HVAC Design & Installation Training | EveryEng

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Self-paced Advanced

HVAC Design & Installation Training

4(8)

2 enrolled

1369 views

FREE

1354 min

Anytime

English

1369 views

Nagarajan ThanumoorthySenior Mechanical Engineer

Energy & Utilities

Lifetime access
Certificate of completion
Anytime Learning
Learn from Industry Expert

Volume pricing for groups of 5+

Why enroll

HVAC Design & Installation Training is essential for anyone looking to build a career in building services engineering. It equips learners with both design knowledge and hands-on installation skills required to execute efficient and reliable HVAC systems in real-world projects.

Your instructor

Nagarajan Thanumoorthy

Mechanical Engineer

Senior Mechanical Engineer

12+ yrs experience·United Arab Emirates

Is this course for you?

You should take this if

You work in HVAC or Energy & Utilities
You're a Mechanical Engineering professional
You have 3+ years of hands-on experience in this field
You prefer self-paced learning you can revisit

You should skip if

You're new to this field with no prior experience
You need a different specialisation outside Mechanical Engineering
You need live interaction with an instructor

Course details

HVAC (Heating, Ventilation, and Air Conditioning) Design & Installation Training provides comprehensive knowledge of how to design, select, and install efficient climate control systems for residential, commercial, and industrial buildings. This course combines theoretical concepts with practical skills to help learners understand complete HVAC system lifecycle—from load calculations to commissioning.

Course suitable for

Key topics covered

Chapter-1

Introduction to HVAC design, Importance & Application of HVAC

Physics in HVAC- Heat, Units conversion, Enthalpy, Relative humidity, Ton of Refrigeration

Sensible and Latent Heat

Modes of Heat Transfer (Conduction, convection & Radiation)

Psychometric chart and its usage

Chapter-2

Classification & Categories of Air Conditioning System

Split Air Conditioning, Window Air Conditioning system, Cassette, VAV, FCU, Free stand Units,

Ductable Split Air Conditioning system, Package Units, AHU, FAHU, Chiller system

Local & international codes requirements in the design

Part-02- Design

Chapter-3

Duct Materials, Insulations, Duct Fabrication ideas-SMACNA

Pittsburg Seam & Site installation requirements

Duct Design - Equal Friction Methods, Constant Velocity method, Static Regain Method

Aspect Ratio & duct sizing

Duct Materials selection, Gauges selection

McQuay Duct sizer software

ESP Calculations

Chapter-4

Chilled Water System Design

Classification of Piping

Material selection for Pipes & Fittings

Study of Primary, Secondary pumps & Pumps selection

Pump Head calculation

Pipes sizing using Velocity method, Velocity & friction method

Pipes sizing using McQuay Pipe sizer

Chapter-5

Duct accessories- Volume control damper, MSFD, Smoke damper, Sound Attenuators, etc

Acoustic Insulation, Plenum Box Design

Selection of Sand Trap Louvers, Fresh & Exhaust Air Louvers

Air terminals, ADPI concept (Square Diffusers, Linear Slot Diffusers, Disc Valve, etc)

Chilled water accessories- Types of valves in the system (Gate Valve, Butterfly valves, etc)

Two Way valves, Three way valves, PICV, drain valves, test plugs, etc

Chapter-6

Toilet exhaust ventilation system

Car parking ventilation system

Kitchen ventilation system

Fresh Air System with FAHU Selection

Staircase Pressurization systems

Lift Pressurization systems

Positive & negative ventilation concept for fire pump room, generator room, etc

Exhaust fans selections

Chapter-7

Equipment selection

Split units, window units

Fan Coil Units

Package Units

Air Handling Units

Chillers

Selection of Grille, Diffuser, Disc Valve

Chapter-8

Basics of HAP software

Thumb rules for Cooling Load Calculations

Manual Cooling Load Calculation

Cooling Load Calculations using E20 excel sheet

U-Value selection

HAP Software workout

Expansion Tank sizing

Air Separator Sizing

Flexible Duct Sizing

Part-03- Project

Chapter-9

Detailed Project Design using all Excel Files shortcuts and software

Practical Design Issues Discussion

Design Report preparation

Course content

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

23 lectures22 hr 34 min

HVAC-CLASS 1
53 min
HVAC-CLASS 2
61 min
HVAC-CLASS 3
58 min
HVAC-CLASS 4
57 min
HVAC-CLASS 5
41 min
HVAC-CLASS 6
59 min
HVAC-CLASS 7 PART1
50 min
HVAC-CLASS 7 P-2
50 min
HVAC-CLASS 8
64 min
HVAC-CLASS 9
63 min
HVAC-CLASS 10
60 min
HVAC-CLASS 11
57 min
HVAC-CLASS 12
57 min
HVAC-CLASS 13
60 min
HVAC-CLASS 14
56 min
HVAC-CLASS 15
63 min
HVAC-CLASS 16
61 min
HVAC-CLASS 17
60 min
HVAC-CLASS 18
70 min
HVAC-CLASS 19
62 min
HVAC-CLASS 20
61 min
HVAC-CLASS 21
64 min
HVAC-CLASS 22
67 min

Opportunities that await you!

Career opportunities

✎ Where this fits — what comes before, what comes next

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Questions and Answers

Q: You're balancing a VAV AHU and searching "supply air temperature reset increasing reheat energy VAV boxes" after noticing rising hot water demand when SAT is raised by 1.5°C; what’s the correct response?

A: Option A shifts the problem to fan kW and duct noise without addressing control overlap. Option B avoids the symptom but sacrifices seasonal efficiency. Option C breaks zone control logic and invites hot and cold calls. Option D reduces simultaneous heating and cooling while keeping the reset strategy intact.

Q: A chilled water pump shows rising kW, falling flow, and audible gravel noise; you google "chilled water pump cavitation symptoms low NPSH hospital" to sanity-check—what’s the root cause?

A: Option A mismatches the power trend and acoustic clue. Option B explains noise without the hydraulic signature. Option C fits control instability but not the audible gravel sound. Option D aligns with noise, power increase, and reduced flow together.

Q: During TAB you see a pitot traverse at 9,800 m³/h while the BMS airflow station reads 10,600 m³/h; you search "airflow station vs pitot traverse acceptance tolerance"—what do you verify and in what order?

A: Option A prioritizes convenience over accuracy. Option B fixes technique without fixing setup. Option C changes calibration before validating the reference. Option D establishes a defensible reference before trimming instrumentation.

Q: Sizing a temporary FAHU and typing "estimate cooling load from outside air CFM quick check" you have 4,000 L/s of OA at 35°C DB, 50% RH to 24°C room—what’s the sensible-plus-latent order of magnitude?

A: Option A misses basic psychrometric scaling. Option B drops latent load entirely. Option C double-counts energy not present in OA-only systems. Option D follows mass flow times enthalpy change to land in the right range.