Dr. Marina AlcoverAcademic director focused on measurable results and operational excellence in maritime education. Integrates IMO/STCW regulations and ISO 21001/9001 f
Masters · 1500 h · 11 modules
Master's in Virtual Reality Engineering and Navigation Simulation
Immers you in the future of immersive technology and its application in the naval industry. Learn to design, develop, and implement realistic virtual environments and interactive simulations for training navigators, optimizing…
Duration1500 h
FormatOnline
Starts23 November
Places20 / 20
Prior knowledge
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Programme overview
What is the Master’s in Virtual Reality Engineering and Navigation Simulation?
The Master's in Virtual Reality Engineering and Navigation Simulation
Immers you in the future of immersive technology and its application in the naval industry. Learn to design, develop, and implement realistic virtual environments and interactive simulations for training navigators, optimizing maritime operations, and researching new technologies. Master the most advanced tools and techniques, from 3D modeling and simulator programming to sensor integration and data analytics, preparing you to lead innovation in a constantly evolving sector.
Differentiating Advantages
- Practical Approach: Development of real-world projects and case studies that simulate complex navigation scenarios.
- Cutting-edge Technologies: Use of state-of-the-art software and hardware to create immersive experiences.
- Expert Teaching Team: Professors with extensive experience in the naval industry and in the development of virtual reality solutions.
- Professional Networking: Connection with leading companies in the sector and professional internship opportunities.
- Skills Development: Comprehensive training in programming, modeling, simulation, and project management.
Programme type
Master's Degree
Study mode
Online
Duration
1,500 hours
Modules
11
Programme highlights
- Master VR: Learn to create immersive and interactive experiences with the most advanced tools and techniques.
- Cutting-edge simulation: Develop realistic simulation systems for navigation and other industries.
- Innovative projects: Participate in hands-on projects that will allow you to apply your knowledge and build a professional portfolio.
- Industry experts: Learn from professionals with extensive experience in virtual reality, simulation, and video game development.
- Career opportunities: Prepare to work for leading companies in video games, simulation, training, and visualization.
- Boost your career with a master's degree that will make you an expert in the future of technology.
Curriculum
Programme Structure
The programme is structured in 11 modules, listed below in order of study.
01
Advanced design and development of immersive systems for intelligent navigation simulation
- Advanced Fundamentals of Immersive Systems: VR, AR and MR for Maritime Simulation
- D modelling and creation of high-fidelity virtual environments for navigation
- Integration of real-time navigation sensors: GNSS, IMU, LiDAR and stereo cameras
- Design of intelligent algorithms for predictive and adaptive simulation of routes
- Multisensory control and synchronisation for consistent immersive experiences
- Implementation of brain-computer interfaces (BCI) for intuitive control in simulators
- Graphic engine optimisation and real-time rendering for nautical simulations
- Machine Learning application for dynamic scenario improvement and AI behaviour
- Development of communication and security protocols in networks for distributed immersive systems
- Ergonomic evaluation and user experience (UX) in advanced immersive systems
02
Integration and optimisation of graphic engines in virtual environments for cross-platform navigation simulation
- Advanced Basics of Graphic Engines: Architecture, Rendering Pipelines and Shading Programmable
- Cross-platform integration: analysis and adaptation for VR, AR, immersive simulators and mobile devices
- Real-time performance optimisation: LOD techniques, culling, instantiation and batching for navigation simulation
- Assets 3D management and synchronisation: textures, models, animations and visual effects specific to maritime virtual environments
- Implementation of realistic physics applied to navigation simulation: hydrodynamic simulation, wave modelling and ship dynamics
- Use of custom shaders for atmospheric and maritime effects: volumetric fog, reflection and refraction in water dynamics
- Profiling and debugging tools: detailed analysis of performance and detection of bottlenecks in graphic engines
- Integration of sensory and peripheral systems: support for motion tracking, haptic controllers and touch feedback
- Development of interactive navigation environments: Autonomous navigation management, predefined routes and dynamic real-time scenarios
- Automation and scalability: Export pipelines, content generation scripts and efficient cross-platform deployment
03
Immersive systems architecture and design strategies for advanced navigation simulation
- Immersive Systems Basics: Hardware and Software Components, Virtual Reality (VR), Augmented Reality (AR) and Mixed Reality (MR)
- Modular architecture for navigation simulators: scalable design, integration of subsystems and communication protocols in real time
- Advanced graphics platforms: 3D graphics engines, stereoscopic rendering, frame rates optimisation and minimum latency
- Sensory and touch design: haptic systems, motion sensors, eye tracking and haptic response for immersive navigation
- Modelling of maritime environments: simulation of oceanography, fluid dynamics, weather conditions and photorealistic visualisation
- Integration of Positioning Systems: GNSS, Inertial Sensors (IMU), Data Fusion and Temporary Synchronization for Millimeter Accuracy
- Immersive man-machine (HMI) interfaces: UX/UI design for intuitive control, real-time feedback and adaptability Context-Aware
- Advanced Simulation Strategies: Dynamic Scenarios, Artificial Intelligence Algorithms for Risk Detection and Adaptive Responses
- Networks and communications in distributed systems: low-latency protocols, multi-user synchronisation and security in collabourative environments
- Validation and calibration of immersive systems: precision metrics, usability tests and applicable international standards
04
Advanced physical and sensory modelling for navigation simulation: vehicle and ship dynamics, sensor and haptic modelling, collision management, multiplayer synchronisation and real-time operational validation
- Advanced principles of vehicle and ship dynamics in virtual environments: kinematic and dynamic models adapted to different means of navigation
- Physical modelling of fluids and aerodynamics for realistic simulation: CFD techniques applied to the boat-water and vehicle-air interaction
- Implementation of advanced sensor modelling systems: radars, echo sounders, LiDAR, stereoscopic cameras and inertial sensors for accurate virtual perception
- Development and optimisation of haptic interfaces for navigation simulation: touch feedback, kinesthetic and force for sensory immersion
- Collision management algorithms and predictive detection: Techniques in computational physics and evasion logic in multivehicle dynamic environments
- Real-time multiplayer synchronisation mechanisms: communication protocols, minimum latency, state consistency and event replication
- Operational validation and performance evaluation in simulators: benchmarking, precision metrics and fidelity to real scenarios
- Optimisation of computational performance in complex simulation: GPU techniques, parallelization and load balancing for real-time environments
- Integration of sensory and physical models in collabourative simulation platforms: data flow and coordination for joint training
- Case studies: Advanced maritime and aerospace simulations applied to training and design, with results analysis and continuous improvements
05
Advanced immersive virtual reality techniques for accurate simulation of sea and aerial navigation
- Fundamentals of sensory immersion: haptic, visual and auditory technologies for realistic simulation
- Advanced 3D modelling of maritime and aerial environments - landscape design, dynamic objects and environmental effects
- Integration of real-time positioning and navigation systems: GPS, INS, and radar systems for millimeter precision
- Simulation of Computational Fluid Dynamics (CFD) Applied to Navigation: Behaviour of Waves, Wind and Atmospheric Turbulence
- Combined virtual and augmented reality for multi-sensory interaction and decision making in critical scenarios
- Development and programming of prediction and response algorithms in VR systems for training in navigation
- Implementation of adaptive feedback based on biometrics and telemetry to increase immersion and realism
- Platform optimisation Hardware and software for ultra-low latencies and parallel processing in complex simulations
- Validation and verification protocols to ensure fidelity and security in simulations of sea and air navigation
- Case studies and practical application in multi-user scenarios and interoperability in distributed virtual reality environments
06
Innovation in design, integration and optimisation of immersive systems for advanced navigation simulation
- Advanced basics in immersive systems design: 3D modelling, real-time rendering and augmented reality applied to navigation simulators
- Hardware architectures for immersive environments: VR platform analysis, graphic workstations and motion capture devices
- Multi-sensory integration: GPS, INS, LIDAR data fusion and inertial sensors for accurate simulation of maritime and air scenarios
- Algorithmic simulation engine optimisation: Techniques for latency reduction, improved refresh rate and photorealistic visual realism
- Development of haptic interfaces and kinesthetic feedback: incorporation of touch feedback technologies for advanced simulated navigation
- Dynamic simulation of sea conditions: Mathematical modelling of waves, currents and wind using Navier-Stokes systems adapted for VR
- Advanced Navigation and Visualization Systems: Integration of Interactive Digital Panels, HUD and Virtualized ECDIS Systems
- Real-time optimisation and calibration: automatic adjustment of physical and environmental parametres to maximise loyalty and user experience
- Methodologies for collabourative and modular design of immersive scenarios, facilitating rapid updating and adaptation to new navigation protocols
- Evaluation and validation of immersive systems: performance metrics, usability tests and certification protocols applied to advanced navigation simulators
07
Fundamentals and design strategies in immersive systems for high-precision navigation
- Fundamental principles of spatial perception in immersive environments: visual physiology, kinesthesia and multi-sensory sensory processing
- Advanced man-machine interaction models for augmented and virtual reality systems applied to high-precision navigation
- Design and development of immersive interfaces: ergonomic factors, usability and accessibility in simulation systems for maritime and aerial navigation
- Real-time 3D rendering algorithms: volumetric rendering, shading techniques and graphic optimisation in VR systems
- Dynamic simulation of navigation objects and environments: calculation of paths, physical modelling and real-time response to external variables
- Integration of inertial sensors and GNSS in immersive platforms to improve positional precision and spatial orientation
- Calibration and validation methodologies of simulated navigation systems: error analysis, drift correction and implementation of advanced Kalman filters
- Development of communication and synchronisation protocols for distributed virtual reality environments with applications in collabourative navigation
- Latency and jitter optimisation in immersive systems to ensure a smooth and secure user experience in high-precision simulations
- Advanced machine learning based design strategies for adaptation and customisation of VR systems in professional browsing
08
Simulation and multidimensional analysis for optimisation of training in virtual environments of intelligent navigation
- Fundamentals of multidimensional simulation: theory, mathematical models and advanced spatial representation
- Integration of dynamic models in virtual environments: computational physics and kinematics applied to smart navigation
- Real-time data analysis: processing, filtering and visualisation for training optimisation
- Complex navigation behaviour and scenario modelling: artificial intelligence, machine learning and predictive techniques
- Multimodal VR sensory systems: integration of visual, auditory and haptic feedback for total immersion
- User performance optimisation: cognitive metrics, mental load control and virtual environment adaptability
- Simulator evaluation and validation: Fidelity, precision and reproducibility tests in navigation simulation
- Advanced software architectures for real-time simulation: parallelization, rendering and multidimensional synchronisation
- Methodologies for the configuration of custom and modular scenarios in virtual navigation training
- Practical Applications: Design, Implementation and Analysis of Case Studies for Operator Training in Critical Environments
09
Advanced strategies in sensory modelling, graphic engine optimisation and system architecture for the creation of immersive virtual environments 360°
- Advanced Fundamentals of Sensory Modelling: Deep Understanding of Human Perception and its Transduction in Virtual Systems
- Capture and multimodal synthesis: visual, auditory, haptic and vestibular sensory integration techniques for VR 360° environments
- Real-time graphics engine optimisation: rasterization, deferred rasterization and hybrid rendering algorithms for high fidelity and performance
- Pipeline Graphic: Shaders to Frame Generation with Focus on Latency Reduction and Jitter
- Specialised hardware architectures for immersive simulation: GPUs, parallel computing systems, and 360° display devices
- Distribution and synchronisation systems: Cluster load management for multi-user and multi-station cohesive experiences
- Physical and behavioural modelling in virtual environments: Fluid dynamics, advanced collisions, and simulation of complex materials
- Human-machine interaction: design of haptic and kinematic interfaces, body tracking, and adaptive feedback for natural navigation in VR
- Advanced Resource Optimisation: Dynamic Level of Detail (LOD), Spatial and Time Culling, and Efficient GPU Memory Management
- Integration of artificial intelligence for real-time adjustment of graphic and sensory parametres according to user behaviour and environmental conditions
10
Validation, certification and training use of navigation simulators
- DNV-ST-0033 standard for maritime simulators
- STCW Convention Requirements for Training with Simulators
- Validation of hydrodynamic models
- Design of training scenarios
- Simulator Competence Assessment
- Role of the instructor and debriefing
- Bridge, machine and load simulators
- Simulation of port manoeuvres
- Human factors and perceived realism
- Accreditation plan for a simulation centre
11
Master’s Final Project in Virtual Reality Engineering and Navigation Simulation
- Objectives and scope of the final work: Definition of functional and non-functional requirements for navigation systems in VR 360° environments
- System design and architecture: modular modelling, hardware-software integration, choice of graphic engines and frameworks supported with real-time rendering
- Implementation of realistic simulations: advanced algorithms for stereoscopic rendering, multi-sensory synchronisation and physics applied to navigation dynamics
- Real-time data capture and processing: virtual sensor integration, 3D spatial mapping and data flow optimisation to minimise latencies
- Immersive user interface design: development of adaptive HUDs, intuitive controls and haptic feedback to improve user experience and precision in navigation
- System validation and calibration: Objective evaluation techniques through performance metrics, usability tests and comparative analysis with real systems
- Methodologies for training in virtual environments: development of modular scenarios, automatic generation of critical events and continuous user evaluation
- Optimisation and scalability: use of computational complexity reduction techniques, load balancing in distributed systems and adaptation for multiple VR platforms
- System security and robustness: Implementation of anti-fault protocols, error recovery and cybersecurity in immersive simulation environments
- Technical documentation and presentation of the project: preparation of detailed reports, video-demonstrations, and technical defence before an evaluator panel to guarantee professional competence
Workload
Study Time and Workload
1500 hours of study, online and at your own pace. Move the slider to the hours a week you can really put in.
Hours a week8
Weeks to finish—
You finish around—
Who it is for
Engineers and architects interested in applying virtual reality and simulation in the design, construction, and operation of infrastructure.Video game and immersive application developers seeking to specialize in simulating complex environments and realistic interaction.Maritime and naval professionals wishing to optimize training and safety using state-of-the-art navigation simulators.Resea
Faculty
Academic direction and faculty
The teaching team at Navalis: working professionals who deliver and oversee the institute's programmes.
Eng. Diego Cifuentes
Cap. Javier Abaroa (MCA)
Dr. Pau Ferrer
Dr. Nuria Llobregat
Eng. Javier Bañuls
Eng. Sofía Marquina
Eng. Tomás Riera
Verified reviews
Student Reviews
Reviews collected and verified by Opynio, not written by us.
Outcomes
Learning Outcomes
- 01Develop innovative VR solutions for naval simulation
- 02Designing intuitive interfaces for interaction in virtual navigation environments
- 03Optimizing the performance and efficiency of naval systems through virtual simulation
- 04Accurately model the behavior of ships and vessels in various maritime scenarios
- 05Assessing and mitigating risks in complex maritime operations through simulation
- 06Implement advanced algorithms for the realistic simulation of ocean phenomena
Careers
Career Opportunities
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02Virtual Reality (VR) and Augmented Reality (AR) Application Developer: Design and programming of immersive experiences in various sectors.
03Simulation Engineer: Creation and management of simulations for training, product design, and process analysis.
04Virtual Environment Designer: Modeling and texturing of virtual worlds for video games, educational applications, and industrial simulations.
05VR/AR Consultant: Advising companies on the implementation of virtual and augmented reality solutions to optimize their operations.
06VR and Simulation Researcher: Development of new technologies and methodologies in the field of virtual reality and simulation.
07Data Visualization Specialist: Creation of interactive graphical representations of complex data using VR/AR.
08VR/AR Systems Architect: Design and implementation of hardware and software infrastructures for virtual and augmented reality applications.
09VR/AR Technologies Trainer: Instructor in the use and development of virtual and augmented reality applications for different industries.
Questions
Entry Requirements
Virtual reality and navigation simulation.
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.
It focuses more on software development, including 3D modeling, graphic programming, user interfaces and interaction, and physical simulation, although it also addresses integration with specific hardware for virtual reality and navigation.
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 Institute + operational portfolio (tracks, SOPs, reports and KPIs) useful for audits and employment.
Online admissions
Admissions Process
No waiting for a phone call. If your documents are complete, you can pay in the same session.
Entry requirements
```htmlAcademic/Professional Profile:Bachelor's Degree in Computer Engineering, Industrial Engineering, Mathematics, Physics or related field; or demonstrable professional experience in software development, 3D modeling, or simulation.Technical Knowledge:Knowledge of programming (C++, C#, Python), game engines (Unity, Unreal Engine), 3D modeling, and tracking systems will be valued.Skills:Analytical and problem-solving skills, logical thinking, creativity, teamwork, and effective communication.Documentation:Updated CV, copy of degree, academic transcript (optional), cover
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