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Self-paced Intermediate

HVAC Equipment Sizing & Selection

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1 enrolled
1646 views
Trainers Rating
4(1)
Course type
Watch to learn anytime
Duration
528 min
Start
Anytime
Language
English
Views
1646
  • 7-day money-back guarantee
  • Lifetime access
  • Interactive Video Lessons
  • Learn from Industry Expert
$ 100
Sajjad Ansari
Sajjad Ansari

Why enroll

  • High Industry Demand – HVAC equipment sizing and selection is a critical skill for engineers working in building services, construction, and consulting firms.

  • Career Growth Opportunities – Professionals with expertise in equipment selection (chillers, AHUs, FCUs, pumps, ducts, diffusers, etc.) are highly valued in the Gulf, Europe, and Asia.

  • Bridging the Skill Gap – Many engineers understand theory but lack practical knowledge of how to select equipment based on project requirements. This course provides that hands-on expertise.

  • Practical, Real-World Applications – Learn using real project examples, industry standards, and software-based calculations that are directly applicable in the field.

  • Interview & Job Readiness – Knowledge of equipment sizing and selection is one of the most frequently asked areas in MEP design and HVAC interviews.

  • Professional Recognition – A certification in HVAC equipment sizing strengthens your resume, making you stand out from others with only basic HVAC knowledge.

  • Global Relevance – The skills taught in this course are applicable to residential, commercial, and industrial projects worldwide.

  • Career Transition Support – Helps engineers move from site execution roles into design, consultancy, and project engineering positions.

Course details

The HVAC Equipment Sizing & Selection course is designed to provide engineers and HVAC professionals with the essential knowledge and practical skills required to correctly size and select heating, ventilation, and air conditioning equipment for residential, commercial, and industrial buildings.

The course explains the importance of accurate equipment sizing based on building cooling and heating load calculations, ensuring optimal system performance, energy efficiency, and occupant comfort. Participants will learn how to interpret load calculation results generated using industry tools such as Carrier HAP and apply design principles recommended by ASHRAE for selecting appropriate HVAC components.

The training covers the selection and capacity calculation of major HVAC equipment including chillers, air handling units (AHU), fan coil units (FCU), pumps, cooling towers, and ventilation fans. It also explains how to evaluate manufacturer performance data, equipment curves, and system design parameters such as airflow rates, static pressure, and chilled water flow requirements.

Course suitable for

Is this course for you?

Perfect for

  • You work in HVAC
  • You're a Mechanical Engineering professional
  • You have some foundational knowledge in the subject
  • You prefer self-paced learning you can revisit

Before you enrol

  • Intermediate level — assumes the fundamentals of Mechanical Engineering
  • Self-paced video, 528 min — watch anytime
New to Mechanical Engineering? Browse beginner courses →

Course curriculum

The course is readily available, allowing learners to start and complete it at their own pace.

12 modules25 lectures8 hr 48 min
  1. 1.1 Introduction to Air Handling Unit
    15 min
  2. 1.2 Components of Air Handling Unit
    15 min
  3. 1.3 AHU Sizing & Selection
    26 min
  1. 2.1 Introduction to FCU & it's Components
    17 min
  2. 2.2 FCU Sizing & Selection
    9 min
  1. 3.1 Introduction to Chillers & it's Components
    15 min
  2. 3.2 Chiller Sizing & Selection
    18 min
  3. 3.3 Chiller Sizing & Selection Example
    7 min

Key topics covered

Module 01: Air Handling Unit Sizing & Selection

  • Introduction to Air Handling Unit

  • Components of Air Handling Unit

  • Air Handling Unit Sizing & Selection

Module 02: Fan Coil Unit Sizing & Selection

  • Introduction to FCU & it's Components

  • Fan Coil Unit Sizing & Selection

Module 03: Chillers Sizing & Selection

  • Introduction to Chillers & it's Components

  • Chiller Sizing & Selection

  • Chiller Sizing & Selection Example

Module 04: Chilled Water Pump Selection

  • Primary Pump Head Calculation

  • Secondary Pump Head Calculation

  • Condenser Water Pump Head Calculation

Module 05: Cooling Tower Sizing & Selection

  • Introduction to Cooling Tower & it's types

  • Cooling Tower Sizing & Selection

Module 06: Treated fresh air handling Unit Sizing & Selection

  • Introduction to TFA Unit & it's Components

  • TFA Unit Sizing & Selection

Module 07: Fresh Air Handling Unit Sizing & Selection

  • FAHU Sizing & Selection

Module 08: Cooling Coil Selection

  • Coil Selection Part 01 & Part 02

  • Coil Selection Calculation

Module 09: Smoke Extraction Fans Selection

  • Smoke Management System

  • Smoke Extraction Calculation

Module 10: Variable Refrigerant Flow Systems Design

  • Variable Refrigerant Flow Systems Design

  • VRV System Refrigerant Pipe Sizing

Module 11: Humidifier Sizing & Selection

  • Humidifier Selection

Module 12: Dehumidifier Sizing & Selection

  • Dehumidifier Selection

Opportunities that await you!

Career opportunities

Frequently asked questions

A: The right call explains why supply temperature looks fine while return collapses under full-flow conditions. B would raise approach and hurt supply control, not flatten ΔT system-wide. C would starve coils and push supply temperature up, which you don't see. D creates unstable LWT control and alarms, not a smooth ΔT decay.

A: The safeguard's job is to limit lift, so losing it lets head pressure and motor amps climb until insulation cooks. B is a restart sequencing issue, not a condenser-side protection gap. C ties to low load and velocity, the opposite of high head. D needs low LWT, which high head doesn't create.

A: You back-calculate from the 25°C baseline, accepting a 10% hit by 35°C. B ignores the reference point behind the curve. C double-counts derate beyond the curve's stated slope. D confuses condenser fan behavior with thermodynamic lift.

A: The correct diagnosis links pressure swings and actuator chatter under partial plant conditions. B would limit capacity steadily, not oscillate. C moves setpoints but doesn't hammer ΔP. D creates a fixed loss, not dynamic hunting.

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What learners say about this course

Industry-aligned courses, expert training, hands-on learning, recognized certifications, and job opportunities-all in a flexible and supportive environment.

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