
Introduction to Hybrid Propulsion Course
This course offers you a comprehensive overview of this key technology for the decarbonization of transport. Learn the fundamentals of hybrid systems, their components, architectures, and control strategies. Discover the…
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What is the Introduction to Hybrid Propulsion Course?
The Introduction to Hybrid Propulsion
This course offers you a comprehensive overview of this key technology for the decarbonization of transport. Learn the fundamentals of hybrid systems, their components, architectures, and control strategies. Discover the advantages in efficiency and emissions reduction, as well as the challenges of implementing them in different vehicles and vessels. This program will provide you with the foundation to understand and work with hybrid propulsion in the future.
This course offers you a comprehensive overview of this key technology for the decarbonization of transport.
Key Benefits
- Understand the principles: operation of electric motors, batteries, and power electronics.
- Analyze the architectures: series, parallel, and mixed, and their applications according to vehicle type.
- Evaluate performance: simulation and optimization of hybrid systems to maximize efficiency.
- Know the regulations: safety and emissions standards for hybrid vehicles.
- Acquire a solid foundation: for future studies or work in the field of sustainable propulsion.
Programme highlights
- Hybrid Propulsion Fundamentals: Master the basic principles and key technologies.
- Components and Systems: Gain in-depth knowledge of batteries, electric motors, generators, and control systems.
- Advantages and Disadvantages: Evaluate the environmental impact, energy efficiency, and associated costs.
- Practical Applications: Explore case studies in automotive, aviation, and marine transport.
- Future Trends: Anticipate technological advancements and new opportunities in the sector.
- Propel your career towards innovation and sustainability in modern engineering.
Programme Structure
The programme is structured in 5 modules, listed below in order of study.
Hybrid Propulsion Fundamentals, Energy Transition and Boat Power Systems
- Hybrid propulsion concept and differences between conventional, electric propulsion, hybrid in series, hybrid in parallel and electrified auxiliary systems
- Basic principles of generation, storage, conversion and use of energy for movement and on-board services
- Main Components: Thermal Motor, Electric Motor, Batteries, Generator, Inverter, Charger, Controller and Energy Management System
- Applications on sailboats, boats, catamarans, small yachts, tourist boats, service boats and port units
- Advantages, limitations and risks of hybrid propulsion in autonomy, consumption, emissions, noise, maintenance and cost
Hybrid architectures, modes of operation and technical selection criteria
- Hybrid architecture in series: Thermal engine as generator, main electric propulsion, batteries and energy control
- Hybrid architecture in parallel: heat engine and electric motor coupled to the transmission, propeller or axle line
- Mixed architectures, plug-in systems, auxiliary generation, regeneration in sailing and electrical support for manoeuvres
- Modes of operation: Pure electric, thermal, combined, battery charging, silent navigation, port and emergency
- Selection criteria according to usage profile, power required, autonomy, space, weight, budget, maintenance and regulations
Batteries, electric motors, power electronics and energy management
- Battery types: AGM, Gel, Lithium, LFP, Service Banks, Propulsion Banks, BMS and Safety Criteria
- Electric motors, generators, controllers, inverters, DC-DC converters, chargers and cooling systems
- Basic sizing of capacity, power, consumption, autonomy, peak demand and security energy reserve
- On-board energy management: loading, distribution, monitoring, protection, alarm and saving modes
- Integration with solar panels, Shore Power, smart alternators, auxiliary generators and renewable systems
Installation, mechanical integration, electrical safety and maintenance of hybrid systems
- Integration of electric motor, transmission, propeller, axle, reducer, supports, cooling, ventilation and technical accessibility
- Power cabling, protections, disconnectors, fuses, contactors, grounding, insulation and short-circuit prevention
- Battery safety, high current, ventilation, temperature, fire, emergency disconnection and technical handling
- Installation of chargers, inverters, monitors, control panels, sensors, internal communications and diagnostic systems
- Preventive maintenance of batteries, connections, motors, cooling, software, sensors, supports and mechanical components
Applied Project of Introduction to Hybrid Propulsion
- Case definition: sailboat, boat, catamaran, small yacht, tourist boat, service boat or port unit
- Navigation profile diagnosis, power required, consumption, available space, batteries, existing engine and energy targets
- Conceptual design of hybrid architecture with heat engine, electric motor, batteries, chargers, inverters, controls and protections
- Elabouration of basic sizing with electric autonomy, energy demand, modes of operation, recharge and security reserve
- Development of the installation plan, maintenance, security, fault diagnosis, costs, indicators and sustainability
Study Time and Workload
300 hours of study, online and at your own pace. Move the slider to the hours a week you can really put in.
Mechanical and electrical engineers seeking to specialize in advanced marine propulsion systems and renewable energy.Naval architects and designers interested in integrating innovative hybrid solutions into the design of efficient and sustainable vessels.Fleet operators and managers evaluating the implementation of hybrid technologies to reduce operating costs and comply with environmental reg
Academic direction and faculty
The teaching team at Navalis: working professionals who deliver and oversee the institute's programmes.








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Learning Outcomes
- 01Understanding the theoretical and practical foundations of hybrid propulsion systems
- 02Identify and analyze the most common hybrid propulsion architectures
- 03Evaluate the performance and efficiency of different hybrid configurations
- 04Diagnosing and troubleshooting basic problems in hybrid propulsion systems
- 05Apply safety protocols when handling high-voltage components in hybrid vehicles
- 06Describe and compare the key components in a hybrid propulsion system
Career Opportunities
Entry Requirements
Admissions Process
No waiting for a phone call. If your documents are complete, you can pay in the same session.
Academic/Professional Profile:Bachelor's/Undergraduate degree in Engineering (Mechanical, Electrical, Electronic, etc.), Physics, or a related technical qualification; or demonstrable professional experience in the design, development, or maintenance of propulsion systems.Recommended Prior Knowledge:Fundamentals of thermodynamics, fluid mechanics, electricity, and electronics. Familiarity with control systems and basic programming.Documentation:Updated CV, copy of degree/certificates (if applicable), ID/Passport, brief description of relevant experience (if applicable).Te
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