing logistics and traceability in ports and maritime terminals
- Advanced Blockchain Fundamentals: Cryptographic Data Structures, Distributed Consensus, and Hash Algorithms Applied to Maritime Traceability
- Blockchain Architecture Models: Public, Private, and Consortium Blockchains, and Their Impact on Maritime Logistics Security
- Integrating Smart Contracts for Process Automation: Development, Auditing, and Deployment in Maritime Environments
- Advanced Cryptographic Protocols: Zero-Knowledge Proofs, Digital Signatures, and Privacy Mechanisms to Ensure Information Integrity in Supply Chains
- Implementing Distributed Traceability Systems: Techniques for Real-Time Tracking of Goods and Shipping Assets Using Blockchain
- Blockchain Interoperability Applied to Maritime Logistics: Cross-Chain Bridges, Standards, and Technical Challenges
- Integrating IoT with Blockchain: Maritime Sensors, Automatic Data Capture and immutable assurance through distributed ledgers
Advanced risk analysis and cybersecurity in blockchain environments for logistics operations: mitigation of internal and external threats
Disruptive innovation case studies: blockchain in cargo certification, digital chain of custody, and self-verifying customs processes
Regulation, compliance, and governance in blockchain technologies applied to maritime traceability: international regulations, standards, and best practices
- Blockchain Fundamentals: distributed architecture, decentralized consensus, applied cryptography, and immutable data models in blockchains
- Blockchain protocols specific to maritime trade: analysis of Ethereum, Hyperledger Fabric, and Corda, and their applicability to traceability and security
- Design and implementation of traceability systems: integration of IoT, RFID, and GPS sensors with blockchain for real-time tracking of cargo and containers
- Smart contracts for automating logistics processes: self-executing contracts for documentation, automated payments, and regulatory compliance in the maritime supply chain
- Security and privacy in the supply chain: advanced cryptographic techniques, digital identity management, and mitigation of cyber risks on blockchain platforms
- Operational optimization using Blockchain: analysis of information flows, reduction of intermediaries and costs, and improvement in inventory management and port storage
- Multi-system integration: synchronization of Blockchain with ERP, TMS, and WMS for comprehensive and transparent traceability from origin to destination.
International regulations and standards applied to blockchain in maritime trade: legal compliance, certifications, and audits based on immutable records.
Case studies and advanced simulations: blockchain implementation for traceability in real-world operations, detection and resolution of supply chain inconsistencies.
Innovation and the future of maritime traceability: interoperable blockchain, federated networks, and the impact of emerging technologies such as AI and 5G on global maritime logistics management.
- Blockchain Architecture Fundamentals: Distributed Consensus, Nodes, P2P Networks, and Public, Private, and Hybrid Chain Configuration
- Smart Contract Design and Development: Solidity and Vyper Languages, Data Structures, Error Control, and Gas Optimization
- Advanced Cryptographic Encryptions: Asymmetric Cryptography, Hash Functions, Digital Signatures, and Secure Key Generation Applied to IoT
- IoT in Marine Environments: Maritime Sensors, Communication Protocols (MQTT, CoAP), Integration and Management of IoT Devices in the Supply Chain
- Implementing Traceability with Blockchain: Immutable Data Recording, Interoperability Between Platforms, and Real-Time Auditable Record Generation
- Security Mechanisms in Blockchain and IoT: Prevention of Sybil Attacks, Spoofing, Replay, and Vulnerability Analysis in Maritime Networks
- Optimizing the Maritime Supply Chain: Automation through Smart Contracts, automatic event validation, and fraud reduction
Specific consensus protocols for IoT: Proof of Stake (PoS), Practical Byzantine Fault Tolerance (PBFT), and adaptations for low latency in maritime networks
Associated standards and regulations: compliance with international regulations in the use of Blockchain and IoT for maritime trade
Real-world use cases and impact analysis: integration of Blockchain and IoT in fleets, smart ports, and cold chain tracking for maritime products
- Fundamentals of hybrid blockchain networks: definitions, characteristics, and differences compared to public and private blockchains
- Technical architecture of hybrid blockchains applied to maritime traceability: nodes, consensus, smart contracts, and oracles
- Design and implementation of governance models in hybrid blockchains: roles, permissions, and distributed control mechanisms
- Integration of IoT and smart sensors in ports and maritime fleets for automatic real-time data capture
- Development of secure traceability systems: application of advanced cryptography and encryption techniques in hybrid chains
- Interoperable protocols and standards for maritime trade: adaptation of EDI, EPCIS, and GS1 in blockchain environments
- Logistics optimization through smart contracts: automation of documentation, customs, and digital certification processes
- Practical implementation in smart ports: use cases, node deployment, and synchronization with systems
- Legacy
- Data Integrity Monitoring and Analysis: Use of Blockchain Audit Tools and Early Warning Systems for Inconsistencies
- Scalability and Performance of Hybrid Blockchains: Advanced Techniques for Handling Large Transaction Volumes and Reducing Latency
- Regulatory Aspects and Compliance: International Regulatory Compliance for the Use of Blockchain in Maritime Trade and Data Protection
- Cybersecurity Strategies: Attack Prevention, Fraud Protection, and Intrusion Resilience in Hybrid Networks
- Real-World Case Studies and Practical Simulations: Implementation of Hybrid Networks in Fleets and Smart Ports with Advanced Demonstrations
- Evaluation of Economic and Operational Impact: Measurable Benefits in Efficiency, Cost Reduction, and Transparency in the Maritime Logistics Chain
- Future and Trends: Integration with AI, Big Data, and 5G to Enhance Traceability and Intelligent Management in the Sector maritime
- Fundamentals of Hybrid Blockchain Networks: architecture, characteristics, advantages, and operational challenges in maritime environments
- Distributed consensus models: PoW, PoS, BFT, and hybrid mechanisms adapted to international maritime logistics
- Integration of public and private blockchains: design of layers and structures to optimize the security and privacy of logistics information
- Advanced Smart Contract development: specialized programming languages (Solidity, Vyper), design patterns, and use cases for the automation of port and contractual processes
- Oracles and their role in connecting real-world data (IoT sensors, GPS, AIS systems) and blockchain for real-time traceability
- Applied cryptographic techniques: asymmetric cryptography, elliptic curves, zero-knowledge proofs, and their use to guarantee integrity and confidentiality in the maritime logistics chain
- Advanced security and encryption protocols for the protection of transactional and personal data in international maritime operations
- Interoperability architecture between multiple blockchain platforms used by stakeholders such as shipping companies, port terminals, and regulatory agencies
- Implementation of permissioned and permissionless networks in port scenarios: risk and benefit assessment for each modality
- Performance optimization and scalability: sharding, sidechains, and layer 2 solutions to support the high volume of operations and transactions in the global logistics chain
- Auditing and continuous monitoring of smart contracts and blockchain nodes to ensure compliance, anomaly detection, and proactive response to vulnerabilities
- Study of real-world cases and pioneering projects in the application of hybrid blockchain and smart contracts for traceability and security in the maritime industry
- Development of policies and technical standards for the standardization of blockchain solutions in international maritime trade
- Advanced fundamentals of blockchain technology applied to the maritime logistics chain: block structure, distributed consensus, smart contracts, and decentralized governance mechanisms.
- Design and implementation of cryptographic protocols to ensure data integrity and confidentiality in maritime blockchain networks: cryptographic hashes, digital signatures, asymmetric encryption, and zero-knowledge proofs.
- Blockchain network architecture and topologies for maritime traceability: public, private, and consortium solutions, with an emphasis on efficiency, scalability, and fault tolerance.
- Integration of IoT (Internet of Things) in ports and vessels for automated, real-time data capture: RFID sensors, GPS, telematics devices, and their integration with blockchain systems.
- Modeling and digitization of the maritime supply chain using smart contracts: automation of document processes, payment release, and management of conditional events based on reliable and traceable information.
- Advanced analysis of the impact of blockchain traceability on logistics optimization: reduced dispatch times, minimized human error, and improved coordination between commercial agents, port authorities, and shipping companies.
- Cybersecurity and defense systems for critical maritime infrastructure based on blockchain: advanced intrusion detection, resilience to DDoS attacks, and decentralized identity (DID) management.
- International regulations and technical standards applicable to blockchain implementation in maritime trade: IMO compliance, ISO 28219 on blockchain for logistics, and digital customs regulations.
- Real-world use cases and case studies: blockchain implementation for container tracking, cargo certification, fraud prevention, and document management in smart ports and global supply chains.
- Leading tools and platforms for developing blockchain solutions in maritime trade: Hyperledger Fabric, Ethereum, Corda, and their adaptation to the specific needs of the sector.
- Return on Investment (ROI) evaluation methodologies and cost-benefit analysis in the adoption of blockchain technologies for digitization and logistics traceability.
- Practical implementation of a blockchain traceability pilot in a controlled environment: architecture design, node deployment, smart contract configuration, and analysis of operational results.
- Impact of blockchain innovation on the sustainability and environmental traceability of the maritime industry: emissions tracking, compliance with environmental regulations, and transparency in the chain of custody.
- Organizational change management and staff training in the adoption of blockchain technologies to maximize their disruptive potential and avoid internal resistance.
- Emerging trends in blockchain and complementary technologies in maritime trade: cross-chain interoperability, tokenization of maritime assets, and the use of artificial intelligence for predictive analytics in the logistics chain.
- Blockchain Technology Fundamentals: Distributed Consensus, Asymmetric Cryptography, Hash Functions, and Immutability Principles in Electronic Records
- Architectural Design of Blockchain Platforms for Traceability: Analysis and Selection of Protocols (PBFT, PoS, PoW), Data Structures, and Decentralized Network Models
- Advanced Smart Contracts: Development, Formal Verification, and Secure Deployment for the Automation of Maritime Logistics and Trade Processes
- Interoperability and Orchestration Across Multiple Blockchains: Cross-Chain Protocols, Data Bridges, and API Standardization for Industry Integration
- Applied Cryptographic Security: Key Generation and Management, Digital Signatures, Homomorphic Encryption, and Protection Mechanisms Against Emerging Quantum Attacks
- Modeling Traceability in Maritime Trade: Capture, Recording, and Validation of Logistics Events, Electronic Documents, and Smart Contracts in Real Time
- IoT and Blockchain Integration for Maritime Tracking: Architecture
- Sensors, gateways, and secure protocols for automatic data capture and immutable recording
- Implementation of scalable and robust consensus systems for global operations: optimization of latency, performance, and fault tolerance in distributed networks
- Compliance and international regulations: adaptation of Blockchain platforms to IMO, FAL, GDPR regulations and cybersecurity standards in the maritime industry
- Case studies and technological challenges: design, simulation, and implementation of Blockchain projects for comprehensive traceability management in complex maritime logistics chains
- Blockchain Technology Fundamentals: Block Structure, Distributed Consensus, Nodes, and Decentralized Networks
- Cryptographic Protocols Applied to Blockchain: Cryptographic Hashing, Digital Signatures, Symmetric and Asymmetric Encryption, and Consensus Algorithms such as Proof of Work and Proof of Stake
- Smart Contract Design and Development: Programming Languages (Solidity, Vyper), Lifecycle, Security Audits, and Implementation Best Practices
- Implementation of Traceability Systems in the Maritime Logistics Chain: Integration of IoT, Sensors, and Edge Devices with Blockchain to Ensure Real-Time Data Integrity
- Tokenization Models for Maritime Assets: Digital Representation of Containers, Cargo, Documents, and Certifications through Fungible and Non-Fungible Tokens (NFTs)
- Hybrid and Private Blockchain Architectures in Port Environments: Hyperledger Fabric, Quorum, and Corda to Guarantee Privacy, scalability, and regulatory compliance
Advanced cryptography for logistics information security: zero-knowledge proof techniques, multi-signature contracts, and homomorphic encryption applied to sensitive data
Optimizing logistics processes through intelligent automation: orchestration of smart contracts for shipment management, customs clearance, and automatic payment release
Interoperability between different blockchain platforms and maritime ERP systems: standards, APIs, and protocols to ensure a continuous flow of frictionless information
Use cases applied in the shipping industry and global maritime trade: cold chain tracking, certification of origin, fraud prevention, and improved delivery times using blockchain
International regulations and standards for the secure implementation of blockchain in the maritime sector: ISO 23455, IMO guidelines, and emerging regulatory frameworks
Risk analysis and mitigation strategies in the deployment of blockchain and smart contracts: cybersecurity, insider threats, and vulnerabilities and contingency plans
Advanced tools and platforms for the development, monitoring, and auditing of marine blockchain solutions: Truffle, Ganache, Etherscan, and enterprise orchestration solutions
Hands-on workshop on the design and simulation of a blockchain system for port traceability: from conception to validation and deployment in controlled environments
The future of blockchain in maritime logistics: integration with AI, Big Data, and emerging technologies to drive the digitalization and sustainability of global trade
- Advanced Blockchain Fundamentals: Distributed Consensus, Cryptographic Algorithms, and Decentralized Architectures Applied to Maritime Trade
- Smart Contract Design: Development, Auditing, and Deployment for the Automation of Logistics and Commercial Processes in Maritime Environments
- Traceability System Modeling: Integration of IoT, Maritime Sensors, and Blockchain for Immutable Recording and Real-Time Tracking of Cargo and Containers
- Implementation of International Standards for Traceability and Compliance: ISO 28000, IMO SMCP, and Maritime Safety Regulations Interrelated with Blockchain
- Hybrid and Multi-Chain Architectures: Interoperability Between Public and Private Networks for Optimization and Security in Maritime Information Exchange
- Security and Privacy in Blockchain Systems Applied to Maritime Trade: Advanced Cryptographic Techniques, Zero-Knowledge Proofs, and Protection of Sensitive Data
- Integrated Maritime Supply Chain Management: Coordination
- Analysis of real-world blockchain deployment cases in ports, logistics operators, and shipping companies to ensure transparency and operational efficiency
- Development of consensus algorithms specific to the maritime industry: adaptation to operational conditions and regulatory requirements of the sector
- Methodologies for the assessment and mitigation of technological and legal risks in blockchain projects applied to global maritime trade
- Design and planning of the Final Project: establishing objectives, defining the scope, and establishing success metrics for the integrated traceability system
- Prototyping and simulations: creation of virtual environments to validate the system architecture and key functionalities before implementation
- Integration strategies with existing systems: ERP, TMS, and maritime databases to ensure full interoperability and operational continuity
- Deployment and monitoring of the blockchain system: real-time tracking tools, performance analysis and proactive maintenance
Final evaluation and comprehensive documentation: preparation of technical reports, presentation of results and recommendations for scalability and industrial adoption
Career prospects
“`html
- Blockchain Traceability Specialist: Implementation and management of traceability systems in the maritime supply chain.
- Blockchain Consultant for Maritime Trade: Advising companies on the adoption of blockchain technologies.
- Blockchain Project Manager: Leading blockchain implementation projects in the maritime sector.
- Blockchain Data Analyst: Analysis of data generated by blockchain systems to optimize processes and make decisions.
- Blockchain Solutions Developer: Design and development of blockchain applications for maritime trade.
- Blockchain Security Expert: Protecting blockchain systems against attacks and vulnerabilities.
- Head of Innovation in Maritime Logistics: Research and implementation of new blockchain technologies to improve efficiency.
- Blockchain Systems Auditor: Verification of the security and regulatory compliance of blockchain systems in the maritime sector.
“`
Entry requirements
Academic/professional profile:
Bachelor’s degree in Nautical Science/Maritime Transport, Naval/Marine Engineering or a related qualification; or proven professional experience on the bridge/in operations.
Language proficiency:
Functional Maritime English (SMCP) recommended for simulations and technical materials.
Documentation:
Updated CV, copy of qualification or seaman’s book, national ID/passport, motivation letter.
Technical requirements (for online):
Device with camera/microphone, stable internet connection, monitor ≥ 24” recommended for ECDIS/Radar-ARPA.
Admissions process and dates
Online
application
(form + documents).
Academic review and interview
Admissions decision
Admissions decision
(+ scholarship offer if applicable).
Place reservation
(deposit) and enrolment.
Induction
(access to the virtual campus, calendars, simulator guides).
Scholarships and financial support
- Blockchain in the Maritime Sector: Master the application of blockchain technologies to optimize the maritime supply chain.
- Advanced Traceability: Implement comprehensive traceability systems to guarantee the security and authenticity of goods.
- International Trade: Learn to digitize and streamline processes in global maritime trade, reducing costs and increasing efficiency.
- Real-World Case Studies: Analyze and apply blockchain solutions to specific challenges in the maritime sector.
- Industry Experts: Training delivered by leading professionals in blockchain and trade maritime.
Testimonials
I applied the knowledge I gained from my Master’s in Blockchain and Traceability in Maritime Trade to optimize my company’s supply chain. We implemented a blockchain solution that reduced delivery times by 20%, minimized documentation errors, and increased transparency for our customers, resulting in a 15% increase in customer satisfaction and significant savings in operating costs.
I applied the knowledge from the master’s program to develop a system for predicting optimal routes for a fleet of cargo ships, reducing fuel consumption by 12% and CO2 emissions by 15% in the first quarter of implementation.
I implemented a blockchain traceability system for a major shipping company, reducing delivery times by 15% and documentation costs by 20%, as well as minimizing discrepancies in information and increasing transparency throughout the supply chain.
I implemented a blockchain-based traceability system for a major shipping company, reducing delivery times by 30% and minimizing losses due to documentation errors. This increased customer satisfaction and generated a 15% increase in operational efficiency.
Frequently asked questions
Yes. The itinerary includes ECDIS/Radar-ARPA/BRM with harbor, ocean, fog, storm, and SAR scenarios.
Online with live sessions; hybrid option for simulator/practical placements through agreements.
Logistics and maritime trade sector.
Recommended functional SMCP. We offer support materials for standard phraseology.
Yes, with a relevant degree or experience in maritime/port operations. The admissions interview will confirm suitability.
Optional (3–6 months) through Companies & Collaborations and the Alumni Network.
Simulator practice (rubrics), defeat plans, SOPs, checklists, micro-tests and applied TFM.
A degree from Navalis Magna University + operational portfolio (tracks, SOPs, reports and KPIs) useful for audits and employment.
- Advanced Blockchain Fundamentals: Distributed Consensus, Cryptographic Algorithms, and Decentralized Architectures Applied to Maritime Trade
- Smart Contract Design: Development, Auditing, and Deployment for the Automation of Logistics and Commercial Processes in Maritime Environments
- Traceability System Modeling: Integration of IoT, Maritime Sensors, and Blockchain for Immutable Recording and Real-Time Tracking of Cargo and Containers
- Implementation of International Standards for Traceability and Compliance: ISO 28000, IMO SMCP, and Maritime Safety Regulations Interrelated with Blockchain
- Hybrid and Multi-Chain Architectures: Interoperability Between Public and Private Networks for Optimization and Security in Maritime Information Exchange
- Security and Privacy in Blockchain Systems Applied to Maritime Trade: Advanced Cryptographic Techniques, Zero-Knowledge Proofs, and Protection of Sensitive Data
- Integrated Maritime Supply Chain Management: Coordination
- Analysis of real-world blockchain deployment cases in ports, logistics operators, and shipping companies to ensure transparency and operational efficiency
- Development of consensus algorithms specific to the maritime industry: adaptation to operational conditions and regulatory requirements of the sector
- Methodologies for the assessment and mitigation of technological and legal risks in blockchain projects applied to global maritime trade
- Design and planning of the Final Project: establishing objectives, defining the scope, and establishing success metrics for the integrated traceability system
- Prototyping and simulations: creation of virtual environments to validate the system architecture and key functionalities before implementation
- Integration strategies with existing systems: ERP, TMS, and maritime databases to ensure full interoperability and operational continuity
- Deployment and monitoring of the blockchain system: real-time tracking tools, performance analysis and proactive maintenance
Final evaluation and comprehensive documentation: preparation of technical reports, presentation of results and recommendations for scalability and industrial adoption
Request information
Complete the Application Form.
Attach your CV/degree certificate (if you have it to hand).
Indicate your preferred cohort (January/May/September) and whether you would like the hybrid option with simulator sessions.
An academic advisor will contact you within 24–48 hours to guide you through the admission process, scholarships, and compatibility with your professional schedule.
Faculty
Eng. Tomás Riera
Full Professor
Eng. Tomás Riera
Full Professor
Naval engineer specializing in the selection, integration, and optimization of propulsion systems for yachts, high-speed craft, and service vessels.
Eng. Sofía Marquina
Full Professor
Eng. Sofía Marquina
Full Professor
Materials engineer specializing in marine composites and corrosion protection systems for ships, yachts, and port structures.
Eng. Javier Bañuls
Full Professor
Eng. Javier Bañuls
Full Professor
Naval electrical engineer with over fifteen years of experience in the design, integration, and operation of power and automation systems.
Dr. Nuria Llobregat
Full Professor
Dr. Nuria Llobregat
Full Professor
Specialist in meteorological and operational decision-making for coastal and offshore navigation, integrating wind, wave, and current models.
Dr. Pau Ferrer
Full Professor
Dr. Pau Ferrer
Full Professor
Naval engineer with a PhD in applied hydrodynamics and over a decade of experience designing high-performance hulls and marine structures.
Cap. Javier Abaroa (MCA)
Full Professor
Cap. Javier Abaroa (MCA)
Full Professor
MCA-certified captain with command of ocean-going vessels, specializing in advanced maneuvering, navigation management, and bridge safety.