Master’s degree1,500 h · Online · 11 modules

Master's in Graphene, Composites and Nanomaterials

This master's takes you to the frontier of materials engineering: high-performance composites, the remarkable properties of graphene and the possibilities of nanotechnology. You will learn how these materials are designed, synthesized, functionalized, characterized, modeled, manufactured and scaled up to industrial production, and how they are tested, certified and applied in sectors such as aerospace, automotive, energy, electronics, biomedicine and marine engineering, so that you can lead the development and technology transfer of the next generation of materials.

Duration1,500 h

ModeOnline

Start1 December

Modules11

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About the program

What is the Master's in Graphene, Composites and Nanomaterials?

This master's builds a complete path from the atomic structure of a material to an industrial product. You will study matrices, reinforcements and interfaces in composites; RTM, pultrusion, infusion, autoclave, prepreg, automated lay-up and additive manufacturing; top-down and bottom-up fabrication of nanomaterials, CVD, PVD, sol-gel, exfoliation and self-assembly; covalent and non-covalent functionalization of graphene and carbon nanotubes and their dispersion in polymer, ceramic and metal matrices; characterization with SEM, TEM, AFM, Raman, FTIR, XPS, X-ray diffraction, TGA, DSC and computed tomography; multiscale modeling from molecular dynamics to finite elements; mechanical, thermal, electrical and functional properties; and the scale-up, inline quality control, nanosafety, regulation, life cycle assessment and intellectual property that turn a laboratory result into a product.

What sets this master's apart: rather than looking at materials for a single industry, it treats graphene, composites and nanomaterials as a cross-sector technology platform, with special attention to fabrication, scale-up and technology transfer from the lab to production lines; it still keeps a solid applied block on testing, marine aging, fire behavior, bonded and mechanical joints, repair and classification society certification of composite structures; and it closes with a Final Project in which you design and optimize an innovative multiscale solution based on composites, graphene or nanotechnology.

Program typeMaster’s degree

ModeOnline

Duration1,500 hours

Modules11

Start1 December

Program highlights

Graphene and carbon nanotubes: fabrication, defects, doping, functionalization and dispersion in matrices.
Composite manufacturing: RTM, pultrusion, infusion, autoclave, prepreg and additive manufacturing.
Advanced characterization: SEM, TEM, AFM, Raman, FTIR, XPS, X-ray diffraction, TGA, DSC and CT.
Multiscale modeling from molecular dynamics to finite elements, with genetic algorithm optimization.
Industrial scale-up, inline quality control, nanosafety, regulation, life cycle assessment and IP protection.
Final Project: an innovative multiscale solution based on composites, graphene or nanotechnology.

Syllabus

Syllabus of the Master's in Graphene, Composites and Nanomaterials

11 modules. Select a module to see its content.

Module 1

Design, characterization and innovative applications of next-generation composites and nanomaterials

1.1. Fundamentals of composite design: matrix, reinforcement and critical interfaces
1.2. Advanced manufacturing processes: resin transfer molding (RTM), pultrusion and automated lay-up
1.3. Microstructural characterization with scanning (SEM) and transmission (TEM) electron microscopy
1.4. Mechanical and thermal properties: anisotropy, fatigue resistance and viscoelastic behavior
1.5. Surface engineering and chemical functionalization of nanomaterials to optimize adhesion and compatibility
1.6. Graphene and its derivatives in composites: improved electrical and thermal conductivity and mechanical properties
1.7. Nanotechnology for heterostructure design: carbon nanotubes, nanoplatelets and quantum dots
1.8. Advanced spectroscopic characterization: Raman, FTIR and X-ray photoelectron spectroscopy (XPS)
1.9. Multiscale simulation and modeling: from molecular mechanics to continuum solid mechanics applied to composites
1.10. Integration of composites and nanomaterials in strategic sectors: aerospace, automotive, biomedical and energy

At this stage

136 hestimated workload

11 wkweeks at your pace

Module 2

Fabrication, functionalization and industrial scalability of nanomaterials for advanced technological applications

2.1. Fundamentals of nanomaterial fabrication: top-down and bottom-up methods, advantages and limitations
2.2. Chemistry of surface functionalization: covalent and non-covalent techniques to modify graphene, carbon nanotubes and composites
2.3. Advanced chemical fabrication: sol-gel, precipitation, molecular self-assembly and chemical vapor deposition (CVD) for high-purity nanomaterials
2.4. Industrial scalability: challenges and strategies for mass production of nanomaterials while preserving functional properties
2.5. Monitoring and characterization during fabrication: spectroscopy (Raman, FTIR), microscopy (TEM, SEM) and diffraction to ensure quality and reproducibility
2.6. Optimizing reaction parameters: temperature, pH, reaction times, reducing agents and surfactants to obtain uniform nanoparticles and nanosheets
2.7. Process engineering for composite integration: compatibilizing nanomaterials with polymer, ceramic and metal matrices
2.8. Automation and inline quality control: monitoring and feedback systems for continuous processes in pilot and industrial plants
2.9. Regulatory aspects: safety, environmental impact and handling of nanomaterials in a global industrial context
2.10. Case studies: development and industrial production of functionalized graphene for flexible electronics and energy storage

At this stage

136 hestimated workload

11 wkweeks at your pace

Module 3

Innovation in design, characterization and processes for high-performance composites and nanomaterials

3.1. Advanced fundamentals of composite design: matrix and reinforcement selection, micromechanical and macromechanical modeling, failure criteria and structural optimization
3.2. Physical and chemical characterization: Raman and FTIR spectroscopy of nanomaterials, thermogravimetric analysis (TGA) and differential scanning calorimetry (DSC) for advanced composites
3.3. High-precision manufacturing: autoclave, resin infusion, transfer molding and emerging additive manufacturing techniques for composites and graphene
3.4. Mechanical properties of nanocomposites: residual stresses, fatigue behavior, crack propagation and fracture testing with electron microscopy
3.5. Integrating nanotechnology into composites: surface functionalization of nanotubes and graphene to improve the interphase and electrical conductivity
3.6. Non-destructive quality control: ultrasound, computed tomography and infrared thermography for inline and post-process inspection
3.7. Computational modeling and simulation: finite elements applied to composite nanostructures, multiscale analysis and optimization with genetic algorithms
3.8. Innovations in smart design: materials that respond to physical stimuli (temperature, pressure, magnetic field) and their use in sensors and actuators
3.9. Industrial scale-up and production challenges: handling heterogeneity, process control in pilot plants and qualification for aerospace and automotive uses
3.10. Sustainable development and circularity: recycling and reuse of composites and nanomaterials, life cycle assessment and international regulations

At this stage

136 hestimated workload

11 wkweeks at your pace

Module 4

Multiscale engineering and transfer to production of high-performance composites, graphene and nanomaterials

4.1. Fundamentals of multiscale engineering for composites, graphene and nanomaterials: physical, mechanical and chemical principles from the nanoscale to the macroscale
4.2. Structural and functional characterization across scales: electron microscopy, Raman spectroscopy, X-ray diffraction and computed tomography for complex materials
4.3. Multiscale computational modeling: reduced-order methods, molecular dynamics, finite elements and coupling to predict mechanical, thermal and electrical properties
4.4. Optimization and design of composite and graphene nanocomposite systems: matrix, reinforcement and surface treatment for industrial performance
4.5. Advanced manufacturing and production scale-up: additive manufacturing, infusion, lamination and sintering for composites and nanomaterials
4.6. Quality control and assurance in production: non-destructive techniques, statistical process control and compliance with international standards
4.7. Technology transfer and applied innovation: integrating advanced materials into industrial value chains while meeting regulatory and sustainability requirements
4.8. Management of multidisciplinary projects and teams in high-tech industries: leadership, risk analysis and agile development
4.9. Environmental assessment and life cycle assessment (LCA) of graphene and nanomaterial products and processes: impact, recyclability and current regulations
4.10. Real case studies and practical simulations: continuous improvement of high-performance prototypes and products for aerospace, automotive, energy and advanced electronics

At this stage

136 hestimated workload

11 wkweeks at your pace

Module 5

Applied nanotechnology and optimization strategies for next-generation advanced materials

5.1. Fundamentals of nanotechnology: the nanometer scale, unique physical and chemical properties and their impact on materials engineering
5.2. Fabrication and characterization of nanomaterials: top-down and bottom-up methods, CVD, lithography and molecular self-assembly
5.3. Nano-macro interaction: transferring properties from the nanoscale to composites and macroscopic structures
5.4. Integration of graphene and carbon nanotubes into polymer, metal and ceramic matrices to improve mechanical strength and electrical and thermal conductivity
5.5. Mechanical and functional properties of nanocomposites: stress analysis, stiffness tuning and resilience in critical environments
5.6. Advanced physical and chemical characterization: transmission electron microscopy (TEM), Raman spectroscopy, X-ray scattering and atomic force microscopy (AFM)
5.7. Optimization strategies in manufacturing: control of nanoscale morphology, nanotube alignment and homogeneous dispersion
5.8. Nanotechnology for specific applications: flexible electronics, energy storage, biomaterials and smart sensors
5.9. Atomic and molecular modeling and simulation for predictive design of material properties and performance
5.10. Scalability and industrial manufacturing: challenges in mass production, costs and quality control in applied nanotechnology

At this stage

136 hestimated workload

11 wkweeks at your pace

Module 6

Innovative strategies in the design, fabrication and applications of high-tech nanomaterials and composites

6.1. Advanced fundamentals of nanomaterials: atomic structure, quantum properties and emergent phenomena
6.2. Molecular and nanotechnological design: strategies to control self-assembly and surface functionalization
6.3. Advanced fabrication techniques: chemical deposition, epitaxy, nanoscale lithography and bottom-up versus top-down methods
6.4. Multiscale characterization: transmission electron microscopy (TEM), Raman spectroscopy, X-ray diffraction and X-ray photoelectron spectroscopy (XPS)
6.5. Engineering and optimization of composites: integrating polymer, ceramic and metal matrices with nanostructured reinforcements
6.6. Interface and compatibilization: surface treatments to improve adhesion and mechanical properties in multilayer composites
6.7. Nanotechnology applied to graphene: sheet preparation, doping and defect engineering for tailor-made properties
6.8. High-tech applications: flexible electronics, energy storage, ultrasensitive sensors and advanced structural materials
6.9. Assessment of mechanical, thermal and electrical properties of nanomaterials and composites with in situ techniques and computer simulation
6.10. Future outlook: artificial intelligence in materials design, nanoscale 3D printing and challenges of industrial scalability

At this stage

136 hestimated workload

11 wkweeks at your pace

Module 7

Innovation, fabrication and technology transfer in high-performance composites, nanomaterials and graphene

7.1. Advanced fundamentals of composites: structure, mechanical and thermal properties, anisotropy and multiphase behavior
7.2. Fabrication and characterization of nanomaterials: production techniques (CVD, PVD, sol-gel) and analysis with TEM, SEM, AFM and Raman spectroscopy
7.3. Electronic and mechanical properties of graphene: from atomic structure to flexible electronic devices and high-sensitivity sensors
7.4. Innovative methods to manufacture composites reinforced with graphene and carbon nanotubes: impregnation, autoclave, injection molding and additive technologies
7.5. Computational modeling to predict the behavior of advanced materials: multiscale simulation, molecular dynamics and finite elements for structural optimization
7.6. Industrial scale-up and quality control for mass production: non-destructive inspection, inline characterization and reproducibility
7.7. Technology transfer: strategies to integrate advanced materials effectively into the aerospace, automotive and energy industries
7.8. Regulations applicable to next-generation nanomaterials and composites: safety, toxicology and international certification
7.9. Disruptive case studies: real applications of advanced materials in technological innovation, including improved mechanical properties and surface functionalization
7.10. Management and intellectual property tools to protect scientific developments in composites and nanomaterials

At this stage

136 hestimated workload

11 wkweeks at your pace

Module 8

Fundamentals and emerging technologies for engineering and optimizing high-efficiency composites, nanomaterials and graphene

8.1. Fundamentals of advanced materials: atomic structure, chemical bonds and basic mechanical properties of composites, graphene and nanomaterials
8.2. Principles of fabrication and processing: advanced techniques for composites and nanostructured materials, including chemical deposition, self-assembly and mechanical exfoliation of graphene
8.3. Advanced materials characterization: spectroscopy (Raman, FTIR), electron microscopy (SEM, TEM) and X-ray diffraction applied to nanocomposites and graphene
8.4. Multiscale modeling and computer simulation: numerical methods to predict mechanical, thermal and electrical behavior from the atomic to the macroscopic level
8.5. Emerging functional properties: electrical, thermal, piezoelectric and photonic conductivity of graphene-based and nanotechnology materials
8.6. Optimizing interfaces in composites and nanocomposites: improving adhesion, load transfer and thermal stability between matrix and nanotube or graphene reinforcements
8.7. Integrating nanotechnology into composites: hybrid structures for aerospace, automotive and biomedical applications
8.8. Performance under extreme conditions: fatigue resistance, thermal degradation and mechanical behavior in aggressive environments
8.9. Innovation in recycling and sustainability: strategies to minimize environmental impact and maximize reuse of composites and nanomaterials
8.10. Case studies and future trends: practical applications in today's industry and technological outlook for the next decade

At this stage

136 hestimated workload

11 wkweeks at your pace

Module 9

Design, characterization and innovative applications of state-of-the-art composites and nanomaterials

9.1. Fundamentals of composite design: matrix and reinforcement selection, interface mechanics and structural compatibility criteria
9.2. Advanced manufacturing processes: autoclave, resin transfer molding (RTM), pultrusion and additive manufacturing for composites and nanomaterials
9.3. Structural and mechanical characterization: non-destructive methods (ultrasound, X-ray, computed tomography), fracture analysis and viscoelastic behavior
9.4. Functional and multifunctional properties: thermal and electrical conductivity and piezoelectric and magnetostructural properties of nanostructured materials
9.5. Nanotechnology applied to composites: incorporation and dispersion of nanoparticles, carbon nanotubes and graphene to improve performance and durability
9.6. Computational modeling and simulation: FEM, molecular dynamics and multiscale methods to predict mechanical and thermal behavior
9.7. Advanced chemical characterization: Raman spectroscopy, X-ray photoelectron spectroscopy (XPS) and transmission electron microscopy (TEM)
9.8. Innovative applications in aerospace, automotive, biomedical and flexible electronics: case studies and emerging trends
9.9. International standards: certification, quality testing and life cycle assessment of composites and nanomaterials
9.10. Future outlook and challenges in integrating advanced materials into disruptive technologies: sustainability, recyclability and circular economy

At this stage

136 hestimated workload

11 wkweeks at your pace

Module 10

Testing, durability and marine applications of advanced materials

10.1. Mechanical testing of composites: tensile, flexural and impact
10.2. Non-destructive testing of composites
10.3. Aging, water absorption and degradation in the marine environment
10.4. Fatigue and accumulated damage in composite structures
10.5. Fire behavior and the IMO FTP Code
10.6. Adhesive and mechanical joints in composites
10.7. Repair of composite structures
10.8. Applications in hulls, superstructures and propellers
10.9. Safe handling of nanomaterials
10.10. Material approval by classification societies

At this stage

136 hestimated workload

11 wkweeks at your pace

Module 11

Final Project

11.1. Advanced fundamentals of composites: structure, types, matrix and reinforcements in industrial and aerospace applications
11.2. Nanostructural characterization of graphene: fabrication methods, defects, functionalization and electronic and mechanical properties
11.3. Nanotechnology applied to advanced materials: carbon nanotubes, functionalized nanoparticles and self-assembly techniques
11.4. Multiscale modeling of composites and nanomaterials: integrating molecular simulation, finite elements and hybrid systems
11.5. Advanced manufacturing methods: pultrusion, resin infusion, chemical deposition and 3D printing with nanocomposites
11.6. Mechanical and thermal properties: toughness, fatigue, glass transition and thermal conductivity in hybrid graphene-composite systems
11.7. Interfacial interaction in nanocomposites: adhesion, load transfer and reinforcement mechanisms at the nanoscale
11.8. Assessment and characterization with spectroscopic and microscopic techniques: Raman, TEM, SEM, AFM and X-ray diffraction
11.9. Degradation, aging and durability of composites and nanostructured materials under extreme environmental and operating conditions
11.10. Design and optimization of innovative solutions for the automotive, aerospace, biomedical and energy sectors through multiscale functional integration

At this stage

136 hestimated workload

11 wkweeks at your pace

Plan your pace

Duration and format of the Master's in Graphene, Composites and Nanomaterials

It is 1,500 hours. Tell us how many you can study each week and we will tell you when you will really finish.

Hours per week

4 h30 h

With 12 h per week

months to finish

125 weeks

weeks in total

This is the pace at which most students finish. It fits well with the installment plan.

Faculty

Academic leadership and faculty

The Navalis teaching team: working professionals who teach and supervise the programs.

Dr. Marina AlcoverAcademic Director and Head of Quality Assurance

Eng. Diego CifuentesSenior Lecturer in Naval Welding and Non-Destructive Testing; Head of QA/QC for Welded Joints

Capt. Javier Abaroa (MCA)Senior Lecturer in Ship Handling, Electronic Navigation (ECDIS/Radar/ARPA) and GMDSS; STCW Compliance and Bridge Resource Management Coordinator

Dr. Pau FerrerSenior Lecturer in Naval Architecture and Simulation; Director of the Hydrodynamics and CFD Laboratory

Dr. Nuria LlobregatSenior Lecturer in Marine Meteorology, SAR and Operational Safety; Navigation Risk Management Coordinator

Eng. Javier BañulsSenior Lecturer in Electrical Engineering, Automation and ETO Engineering; Electronic Integration and Engine Alarms Coordinator

Eng. Sofía MarquinaSenior Lecturer in Materials, Composites and Corrosion Protection; Coordinator of the Advanced Paints and Coatings Line

Eng. Tomás RieraSenior Lecturer in Propulsion, Alternative Energy and Hybrid Systems; Energy Performance and Vibration Coordinator

Objectives

Objectives of the Master's in Graphene, Composites and Nanomaterials

01Design and optimize materials with outstanding properties, using computational design and advanced simulation to predict and improve their behavior at the micro and macro scale.

02Lead R&D and innovation projects in materials science, managing multidisciplinary teams from concept to implementation.

03Develop innovative solutions to industrial challenges by designing and prototyping optimized components with simulation and additive manufacturing.

04Apply the latest trends in manufacturing and characterization, from additive manufacturing to electron microscopy and spectroscopy, and integrate smart materials into new designs.

05Turn scientific discoveries into technological applications by developing functional prototypes and validating their commercial feasibility through iterative proofs of concept.

06Drive the transition to a circular economy by prioritizing eco-design, reuse and recycling in material selection and reducing waste.

Careers

Career opportunities after the Master's in Graphene, Composites and Nanomaterials

01R&D engineer or scientist in the design, fabrication and characterization of advanced materials

02Materials engineer selecting and optimizing composites and nanomaterials in aerospace, automotive, energy, electronics or marine industries

03Process and production engineer for composite and nanomaterial manufacturing and scale-up

04Quality control and testing specialist for advanced materials and composite structures

05Technical consultant in advanced materials, performance and durability

06Founder or product lead at a startup developing materials-based products

Frequently asked questions

Questions about the Master's in Graphene, Composites and Nanomaterials

Three main families: high-performance composites, graphene and related 2D materials and carbon nanotubes, and nanomaterials more broadly, including how they are combined into nanocomposites and hybrid structures.

No. It treats advanced materials as a cross-sector technology, with applications in aerospace, automotive, energy, electronics and biomedicine, plus a dedicated module on testing, durability and marine applications such as hulls, superstructures and propellers.

This program goes deeper into the science and industrialization of the materials themselves: fabrication, functionalization, characterization, multiscale modeling, scale-up and technology transfer. Marine use is one application among several rather than the main focus.

No. The program is delivered online and works with characterization data, case studies, simulations and design exercises. You will learn how techniques such as SEM, TEM, Raman or XPS work and how to interpret their results.

Yes. It covers nanosafety, toxicology, safe handling, environmental impact, life cycle assessment and the regulatory framework that applies to nanomaterials and composites.

A degree in science or engineering is the usual profile. Experience in research or projects involving composites, graphene or nanotechnology is valued, and the admission interview confirms the fit.

Through case studies, data interpretation, modeling exercises and short tests in each module, and a Final Project in which you design and optimize an innovative materials solution.

A Navalis Institute master's certificate and a portfolio of technical work, including your Final Project.

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Online admission

Admission process

No waiting for a call back. If your documents are in order, you can enroll in the same session.

Entry requirements

Profile: degree in physics, chemistry, materials science or engineering (chemical, materials, mechanical or nanotechnology) or a related field; solid grounding in solid-state physics, materials chemistry, thermodynamics and mechanics of materials is recommended.
Language: sufficient command of English to follow the classes and the technical documentation.
Technical resources: computer with camera and microphone, a stable internet connection and the ability to install modeling and data analysis software.
Admission: online application, review of your profile and a short interview with the academic team.

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