
Building Services Engineering Course
Master every major building services discipline — from heating and ventilation to electrical distribution and low-carbon systems. This course gives engineers and construction professionals the technical depth to design, commission, and maintain MEP systems across residential and commercial buildings. Build the skills that employers and clients demand on every project.
What you will learn:
You will develop hands-on competency across all core building services disciplines, including heating system design, ventilation and indoor air quality, air conditioning, plumbing, and electrical distribution. You will learn how to calculate heat loss, size equipment, and select energy-efficient technologies that meet current building regulations. The course also covers renewable energy integration, building energy modelling, and whole-building carbon assessment. You will study commissioning procedures, planned maintenance strategies, and BMS controls to ensure systems perform as designed. By the end, you will be equipped to contribute confidently to MEP design teams and deliver compliant, high-performance buildings.
How you study in practice Building Services Engineering Course
How you practise Building Services Engineering Course
For companies looking to train their teams
With Elevify for businesses, the course includes exercises and examples tailored to your company and its specific needs.
Course content
8 Chapters • 39 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Building Services Engineering
Foundations of Building Services Engineering
Lesson 1 • Regulatory and Standards Framework
Introduces the regulatory environment governing building services design and installation. Students apply compliance thinking to system selection and documentation.
Lesson 2 • Scope and Role of Building Services
Defines building services engineering and its position within the construction industry. Connects the discipline to occupant comfort, safety, and energy performance.
Lesson 3 • Building Physics Fundamentals
Covers heat transfer, air movement, and moisture behaviour as they apply to buildings. Provides the physical basis for designing all major services systems.
Lesson 4 • System Integration and Coordination
Explains how mechanical, electrical, and plumbing systems share space and interact. Establishes coordination principles used throughout the course.
Chapter 2HideHide detailsSee detailsHeating Systems Design and Selection
Heating Systems Design and Selection
Lesson 1 • Heating System Controls
Introduces thermostatic, time-based, and weather-compensated control strategies. Proper controls reduce energy waste and are required by energy performance standards.
Lesson 2 • Heat Distribution Systems
Covers wet pipework, underfloor heating, and warm-air distribution design. Connects distribution choice to building type, control strategy, and energy efficiency.
Lesson 3 • Heat Loss Calculation Methods
Teaches systematic calculation of fabric and ventilation heat losses for any building type. Results directly inform boiler and emitter sizing in later sections.
Lesson 4 • Boilers and Heat Generators
Compares gas, oil, heat pump, and biomass heat generators by efficiency and application. Students match generator type to building load and fuel availability.
Lesson 5 • Emitters and Terminal Units
Examines radiators, fan coil units, and radiant panels as heat delivery devices. Students select and size emitters to match room loads and system temperatures.
Chapter 3HideHide detailsSee detailsVentilation and Indoor Air Quality
Ventilation and Indoor Air Quality
Lesson 1 • Mechanical Ventilation Systems
Covers supply-only, extract-only, and balanced mechanical ventilation configurations. Students size fans, select ductwork, and calculate system resistance.
Lesson 2 • Natural Ventilation Strategies
Explains stack effect, cross-ventilation, and wind-driven airflow for passive systems. Students assess building form and orientation to maximise natural ventilation potential.
Lesson 3 • Demand-Controlled Ventilation
Teaches sensor-driven ventilation that adjusts airflow to actual occupancy and pollutant levels. Students integrate CO2 and VOC sensors into control sequences.
Lesson 4 • Indoor Air Quality Principles
Identifies pollutants, CO2 levels, and moisture as drivers of ventilation demand. Establishes the health and regulatory basis for fresh-air provision.
Lesson 5 • Heat Recovery Ventilation
Introduces mechanical ventilation with heat recovery (MVHR) and its efficiency metrics. Connects heat recovery to energy performance targets and low-energy building design.
Chapter 4HideHide detailsSee detailsAir Conditioning and Cooling Systems
Air Conditioning and Cooling Systems
Lesson 1 • Cooling Load Analysis
Teaches solar, internal, and fabric gain calculations to determine peak cooling demand. Accurate load analysis prevents oversizing and reduces capital and operating costs.
Lesson 2 • Free Cooling and Passive Strategies
Introduces economiser cycles, night purge, and thermal mass as alternatives to mechanical cooling. Reduces energy consumption and refrigerant use in suitable climates.
Lesson 3 • Split and VRF System Design
Covers split, multi-split, and variable refrigerant flow systems for commercial applications. Students size refrigerant pipework and select indoor unit configurations.
Lesson 4 • Refrigeration Cycle Fundamentals
Explains the vapour-compression cycle, refrigerants, and coefficient of performance. Provides the thermodynamic basis for evaluating all mechanical cooling equipment.
Lesson 5 • Central Air Handling Units
Examines air handling unit components including cooling coils, humidifiers, and filters. Students design all-air systems for large commercial and institutional buildings.
Chapter 5HideHide detailsSee detailsPlumbing and Water Services Design
Plumbing and Water Services Design
Lesson 1 • Cold Water Supply Systems
Covers direct and indirect cold water supply configurations, storage, and pressure management. Students size pipework and storage vessels to meet peak demand.
Lesson 2 • Sanitary Drainage Systems
Covers above-ground drainage design including trap seals, branch gradients, and stack sizing. Students apply self-cleansing velocity principles to prevent blockages.
Lesson 3 • Hot Water Generation and Storage
Examines direct and indirect cylinders, combination boilers, and instantaneous heaters. Students select and size hot water systems based on occupancy and demand profiles.
Lesson 4 • Water Quality and Treatment
Addresses scale, corrosion, and microbial risks in building water systems. Students specify treatment devices and maintenance regimes to protect system integrity.
Lesson 5 • Pipe Sizing and Flow Calculations
Teaches simultaneous demand estimation and pipe sizing using loading unit methods. Accurate sizing prevents pressure loss and ensures adequate flow at all outlets.
Chapter 6HideHide detailsSee detailsElectrical Services and Lighting Design
Electrical Services and Lighting Design
Lesson 1 • Energy-Efficient Lighting Systems
Examines LED technology, daylight linking, and occupancy-based controls to minimise lighting energy. Students calculate lighting energy density and compare system options.
Lesson 2 • Earthing and Bonding Systems
Covers earthing arrangements, protective bonding, and fault loop impedance testing. Students design earthing systems that protect occupants from electric shock.
Lesson 3 • Cable Sizing and Circuit Protection
Teaches current-carrying capacity, voltage drop, and protective device coordination. Correct sizing ensures safety and compliance with wiring regulations.
Lesson 4 • Electrical Supply and Distribution
Explains utility supply intake, switchgear, and distribution board layout for buildings. Students trace power from the supply point to final circuits.
Lesson 5 • Lighting Design Principles
Introduces illuminance levels, uniformity, glare control, and colour rendering for different spaces. Students apply lumen method calculations to produce compliant lighting layouts.
Chapter 7HideHide detailsSee detailsEnergy Performance and Low-Carbon Systems
Energy Performance and Low-Carbon Systems
Lesson 1 • Whole-Building Carbon Assessment
Teaches operational and embodied carbon calculation methods for building services systems. Students identify high-impact components and propose reduction measures.
Lesson 2 • Energy Auditing and Retrofit Strategy
Covers site measurement, benchmarking, and prioritisation of retrofit interventions. Students produce an energy audit report with costed improvement recommendations.
Lesson 3 • Energy Storage and Grid Interaction
Introduces battery storage, thermal storage, and demand-side response for buildings. Students evaluate storage sizing and grid export strategies.
Lesson 4 • Building Energy Modeling
Covers dynamic simulation principles, input data requirements, and output interpretation. Students use energy models to compare design options and predict annual consumption.
Lesson 5 • Renewable Energy Technologies
Examines solar photovoltaic, solar thermal, wind, and ground-source systems for buildings. Students size renewable systems to offset building energy demand.
Chapter 8HideHide detailsSee detailsCommissioning, Operation, and Maintenance
Commissioning, Operation, and Maintenance
Lesson 1 • Commissioning Principles and Process
Defines commissioning stages from pre-commissioning checks to functional performance testing. Establishes why commissioning is critical to achieving design intent.
Lesson 2 • Air and Water Balancing
Teaches measurement and adjustment of airflow and water flow to design values. Correct balancing ensures comfort, energy efficiency, and system longevity.
Lesson 3 • Handover Documentation and Training
Examines operation and maintenance manuals, as-built drawings, and occupant training. Complete handover documentation protects building owners and supports future maintenance.
Lesson 4 • Controls Commissioning and BMS
Covers building management system setup, control loop tuning, and alarm configuration. Students verify that control sequences match the design specification.
Lesson 5 • Planned Preventive Maintenance
Develops maintenance schedules, inspection checklists, and spare-parts strategies for services systems. Preventive maintenance reduces breakdowns and extends equipment life.

Your valid completion certificate
This course is for you:
Mechanical engineer: seeking formal grounding in full MEP system design.
Construction project manager: wanting to communicate better with engineering consultants.
Architecture graduate: ready to understand the systems hidden inside building envelopes.
Facilities manager: aiming to make smarter decisions about building system upgrades.
Career changer: transitioning from trades into professional building services engineering.
Sustainability consultant: needing deeper technical knowledge of low-carbon building systems.
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