<link href="https://fonts.googleapis.com/css2?family=Caveat:wght@500;700&family=JetBrains+Mono:wght@400;500;600&display=swap" rel="stylesheet" /> Skip to main contentEngineering Courses, Mentoring & Jobs | EveryEng
Certified HVAC Design Engineer - ASHRAE Framework banner
Preview this course

Certified HVAC Design Engineer - ASHRAE Framework

Certified HVAC Design Engineer - ASHRAE Framework banner
Preview this course
Self-paced Advanced

Certified HVAC Design Engineer - ASHRAE Framework

4(160)
21 enrolled
9236 views
₹ 45000
2834 min
Anytime
English
9236 views
Md Firan Mondal
Md Firan MondalLead HVAC Engineer | CEng, MIMechE, UK I CEng, KIVI, Europe I B.E (Mechanical) I Oil & Gas I HVAC Wind Platforms I Green Hydrogen I Blogger
  • 7-day money-back guarantee
  • Lifetime access
  • Certificate of completion
Volume pricing for groups of 5+

Why enroll

If you want to build or advance your career in HVAC Design and Engineering, this course can guide you step by step. Whether you’re trying to design HVAC systems for buildings, Oil & Gas facilities, hydrogen plants, or offshore platforms, or preparing for HVAC job interviews, this program is designed to help you. It’s also useful if you plan to earn certifications like ASHRAE Certified HVAC Designer (CHD), apply for Chartered Engineer (CEng) status, or start working as a freelance HVAC designer.The course, “Become HVAC Professional Engineer,” is led by an HVAC specialist with more than 16 years of industry experience. It takes you from the basics of HVAC to advanced design concepts in a clear and practical way. You’ll learn through real-world examples, site tour insights, animated explanations, and 3D visualizations. The training also includes step-by-step calculations, system optimization techniques, and practical knowledge of how HVAC work is actually done on real projects. By the end of the course, you’ll gain the confidence and skills needed to work as a professional HVAC engineer in the industry.

What enrolled engineers say

6 verified reviews
  • May 3, 2026

    The scaling angle is what pulled me in, but module 4 dragged a bit and the labs assume you’ve already got your calc tools wired up. Past that, it maps cleanly to day‑job hvacr work. The Chapter 6 chilled‑water loop example stuck: the pump head calc tied back to ASHRAE 90.1 limits, then a quick check on N+1 sizing vs infra constraints. That’s the stuff I need before a design hits prod. The obs on control sequences vs actual arch tradeoffs felt real, not academic. Not perfect, but useful between meetings. Not something I usually pass along, but I will here.

    mohan R. · HVAC Trainee Verified
  • May 3, 2026

    The jump from junior rules-of-thumb to senior tradeoffs is made pretty explicit here, especially when the arch decisions start driving numbers. The ASHRAE 62.1 ventilation calc walkthrough in Chapter 5 stuck with me—the moment where the instructor sanity-checks the spreadsheet against a field obs and flags an over-optimistic diversity factor felt close to how reviews go in prod. wasn't sold on how briefly controls tuning was handled, and I wished there was more on commissioning handoff docs. Still, I’ll read future designs a bit more critically because of it.

    Lana S. Verified
  • May 3, 2026

    Signed up to close a narrow gap before a facility migration, mostly around load calcs and controls handoff. The Chapter on psychrometrics where they walk a mixed-air calc line-by-line, then tie it to VAV box selection stuck. Felt like reading an arch PR: assumptions called out, failure modes noted; helped when sanity-checking vendor numbers in prod. wasn't sold on the brief BAS networking bit—wanted more on obs and CI-style commissioning; but it sharpened my sense of where abstractions leak between design and ops.

    nelisiwe L. · TRAINEE Verified

Is this course for you?

You should take this if

  • You work in HVAC
  • 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

May be you are working as HVAC Engineer or thinking to be an HVAC Engineer, or you are a professional HVAC Engineer, this course will help you to grow and upheld your career, in the below aspects:

  • Clear the HVAC Core concept & fundamentals.

  • Detail HVAC Design. 

  • No need to remember the HVAC formula, it will be in your vein. 

  • Easy steps for calculation with simple explanation.

  • What we do in Engineering jobs.

  • Project examples.

  • Project document preparation & activities.

  • On Job Training example.

  • Site Tour for real life experience.

  • Transfer knowledge from a Competent Trainer with vast experience in multiple industries.

  • Exposure to MNC companies.

  • Basic to advanced levels HVAC.

  • Enrich the knowledge of international codes and standards for perfection in design.

  • Prepare for HVAC interview & help to crack.

I can guarantee that if you attend the complete course, you will FEEL THE DIFFERENCE and UNDERSTAND YOUR VALUE.

Course suitable for

Key topics covered

Section A: HVAC Introduction, Definition, Requirements, Applications

  • Career Objectives

  • Brief Introduction & Purpose

  • HVAC Definition

  • Why Does Heating Require?

  • Why Does Ventilation Require?

  • Why Does Air Conditioning Require?

  • HVAC Applications

  • Roles & Responsibilities of HVAC Design Engineer

Section B: HVAC Basics

  • Units of Measurements

  • Unit Conversion

  • Pressure

  • Temperature

  • Pressure vs Temperature

  • Fluid flow

  • Heat, Types & Formula, Units

  • Heat transfer

  • Law of Thermodynamics

  • Refrigerants

  • Tonnage of Refrigerants & Other Units

  • Unit Conversion for Ton

Section C: Requirements of Comfort Air Conditioning

  • Air purification methods

  • Thermodynamics of the human body

  • Role of clothing

  • Comfort and comfort chart

  • Design considerations

  • Requirements of temperature and humidity-high heat load industries

  • Recommended inside design conditions

  • Outside summer design conditions for some foreign cities

  • Indoor Air Quality

  • Design of ventilation systems

  • Factors for HVAC like people, space, loads etc

Section D: Refrigeration Cycle & Parts (VCR)

  • Refrigeration Cycle Introduction

  • Parts of Refrigeration Cycle

  • Evaporator

  • Compressor

  • Condenser

  • Expansion Valve

  • How Does Refrigeration Cycle Works?

  • Example of Refrigeration Cycle in Split AC

Section E: Refrigeration Cycle & Parts (VAM)

  • Refrigeration Cycle Introduction

  • Parts of Refrigeration Cycle

  • Evaporator

  • absorber

  • Generator

  • Condenser

  • Expansion Valve

  • How Does Refrigeration Cycle Works?

  • Example of Refrigeration Cycle in VAM

Section F: Psychrometry & Psychrometric Chart

  • What is Psychrometry? Atmosphere Air, Moist Air, Dry Air

  • What is Psychrometric Chart? Formation from Molier Chart

  • Saturation, Saturated & Unsaturated Air, Superheated Supersaturated air

  • Dry Bulb Temperature

  • Wet Bulb Temperature

  • Relative Humidity

  • Absolute Humidity

  • Specific Humidity & Humidity Ratio

  • Degree of Saturation

  • Dew Point Temperature

  • Specific Volume

  • Specific Enthalpy

  • Specific Entropy

  • Vapor Pressure

  • Bypass Factor

  • Contact Factor

  • How To Read A Psychrometric Chart

  • Calculation

Section G: Psychrometric Process

  • Simple Heating

  • Simple Cooling

  • Cooling With Dehumidification

  • Heating With Humidification

  • Adiabatic Mixing Of Two Air Streams

  • Evaporative Cooling

  • Air Treatment Process

  • Air Conditioning in a Building

  • Calculation examples

Section H: Heat Load Calculation (Manual)

  • Introduction

  • Overall Heat Transfer Coefficient (U)

  • Common Load Temperature Difference (CLTD)

  • External Cooling Load

  • Internal Cooling Load

Section I: Heat Load Calculation (HAP SOftware)

  • Introduction to HAP

  • Installation & Setting of HAP Software

  • Weather Data

  • Create Schedule

  • Wall & Partitions

  • Roof, Ceiling & Floor

  • Window Inputs

  • Door Inputs

  • Shades

  • Space Inputs_Part 1_General

  • Space Inputs_Part 2_Internals

  • Space Inputs_Part 3_Walls, Windows, Doors

  • Space Inputs_Part 4_Roof & Skylights

  • Space Inputs_Part 5_Infiltration

  • Space Inputs_Part 6_Floor Above Conditioned & Unconditioned Space

  • Space Inputs_Part 7_Floors on Slab & Below Slab

  • Space Inputs_Part 8_Partitions

  • Space Inputs_Part 9_Space Inputs Summary

  • System Inputs_Part 1_General

  • System Inputs_Part 2_System Components

  • System Inputs_Part 3_Zone Components

  • System Inputs_Part 4_Sizing Data & Equipment

  • System Input Data Summary

  • System Design Summary

Section J: Selection & Type of HVAC system

  • Type of HVAC system

  • Selection of HVAC system

  • HVAC System for HVDC Platforms

  • HVAC System for Green Hydrogen

  • HVAC System for Oil & Gas

  • HVAC System for Infra 

Section K: HVAC Small Equipment & Description

  • Window Air Conditioner

  • Split Air Conditioner

  • Cassette Air Conditioner

  • Floor Mounted Air Conditioner

  • Fan Coil Units

  • Split Air Conditioner

  • Treated Fresh Air Unit

  • Air Filters

  • Sand Trap Louver

  • Chemical Filters

Section L: HVAC Packaged Air Conditioner

  • PACU Introduction

  • PACU Basics & Function

  • Parts of PACU

  • How Does PACU Work?

  • Types of PACU

  • Location of PACU

  • PACU Configurations

  • PACU Selection Parameters

  • PACU 3D Modelling Examples

  • PACU Project Reference Drawings

  • Site Tour for PACU

Section M: Air Handling Unit along with Site Tour

  • AHU Introduction

  • AHU Basics & Function

  • Parts of AHU

  • AHU Dampers

  • How Does AHU Work?

  • Types of AHU

  • Location of Air Handling Units

  • AHU Configurations

  • AHU Selection Parameters

  • AHU 3D Modelling Examples

  • AHU Project Reference Drawings

  • Site Tour for Air Handling Unit or AHU

Section N: HVAC Chiller Water System & Description

  • Overview

  • Parts of Chilled Water System

  • How Does Chilled Water System Work?

  • Cooling Tower

  • Types of Chiller & Selection

  • How to Design Chiller?

  • Pipe Sizing Calculation

  • Pump Pressure Drop Calculation

  • Pump Power Calculation

  • Chiller Efficiency

  • Chiller / Pump /AHU-FCU / Condenser – Hook up

  • Need to Resource

  • Chiller Schematics

  • Chiller Troubleshooting Overview

  • Pump Curve

  • Project Example

  • Site Tour

Section O: HVAC Duct Design and Sizing Practices

  • Duct Introduction

  • Types of Duct

  • Ducting System Classification

  • Methods of Duct Design

  • Design Considerations

  • Duct Aspect Ratio

  • Frictional Losses & Friction Chart

  • Use of Friction Chart

  • Equivalent Duct

  • How to use the Conversion Chart

  • Steps of Duct Sizing

  • Project Example

Section P: Ventilation System Design

  • Ventilation System Introduction

  • Various Components

  • Types of Ventilation System

  • Ventilation Calculation & Equipment Sizing

  • Project Example

Section Q: Ventilation Equipment & System Description

  • Cable Cellar Ventilation

  • Engine Hall Ventilation

  • Turbine Generator Hall Ventilation

  • Galley Ventilation

  • Toilet Ventilation

  • Pantry Ventilation

  • Dry Transformer Room Ventilation

  • Laboratory Room Ventilation

Section R: HVAC Document & Drawing

  • Deliverables for project

  • Basis of Design

  • Heat Load Calculation

  • HVAC Datasheet

  • HVAC Functional Specification

  • HVAC Equipment Specification

  • HVAC Control Philosophy

  • HVAC PFD

  • HVAC D&ID

  • HVAC P&ID

  • HVAC Duct Layout

  • Equipment Layout Drawing

Section S: HVAC Controls & Automations

  • HVAC Controls & Automation Introduction

  • Parts of HVAC Controls

  • DDC Control Panel & PLC Panel

  • Detectors

  • Interfaces with Other Services

  • HVAC Does HVAC Control System Works

  • Chiller Controls

  • Sample Project Example

Section T: HVAC Bid Evaluation

  • Offers from Bidders

  • Technical Query

  • Bid Evaluation Report

Section U: HVAC Document & Drawing Review

  • How to Review the HVAC document?

  • Basis of Design

  • Heat Load Calculation

  • HVAC Datasheet

  • HVAC Functional Specification

  • HVAC Equipment Specification

  • HVAC Control Philosophy

  • HVAC PFD

  • HVAC D&ID

  • HVAC P&ID

  • HVAC Duct Layout

  • Equipment Layout Drawing

  • Bill of Quantity

  • Method Statement

  • Review Example of 3D

Section V: HVAC Workflow Process

  • Ray Diagram

Section W: Project Example 01

  • Description

  • What to do

  • Deliverables

  • Calculation

  • Selection

  • Document Preparation

  • Bid Evaluation

  • Vendor Document Review

  • Site Supports

Section X: Project Example 02

  • Description

  • What to do

  • Deliverables

  • Calculation

  • Selection

  • Document Preparation

  • Bid Evaluation

  • Vendor Document Review

  • Site Supports

Section Y: Project Example 03

  • Description

  • What to do

  • Deliverables

  • Calculation

  • Selection

  • Document Preparation

  • Bid Evaluation

  • Vendor Document Review

  • Site Supports

Section Z: HVAC Supports, Interview Questions & Answers

  • Name of HVAC Companies

  • MCQs [Discussion of 500 Questions with Answers]

  • Supports for ASHRAE CHD

  • Supports for Chartered Engineer CEng

Course content

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

15 modules165 lectures47 hr 14 min
  1. 01. HVAC Course Objective
    23 min
  2. 02. HVAC Perception
    4 min
  3. 03. Brief Introduction & Purpose
    8 min
  4. 04. HVAC Definition
    3 min
  5. 05. Why Do We Need Heating?
    3 min
  6. 06. Why Do We Need Ventilation?
    2 min
  7. 07. Why Do We Need Air Conditioning?
    7 min
  8. 08. HVAC Applications
    2 min
  9. 09. HVAC Roles & Responsibilities
    1 min
  1. 01. Measurements of Units
    50 min
  2. 02. Basics of Thermodynamics
    23 min
  3. 03. Basics of Heat
    18 min
  4. 04. Heat Transfer
    11 min
  5. 05. What is Pressure & Basics
    6 min
  6. 06. Refrigerants
    27 min
  7. 07. Tonnage of Refrigerants
    9 min
  1. Refrigerant Cycle VCR Part 01
    28 min
  2. Refrigerant Cycle VCR Part 02
    28 min
  3. Refrigerant Cycle VCR Part 03
    29 min

Opportunities that await you!

Career opportunities

₹45000

Access anytime

Questions and Answers

A: An HVAC system generally consists of heating, ventilation, and air conditioning components. The heating section may include furnaces or boilers, while the cooling part typically uses air conditioners or chillers. The ventilation system manages indoor air quality through ducts, filters, and fans. Additionally, the controls—such as thermostats and building management systems (BMS)—play a crucial role in maintaining system performance and energy efficiency.

A: Load calculations involve determining both the sensible and latent loads of a space. This process typically starts with measuring room dimensions, assessing external solar gains through windows and walls, and calculating internal gains from occupants, lighting, and equipment. Tools like Manual J for residential or commercial load calculation software help quantify these factors. The sum of these loads guides the selection and sizing of HVAC equipment to ensure energy efficiency and adequate comfort.

A: Equipment selection is based on accurate load calculations, building design, and energy efficiency considerations. I compare the equipment’s capacity with the calculated load and check efficiency ratings like SEER, EER, or COP. Local codes and sustainability goals also influence the decision. For example, for high-rise buildings, I ensure that the selected units have variable speed drives to adapt to varying loads efficiently.

A: A psychrometric chart visually represents the thermodynamic properties of air, including temperature, humidity, and enthalpy. It helps HVAC designers analyze and predict how air behaves under different conditions. By plotting existing conditions and desired comfort levels on the chart, engineers can determine cooling and dehumidification requirements, select proper equipment, and evaluate energy efficiency.