Energy Systems Engineering
Build practical capability across thermodynamics, heat transfer, fluid systems, renewable generation, energy storage, power systems, efficiency, grid integration and low-carbon technologies.
Connect physical performance with system integration and engineering economics.
Strong energy decisions require more than familiarity with individual technologies. Engineers need to understand the physics, equipment behaviour, network constraints, lifecycle performance and economic trade-offs that shape real projects.
Energy fundamentals
Understand thermodynamic behaviour, heat transfer, fluid flow and the physical principles behind energy equipment.
Technology performance
Evaluate renewable generation, storage, heat pumps, hydrogen and thermal-fluid equipment with stronger technical judgement.
System integration
Connect generation and demand with electrical networks, grid constraints, controls, storage and efficiency opportunities.
Project evaluation
Use modelling, lifecycle economics, scenario analysis and decarbonisation trade-offs to support more defensible decisions.
Build around fundamentals, renewable systems, storage and decision modelling.
These courses provide strong entry points for professionals who want a broad but technically coherent energy-systems development route.
Applied Thermodynamics for Energy Engineers
Build practical judgement around energy balances, thermodynamic cycles, efficiency, losses and real energy-conversion systems.
View courseSolar PV System Design & Performance Engineering
Develop capability in PV sizing, architecture, shading, energy yield, losses, inverter selection and performance assessment.
View courseBattery Energy Storage Systems (BESS) Engineering
Understand battery technologies, sizing, duty cycles, degradation, thermal behaviour, controls, safety and system integration.
View courseEnergy Systems Modelling & Techno-Economic Analysis
Connect technical performance with lifecycle cost, investment metrics, sensitivity analysis and scenario-based project evaluation.
View courseProgress from energy fundamentals to integrated low-carbon systems.
Use the stages as a practical progression rather than a compulsory order. Every linked course is active on IPEA and can be taken independently according to your role and existing technical knowledge.
Understand the physics and equipment behind energy systems.
Build the thermodynamics, heat-transfer and fluid-system knowledge needed to evaluate energy conversion, thermal equipment and system performance with greater confidence.
Introduction to Solar PV & Battery
Build a practical introduction to PV systems, installation, battery storage, operation and maintenance.
View courseApplied Thermodynamics for Energy Engineers
Analyse energy balances, cycles, property relationships, efficiency and real conversion losses.
View courseHeat Transfer for Energy Systems
Understand conduction, convection, radiation, thermal resistance and practical thermal calculations.
View courseFluid Systems: Pumps, Piping & Pressure Losses
Analyse flow, pressure losses, pumps, valves, system curves and hydraulic performance.
View courseHeat Exchanger Design & Thermal Analysis
Develop practical capability in heat duty, LMTD, effectiveness, pressure drop, fouling and thermal design.
View courseUnderstand how low-carbon technologies perform in real systems.
Develop deeper technical understanding of renewable generation, storage, electrified heating and hydrogen technologies before moving into network-level integration.
Solar PV System Design & Performance Engineering
Size and assess PV systems using credible assumptions around layout, losses, yield and inverter performance.
View courseBattery Energy Storage Systems (BESS) Engineering
Understand storage technologies, sizing, thermal behaviour, degradation, controls, safety and integration.
View courseHeat Pump Systems Engineering
Connect refrigeration-cycle fundamentals with COP, sizing, operating conditions, controls and system integration.
View courseWind Energy Engineering Fundamentals
Understand wind resource, turbine aerodynamics, power production, loading, drivetrain behaviour and siting.
View courseHydrogen Systems Engineering
Understand hydrogen production, storage, transport, compression, safety, materials and system efficiency.
View courseConnect equipment performance with networks and operational energy use.
Move beyond individual technologies into electrical networks, renewable integration and the industrial opportunities that can improve real energy performance.
Industrial Energy Efficiency & Waste Heat Recovery
Identify industrial energy losses, quantify recovery opportunities and prioritise technically credible improvements.
View coursePower Systems Fundamentals for Energy Engineers
Build practical understanding of generation, transmission, distribution, three-phase systems, transformers and protection.
View courseRenewable Energy Grid Integration
Understand variability, inverter-based generation, stability, storage, curtailment and grid constraints.
View courseEvaluate whole-system performance, economics and transition options.
Use technical modelling and lifecycle thinking to compare energy-system options, quantify economic performance and understand decarbonisation technologies in a broader project context.
Energy Systems Modelling & Techno-Economic Analysis
Model performance over time and connect engineering assumptions with lifecycle economics, NPV, sensitivity and scenarios.
View courseCarbon Capture, Utilisation & Storage Engineering
Understand capture, compression, transport, storage, utilisation, energy penalties and system trade-offs.
View courseCourse Certification
Understand how successfully completed IPEA learning can be recorded and, where certification is included, evidenced with a certificate.
Explore certificationBuild stronger energy decisions from physics through project economics.
The pathway is designed to connect component-level engineering with whole-system performance so technical decisions are easier to evaluate, explain and defend.
Understand performance
Use thermodynamics, heat transfer and fluid mechanics to interpret how real energy equipment behaves.
Evaluate technologies
Compare renewable generation, storage, heating and hydrogen technologies with stronger technical judgement.
Integrate systems
Understand the interaction between equipment, electrical networks, grid constraints, efficiency and operational demand.
Support investment decisions
Connect technical assumptions with lifecycle economics, scenarios, uncertainty and decarbonisation trade-offs.
Develop capability across the energy-system lifecycle.
Use the pathway for individual development or as a structured framework for teams involved in energy design, operations, efficiency, renewables, infrastructure and transition projects.
Build a broader energy engineering toolkit.
Relevant to engineers and technical professionals who need to connect thermal, electrical, renewable and economic aspects of energy systems.
- Mechanical, energy and process engineers
- Renewable-energy and storage professionals
- Electrical and multidisciplinary project engineers
- Facilities, utilities and industrial-energy engineers
- Consultants and technical project developers
- Graduate engineers entering energy-system roles
Create a common energy-systems capability framework.
Use the pathway to develop more consistent technical understanding across engineering, operations, project-development and energy-management functions.
- Strengthen core energy-engineering fundamentals
- Develop renewable and storage knowledge
- Improve industrial energy-efficiency capability
- Support grid and power-system awareness
- Build stronger technical-economic project evaluation
- Create role-specific learning sequences
Build your energy pathway course by course.
Each course can be taken independently. Professionals planning several IPEA courses can also review Professional Membership and its current discount on eligible paid courses.
Explore IPEA membershipIPEA Professional Membership currently includes a 20% discount on eligible paid courses purchased through the active member account.
View membershipChoose the right entry point for your experience.
The pathway is a learning and navigation framework. Review each individual course description and learning outcomes before enrolling.
Where should I start if I am new to energy systems?
Introduction to Solar PV & Battery provides an accessible technology introduction. Applied Thermodynamics for Energy Engineers, Heat Transfer for Energy Systems and Fluid Systems: Pumps, Piping & Pressure Losses provide a stronger engineering foundation for professionals who want broader technical depth.
Which courses are most relevant to renewable-energy projects?
Solar PV System Design & Performance Engineering, Battery Energy Storage Systems Engineering, Wind Energy Engineering Fundamentals, Renewable Energy Grid Integration and Energy Systems Modelling & Techno-Economic Analysis form a strong renewable-project sequence.
Which courses are most relevant to industrial energy efficiency?
Applied Thermodynamics, Heat Transfer, Fluid Systems, Heat Exchanger Design, Industrial Energy Efficiency & Waste Heat Recovery and Energy Systems Modelling provide a strong route for industrial and process-energy roles.
Does this pathway award a separate pathway-level qualification?
This page does not represent a separate pathway-level qualification. Where certification is included, successfully completed courses can provide a certificate of completion. Any future pathway-level credential should have separately published completion, assessment and eligibility requirements.
Can organisations use this pathway for team development?
Yes. Organisations can select courses by role across engineering, operations, renewables, energy management, utilities, project development and technical investment functions.
Build the technical depth to evaluate energy systems as connected systems.
Start with fundamentals, move into renewable and storage technologies, or progress directly into grid integration, modelling and decarbonisation if you already have the required background.