Process Design Engineering Course from Zero to Hero

Discover the process engineering career, the main activities and common practices, and get access to 8 process engineering courses.

4.7 (23 reviews)

473 lessons · 44 h 6 min of video · 8 downloads · 25 quizzes · 8 courses worth $231 separately

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What you will learn

  • Role of Process Engineers in a Project
  • Walking through each process engineering document or activity with examples
  • P&ID Course – Components, Operation and Safety Common Practices
  • Pipe Sizing Course Access – Pipe Sizing Criteria and Common Practices
  • Pump hydraulics course access & their effect on process design workflow
  • Thermal Design of Shell and Tube Exchangers Course using HTRI
  • Vessel and Separator Sizing Course
  • PSV sizing, blowdown and Relief header analysis Course
  • Compressors Course – types, performance, surge protection, and control strategies for optimal operation.
  • Control valves Course – sizing, characteristics, and interaction with the process system.

Course at a glance

Prerequisites

  • Being aware with main oil and gas or petrochemical plants and the main equipment used there.

Who this course is for

  • Fresh graduates looking for process engineering job
  • Junior process engineers looking to leverage their career
  • Plant operation engineers looking to get into process design concepts or shift their career to process design engineering
  • Non-process engineers looking to deepen their interface with process engineers

Software used

  • Aspen HYSYS (for simulation, blowdown utility compressor surge analysis and column sizing)
  • HTRI for exchanger thermal design
  • Aspen Flare System Analyzer (Flare Net)
  • Excel sheets for pipe sizing, pump, control valve and separator sizing

Practical Examples

  • Design Basis, PFDs, P&IDs, and other process documents Walkthroughs
  • How Process Simulation affect Downstream Activities
  • Extensive equipment and pipe sizing examples
  • Safety, overpressure and relief scenarios
  • P&ID Detailed Review

What you'll be able to do

  • Be ready for your next Process Engineering Job
  • Be confident when starting your new project
  • Understand the basis considered by the process engineer in the project you are working at.

See everything you will learn

Lessons
473
Video time
44 h 6 min
Downloads
8
Rating
4.7 (23 reviews)

Course content

27 sections · 473 lessons · 44 h 6 min

Introduction
  • Introduction2:42
  • What is Process Design7:17
  • Importance of Process Design2:33
  • Optimizing process requirements12:13
  • Optimize Equipment Sizing4:10
  • Minimize Energy and Utility Consumption3:01
  • Ensure Safe and Environment Friendly Process6:04
  • Effect of Process Design on Maintainability2:21
  • Quiz 1
Process Engineering Inputs and Outputs in a Project
  • How a Project Starts8:35
  • Project Inputs – Feed & Product Specifications10:42
  • Project Inputs -Existing Utility and Effluent Systems7:44
  • Project Inputs – Codes, Standards and Design Criteria5:06
  • Project Outputs: Documents & Activities to be provided by a Process Engineer7:48
  • Process Design Stages From Conceptual Design To Startup
  • Quiz 2
Process Design Basis
  • Design Basis6:01
  • Design Basis Walkthrough – Introduction7:03
  • Process Description, Scope and Battery Limits10:50
  • Feed Specs and Product Requirements11:41
  • Available Utility \ Effluent Systems and Site Conditions6:08
  • Process Design Criteria7:58
  • Equipment, Piping and Instrument Tagging Philosophy2:36
  • Design Basis File
  • Quiz 3
Process Simulation
  • Process Simulation3:32
  • Things to Consider Example 1 – Optimizing Compressor Stages14:48
  • Things to Consider Example 2 – Choose Proper Fluid Package3:59
  • Things to Consider Example 3 – Tower Optimization11:56
  • Quiz 4
Process Flow Diagram (PFD) and Process Control
  • Process Flow Diagram (PFD)2:40
  • Example of a PFD with a Heat and Mass Balance Table9:50
  • Tips to choose the Proper Control Scheme
Tower Sizing
  • Main Sizing Activities0:49
  • Tower Sizing & Hydraulics4:54
  • Tower Sizing Parameters and effect on Process
  • Tower Sizing Example – Adding Tower Internals on HYSYS9:03
  • Effect of tower operation on Process at maximum capacity and turndown7:52
  • Example of Tower Datasheet & Sketch12:49
  • Quiz 5
Exchanger Sizing
  • Heat Exchanger Thermal Design6:40
  • Discover Aspects for design of Shell and Tube Heat Exchangers
  • How to choose the Optimum Exchanger TEMA type?
  • Example 1 – Shell and tube heat exchanger Sizing using HTRI23:19
  • Example 2 – Shell and tube heat exchanger Sizing using HTRI16:52
  • Exchangers Quiz 1
Separator Vessel Sizing
  • Separator / Vessel Sizing3:39
  • Separator type selection, internals and design criteria
  • Vessel Sizing Example using Aspen Hysys35:39
  • Readjusting Simulation to optimize the size of the vessel10:03
  • Example of Vessel Datasheet8:52
Sizing Activities
  • Pipe Sizing3:36
  • Pipe Sizing Criteria and Workflow6:08
  • Pump Hydraulic Calculations4:30
  • Impact of pump hydraulics3:31
  • Calculation of Design Pressure and Temeprature10:15
  • Centrifugal Pump Procurement & Overpressure Challenge – Case Study
Evaluating Required Utilities
  • Understanding Role of Utilities in a Plant21:18
  • Plant Effluents and effect of their quantity and frequency9:01
  • Analyzing Cooling Water Consumption in a Distillation Unit26:14
  • Add Steam Consumption to the Utility Summary6:39
  • What shall we do with other utilities?1:41
  • Adding Effluent Summary4:16
  • Let's Recap
P&IDs Course – Introduction
  • Introduction4:34
  • Details shown on a P&ID VS a PFD4:56
  • Anatomy of a P&ID Drawing3:19
  • Equipment Arrangement: Series VS Parallel VS Spare1:46
  • Equipment Design Data & Specifications3:50
  • Examples for Equipment Data Tables on a P&ID2:24
  • Scope and Battery Limits2:12
  • Analyzing Pipe Details on a Line Number3:39
  • Showing Fittings on a P&ID: Reducers, enlargers, Class Breaks & Insulation Kits7:15
  • Manual Valves2:35
  • Check Valves0:57
  • Data Not Shown on a P&ID1:28
  • Let's Recap
  • Components of Control and Shutdown Loops1:32
  • Main Instrument Abbreviations on a P&ID1:49
  • Details of Measuring Devices2:23
  • Flow Measurment3:44
  • Level Measurement4:24
  • Temperature and Pressure Measurement0:33
  • Control System2:47
  • Shutdown System2:37
  • Types of Final Elements1:50
  • Control Valves1:12
  • Shutdown Valves1:42
  • On Off Valves Control in Batch Systems1:37
  • Valve Actuators and Accessories4:47
  • Adding Data For Instruments2:25
  • Motor Details1:20
  • Showing Pressure Safety Valves (PSV)5:21
  • Tank Protection Using Pressure Vacuum Safety Valves (PVSV)1:37
  • Let's Recap
  • Examples of instrument datasheets6:40
PSV and Relief System Requirements
  • Pressure Safety Valves: An Essential Protection Against Overpressure
  • Pressure Safety Valves (PSV) Role in Workflow4:01
  • 4 Key Factors Affecting PSV Sizing & Operation
  • Importance of Proper PSV Positioning in P&ID Design
  • Example of PSV sizing using Aspen Hysys24:54
  • PSV Datasheet Example5:34
  • Purpose of Automatic Depressurization2:03
  • Configuration of Blowdown System4:35
  • Depressurization Timing Criteria1:21
  • Dividing Plant into Sections3:33
  • Objectives and Methodology of Blowdown Calculation9:16
  • Adding input data for fire depressurization scenario11:43
  • Adjusting Required Orifice Diameter and Manipulating different factors11:45
  • Calculating MDMT based on Orifice Data7:04
  • Quiz – Depressurization and Blowdown
  • What is a Flare System?1:42
  • Considerations for Inlet Pipe to PSVs2:56
  • Outlet PSV line Considerations3:38
  • Calculating Relief Load of Flare Header2:17
  • Purpose and Criteria of flare / Relief System analysis10:03
  • Adding Inputs to Aspen FlareNet Software9:31
  • Running the Model and analyzing results & impact on relief system10:17
  • Quiz- Flare System Analysis
  • Files used in flare Analysis
Project Workflow Effect on P&ID details
  • Main P&ID Issuance Purposes2:34
  • Conceptual and Basic Engineering4:09
  • Issuing P&IDs for Design3:41
  • HAZOP Session and Its Effect on a P&ID2:52
  • Construction and As-Built P&IDs2:17
  • Effect of Changes in a P&ID on a Project Workflow1:32
Types of P&IDs
  • Legend P&IDs3:58
  • Typical Details P&IDs1:30
  • Distribution P&IDs2:21
  • Tie-in P&IDs1:53
  • Main Process Considerations when selecting Tie-in Location3:20
  • Packaged P&IDs1:39
  • Let's Recap
P&ID Maintenance and Operational Requirements
  • How to Provide the Operator with Plant Performance Indicators1:05
  • Measuring reading from Field using Field Instruments2:34
  • Show Instrument Reading to Operator in Control Room6:11
  • Warn the Operator from Upset Conditions Using Alarms3:04
  • Sampling Connections from the Plant to the Laboratory1:46
  • Let's Recap
  • Importance of Plant / System Isolation2:15
  • Types of Isolation3:16
  • Factors to choose Isolation Technique5:08
  • Isolation of pumps2:37
  • Isolation of Vessels and Shell & Tube Exchangers3:27
  • Isolation of Control Valves2:40
  • Isolation of Pressure Safety Valves (PSVs)6:53
  • Let's Recap
  • Preparation for Static Equipment Maintenance3:44
  • Steaming out a Vessel2:24
  • Choose the Drainage Location2:07
  • Closed Drain System5:34
  • Open Drain System2:20
  • Let's Recap
P&ID Protection and Safety Requirements
  • Potential Hazards in a Process Plant2:53
  • Warn the Operator – Layers of Protection3:21
  • Proper Design Conditions – Eliminate the Risk1:05
  • Fail Safe Position – Eliminate the Risk1:03
  • Prevent Hazard by Shutting down the System – Layers of Protection1:41
  • Mitigate Hazard by PSV – Layers of Protection0:51
  • Design Pressure of Centrifugal Pump Discharge System4:53
  • Design Temperature for the system downstream a Cooler0:49
  • Applying 10 13 Rule on a shell & Tube Exchanger to handle Tube Rupture Scenario2:42
  • Compressor Settling Out Pressure3:21
  • Design Temperature of Compressor Suction1:37
  • Control Valve Fail Action a in High to Low Pressure Interface2:18
  • Valve Fail Action in Reactor Cooling System0:41
  • Control Valve Failing in Location1:58
  • Let's Recap
  • External Equipment Protection from Process Upsets3:38
  • Avoid Common Cause Failure by Segregation between Control and Shutdown Systems2:40
  • Cause and Effect1:18
  • Gas Blowby Example3:29
  • Overview of a cause and effect template and how it looks like13:37
  • Example for applying Interlocks on Cause & Effect12:32
  • Reciprocating pump discharge, Pipe Thermal Expansion & Exchanger Tube Rupture4:16
  • Blockage, External Fire, Control Valve Failure, and Coolant Failure4:49
  • How to Properly choose the PSV Sizing Cases?2:18
  • Let's Recap
Applying Safety Studies on a P&ID
  • Role of Safety Studies4:01
  • Main HAZOP Rules1:46
  • Node Classifications1:41
  • Example of HAZOP Worksheet1:22
  • Example 1: No Flow Deviation at Vessel Inlet9:38
  • Example 2: More Liquid Flow to Vessel6:43
  • Analysis and Recommendations for Example 25:02
  • Example 3: More Gas Flow to Vessel1:58
  • Example 4: Less Liquid Level in the Vessel2:18
  • Let's Recap
  • What is SIL Assessment?2:24
  • How to Assess Frequency of a Hazard Consequence?7:43
  • Analyse the severity of a Consequence1:59
  • Applying Risk Reduction Matrix2:45
  • Example 1: HIPPS system to protect Vessel Inlet2:29
  • Example 2: Protection against Gas Blowby7:08
  • Let's Recap
Pipe Sizing
  • Main Sizing Criteria1:03
  • Effect of Velocity on a pipe and its calculation2:00
  • Velocity criteria for gases and two phase flow2:28
  • Pipe Sizing Velocity Criteria for Liquids2:00
  • Pressure Drop sizing approaches2:51
  • Calculate friction factor2:51
  • Calculating pressure drop for two phase flow1:15
  • Pressure drop criteria3:11
  • Hydraulic Loops6:08
  • Two phase flow regimes2:53
  • How to avoid or reduce slug flow?4:14
  • Determine pipe internal diameter against pipe schedule1:27
  • Consider fittings and calculate pipe equivalent length1:52
  • Let's Recap
  • Tools to calculate pipe sizing1:53
  • Pipe sizing examples introduction5:08
  • Pipe Sizing Calculation Sheet
  • Example 1- Condensate at pump discharge2:30
  • Example 2- LPG at pump suction3:56
  • Example 3- Gas at compressor suction2:03
  • Example 4- Two phase flow example3:20
  • Example 5 – Condenser Hydraulics9:40
  • Example 6- Reboiler Hydraulics13:20
  • Let's Recap
Pump Hydraulics Course
  • Introduction1:23
  • Why do we Need a Pump?5:45
  • Main pump types and how they work4:45
  • Factors affecting pump selection2:52
  • Main pump Calculations0:52
  • Available Pump Net Positive Suction Head2:22
  • How do we calculate pump NPSH?1:48
  • Pump Strainers1:29
  • Vertical can pumps1:06
  • Solutions to adjust pump NPSH3:12
  • NPSHA example 13:11
  • Solution to NPSH example 112:45
  • NPSH example 21:46
  • Solution to NPSH example 25:49
  • What is pump differential head?2:22
  • How can we calculate pump differential head?2:17
  • Differential head Example 10:51
  • Solution to diff. head example 110:09
  • Differential head example 20:27
  • Solution to Example 21:55
  • Pump Power and how to calculate it3:36
  • Solution to pump power example3:33
  • Pump Calculation sheets
  • Performance curve, system curve and operating point3:09
  • A closer look into the pump curve4:03
  • Let's Recap
  • Performance curve of a positive displacement pump2:26
  • Pump main control methods2:48
  • Controlling discharge resistance using a control valve8:10
  • Changing pump speed using Variable Frequency Drive motor3:50
  • VFD power savings2:21
  • Pump series and parallel configuration1:02
  • Parallel configuration overview4:41
  • Parallel pumps performance curve3:55
  • Pumps in series overview4:42
  • Pumps in series performance curve2:18
  • Let's Recap
Control Valve Hydraulics Course
  • Introduction1:46
  • Main functions of a control valve5:54
  • How a control valve works?1:47
  • Valve cavitation3:22
  • Flashing3:18
  • What is a valve CV?2:37
  • Equations calculating valve Cv2:23
  • Choked Flow2:59
  • Control Valve Inherent Characteristics4:07
  • Control Valve authority1:49
  • Actual Control Valve Pressure Drop1:36
  • Valve Installed Characteristics3:53
  • Inherent vs Installed Characteristics3:14
  • Valve Plug Geometry1:00
  • Butterfly Valves3:04
  • Butterfly inherent vs installed characteristics1:38
  • Let's Recap
  • Valve sizing Procedure1:48
  • Calculating Control valve pressure drop3:23
  • Determine the controlling cases3:51
  • Example 1: Calculate pressure drop and controlling case pump discharge valve32:47
  • Example 2: On tower overhead15:18
  • Valve sizing procedure by valve supplier1:45
  • Oversized vs undersized Valves5:07
  • Let's Recap
Compressor Operation Course
  • Introduction1:11
  • Pumping liquids vs compressing gases1:41
  • Compressor types2:18
  • When to use a dynamic or a positive displacement compressor4:52
  • Dynamic compressor types1:23
  • Positive Displacement compressor types1:55
  • Using compressor in with more than one stage5:52
  • Compressor performance head2:32
  • Adiabatic vs Polytropic behavior2:15
  • How to calculate compressor head1:58
  • Let's Recap
  • Effect of changes in inlet gas conditions on the compressor3:46
  • Importance of polytropic efficiency for a centrifugal compressor5:22
  • Explaining Compressor efficiency – Adiabatic Efficiency6:58
  • Surge and Stonewall2:04
  • How system resistance affects the compressor performance1:00
  • Surge scenario2:48
  • How to protect the compressor from surge2:09
  • Anti-surge Caveats3:59
  • Anti surge take off point4:34
  • Let's Recap
  • Dynamic compressor control methods1:41
  • Discharge Throttling2:22
  • Suction Throttling2:24
  • Inlet guide vane angle adjustment0:49
  • Controlling speed using variable speed drivers1:45
  • Main reciprocating compressor control methods2:11
  • Spill-back or recycle control2:42
  • Compressor Cylinder Types5:06
  • Step control of a reciprocating compressor4:13
  • Variable Speed Control of a reciprocating compressor2:04
  • Let's Recap
  • Adding a Compressor on HYSYS and Analyzing Main Parameters10:56
  • Plotting the compressor curve and changing operating points6:15
  • Effect of Changes in Gas Molecular Weight on Compressor Performance6:02
  • Manipulating Inlet Pressure, Flow and Speed11:35
  • Effect of changes in inlet Compressor Temperature8:39
  • Compressor Surge Analysis Tool23:30
  • Checking Surge with Cooler on Suction5:54
  • Simulating Compressor's Operation – Practical Insights10:43
P&ID Review Example – Separator, Pump and Exchanger
  • Walking through P&ID – Part 119:14
  • Walking through P&ID – Part 217:58
  • Review Title block, tagging, line numbers, notes and holds18:53
  • Checklist scope fail actions winterization fail actions and others21:27
  • Check piping details – Spec breaks, reducers and enlargers check with sizing11:16
  • Checking Maintenance, isolation valve locking and drainage requirements9:24
  • Performance indication, bypass, tie in and future connections5:25
  • Insulation and full bore requirements1:48
  • Upset scenarios safeguards & exchanger misnmatch with PFD14:44
  • Checking fire scenario and heat exchanger configuration11:12
  • Download Walkthrough Data
Specifying Design Conditions of Equipment
  • Basic design pressure, maximum and minimum design temperature criteria9:01
  • Steaming out conditions4:49
  • Design Pressure in case of Pump or Compressor Discharge blockage17:15
  • Design temperature at exchanger maloperation or blow down MDMT5:39
  • Atmoshperic tank and tower sections design pressures2:27
  • Example of calculating design pressure & temperature – Oil facility inlet, gas and water outlets8:25
  • Analyzing design conditions for oil separator outlet, pump suction discharge and minimum flow8:30
  • Design conditions for oil exchangers, desalter and air cooler up to cooler10:22
Line Designation Table (Line List)
  • Line Designation Table Template and data to be added19:24
  • Adding data to line designation table12:40
Separator & Vessel Sizing Course
  • Effect of Required Droplet Size and K Factor12:31
  • Specifying K factor for vertical vessels4:23
  • Calculating Droplet Size for Horizontal Vessels using Ballistic model9:49
  • Understanding Vessels function as a surge drum5:16
  • Residence Time Criteria13:07
  • Minimum span Criteria5:38
  • Effect of normal liquid level on separation efficiency3:54
  • Effect of foaming and inlet slugs6:56
  • Effect of Fouling on Vessel Internals2:08
  • Degassing Criterion2:13
  • Vessels Quiz 1
  • Main Vessel Sections6:26
  • Choosing Vertical vs Horizontal vessels6:15
  • Types of Inlet Devices15:35
  • Plate Packs and Coalescers4:36
  • Vessel Outlet Devices7:10
  • Vessels Quiz 2
  • Factors affecting maximum particle size6:28
  • Sizing Procedure for vertical separators6:31
  • Horizontal Separator Sizing Procedure9:36
  • Vessels Quiz 3
  • Example 1 – Vertical Vessel with only deflector No outlet Device20:10
  • Example 1 – Effect of Adding IVD (Schoepentoeter), Mesh Pad, or Vane Pack15:48
  • Example 1 – Adding overdesign factor for vertical and horizontal vessels Sizing4:42
  • Example 2 – Sizing the separator as a horizontal vessel18:03
  • Example 2 – Adding devices to the horizontal separator10:38
  • Example 3 – Compressor Suction Scrubber17:01
  • Example 4 – Debutanizer Overhead Accumulator and effect of residence time16:04
  • Example 4 – Accomodating slug and foaming4:57
  • Vessels Quiz 4
  • Example 5 – Liquid Collecting vessel with boot configuration11:21
  • Example 6 – Sizing 3 phase separator with weir configuration25:18
  • Vessels Quiz 5
  • Explaining main concepts introducing plate packs4:38
  • Piping, instrument and other nozzle considerations10:52
  • Access files for all examples
PSV Sizing Course
  • Main codes and standards used3:56
  • PSV Quiz 1
  • Spring Loaded Pressure Safety Valves3:35
  • PSV operation from opening to reseating14:08
  • Pressure Relief Valve Mechanism liquid service6:38
  • Pressure Terminologies in a Pressure Safety Valve9:22
  • An Expert Pressure Relief Valve Overview
  • Main PSV types6:09
  • Effect of PSV testing and CDTP8:29
  • Operational Issues: Chatter and Leakage6:55
  • Pilot Operated Valves3:30
  • Effect of flare backpressure7:19
  • PSV Quiz 2
  • Main Steps in Sizing a PSV9:21
  • Equations Calculating Orifice Area for a gas service14:49
  • Example Calculating Orifice Area for a Critical and Subcritical Flow7:30
  • Alternate method for subcritical calculation of orifice area2:58
  • Calculate Orifice Area for Steam Service3:34
  • Get orifice area of a PRV handling Liquid Service with example7:14
  • PSV Quiz 3
  • Basis on which Relief Load is Determined9:07
  • Fire Scenario18:00
  • Example calculating fire with traditional method24:03
  • Solving fire case using HYSYS13:16
  • Sizing PSV for gas fire (Supercritical fluid service)11:10
  • Thermal Expansion8:07
  • Blockage9:09
  • Control Valve Failure13:35
  • Loss of Cooling10:04
  • Absorbent Failure1:31
  • Check Valve Failure2:54
  • Reflux Failure13:57
  • PSV Quiz 4
  • Analyzing Fire and Blockage cases for LTS17:33
  • Pressure Vacuum Safety Valves for Tank Protection7:24
  • Causes of overpressure in tank4:06
  • Calculation of inbreathing and outbreathing rates10:09
  • Using Emergency Hatches Protecting tank from Fire1:21
  • Rupture Disc4:19
  • Surge Relief Valves to protect against water hammer7:17
  • PSV Quiz 5
  • All Calculation Resources
Shell and Tube Exchanger Thermal Design
  • Standards and Criteria to be followed6:43
  • HTRI Interface – Adding Basic Data16:05
  • HTRI Interface – Input Process Data9:00
  • HTRI Interface – Input Geometry3:19
  • HTRI Interface – Output Reports8:58
  • Exchangers Quiz 2
  • How duty is affected by fluid properties4:34
  • How Mean Temperature Difference Affects Exchanger Performance with example15:39
  • Main Equation for Heat Transfer Coefficient1:25
  • Equation Calculating fluid Film Coefficients for shell and tube sides13:08
  • Examples for Effect of Viscosity on Heat Transfer Coefficient8:12
  • Example effect on exchanger geometry on heat transfer coefficient5:38
  • Exchangers Quiz 3
  • Effect of Shell Diameter, Number of Tubes and Tube Length17:14
  • Effect of Tube Passes4:14
  • Effect of Baffles8:29
  • Effect of Nozzles8:59
  • Flow Streams15:19
  • Tube to tubesheet Joints2:37
  • Exchangers Quiz 4
  • Introduction to reboiler types7:55
  • Kettle Type Reboiler or Exchanger Design Aspects16:47
  • Thermosyphon reboiler Design Considerations11:02
  • Analyzing Exchanger Parts and TEMA types- Part 115:17
  • Analyzing Exchanger Parts and TEMA types- Part 212:04
  • Exchangers Quiz 5
  • Tube Layout8:17
  • Installing a Tube Bundle Animation
  • Pulling Exchanger Bundle using Bundle Extractor
  • Exchangers Quiz 6
  • Factors Affecting vibration10:49
  • Types, forms and solutions of vibration11:06
  • Acoustic Vibration5:26
  • Exchangers Quiz 7
  • Main Sizing Procedure25:50
  • Workflow of an Exchanger in a Project from Design to Delivery14:18
  • Analyzing the data that is added in an exchanger datasheet21:49
  • Exchangers Quiz 8
  • Crude Kerosene Exchanger14:00
  • Crude Naphtha Exchanger15:42
  • Crude Naphtha Exchanger – Part 219:59
  • Gas Liquid Exchanger11:54
  • Gas Gas Exchanger14:17
  • Solving Acoustic Vibration in Gas Gas exchanger9:27
  • Propane Cooler16:08
  • Introducing kerosene side stripper reboiler11:32
  • Solving as Thermosiphon Reboiler16:21
  • Solving as Kettle Reboiler11:32
  • Rough Hydraulic Calculation14:45
  • Firm Reboiler Hydraulic Calculation7:13
  • Sizing Condenser Example17:52
  • Analyzing Duty Mismatch and considering J type5:43
  • Access files for all examples

Course overview

The Process Design Engineering, Equipment Sizing & Safety Masterclass is built to give you a complete picture of the process design workflow. You learn how the activities connect inside a project, and you gain the practical skills to handle complex projects with confidence.

It starts with the process design basis and process simulation, then moves through the PFD, the P&ID and the sizing activities. For each activity we cover the considerations behind a proper design and how the activity affects the whole project.

Along the way you explore the role of a process engineer across the project lifecycle, master process simulation techniques and learn to read P&IDs effectively. Safety is part of every step, including HAZOP and SIL assessments, so you can design processes that are safe and environmentally sound.

You also build equipment sizing skills for pipes, pumps, control valves, compressors, separators, heat exchangers and pressure relief devices.

What this masterclass gives you

  • Explore the process engineering career. See the real life of a process engineer and how process engineering activities work.
  • Start your career with confidence. By the end of the course you can take your career to the next level and apply to jobs or perform your engineering tasks with confidence.
  • Access to the current process engineering courses. You also get access to the 8 courses already on the platform, so you can go deeper on each activity.

What is included in the course

  • Process engineer’s role in a project, focusing on the documents prepared and the engagement with other engineering disciplines such as piping, mechanical and instrumentation engineers.
  • Process design basis example walkthrough: the first and most important document in any project, covered clause by clause through a live document.
  • Process simulation with HYSYS examples, PFD walkthrough and how they affect downstream sizing activities.
  • P&ID course: not just a P&ID walkthrough but also preparation, operational and safety common practices with examples, through a detailed review checklist.
  • HAZOP & SIL (LOPA) methodologies, with examples on how to apply HAZOP and evaluate layers of protection on a real P&ID to determine the proper SIL rating.
  • Pipe sizing course: not just equations, but which criteria to use and how they affect plant operation, with extensive examples for gas, liquid and two-phase lines, and the effect on the hydraulics of reboilers and condensers.
  • PSV sizing course: detailed analysis of the relief scenarios (fire, blockage, reflux failure, control valve failure and others), with extensive HYSYS sizing examples from P&ID analysis up to PSV orifice designation and type selection using API 520, 521 and 526.
  • Vessel and separator sizing course: sizing concepts and criteria for vertical separators and horizontal two-phase and three-phase separators, with extensive examples from input process data up to an optimized design.
  • HTRI thermal design of shell and tube exchangers, with extensive examples from process data up to an optimized design.
  • FLARENET: flare network calculation using Aspen Flare System Analyzer.
  • Compressors course for process engineers, including HYSYS modelling, dynamic simulation for surge analysis, compressor types and control loops.
  • Depressuring calculations using the HYSYS blowdown utility, and how to determine the relief load and the minimum design metal temperature (MDMT) and their effect on flare system sizing and equipment materials.
  • Pump hydraulics course showing the pump sizing procedure with detailed calculation examples, performance curves and their effect on the process design workflow and plant operation.
  • Control valves course: sizing, characteristics and hydraulic calculation for pressure drop specification and valve Cv, with calculation examples.
  • Calculating design pressure and temperature: blocked discharge, exchanger tube rupture, cooler maloperation and MDMT, calculated not guessed.
  • Project workflow from conceptual design to startup: how the activities interconnect, the relationship between the engineering company and the client, and the information needed to start process design.
  • Cause and effect walkthrough: read a full C&E template, then apply interlocks to a real case.
  • Distillation column and tower tray sizing with examples using Aspen HYSYS.
  • Equipment datasheets walkthrough for PSVs, vessels, columns and exchangers, along with vessel and tower sketches.
  • The role of utilities (steam, cooling water, instrument air, nitrogen and others) in a project, with examples analysing utility consumption in a plant.
  • Detailed calculation sheets similar to the ones used by engineering companies.
  • Practical quizzes.
  • Edited videos for a better learning experience.

Topics covered

  • Introduction to process design and the role of a process engineer
  • Project workflow: from conceptual design to startup
  • The relationship between the plant owner and the engineering company, and the importance of determining the project scope
  • The information we need to start a project and the output a client expects from the engineering company
  • Interactions between a process engineer and other disciplines such as piping, instrumentation and mechanical engineers
  • An example process design basis, showing the data on which the process design is carried out
  • An example process simulation, showing its impact on the whole plant design and the equipment sizing
  • An example process flow diagram (PFD)
  • The role of the sizing activities, and how they affect and are affected by other activities
  • Overview examples of HTRI thermal design, tower sizing, PSV sizing and vessel sizing using Aspen HYSYS
  • Equipment sizing: pipes, pumps, control valves, compressors, shell and tube exchangers, separators and pressure relief devices and systems (7 separate courses in addition to the P&ID course)
  • Interpreting P&IDs and applying operational and safety guidelines (part of the P&ID course)
  • Safety considerations: HAZOP and SIL assessments (part of the P&ID course)
  • Best practices for equipment maintenance (part of the P&ID course)

By the end of this course

By the end of this course, you can start or continue your process engineering career confidently. This is because we go through the main activities carried out by a process engineer, the common practices and sizing criteria, the main issues and how to solve them. All of it with real-world examples.

Want to know more? Look through the curriculum below. The lessons marked Free preview can be watched before you enrol.

Download the syllabus

Download the full syllabus (PDF) – the same lesson list as a printable document.

Who this course is for

  • You are a student or a fresh graduate who wants to explore the process engineering career and apply for jobs.
  • You are a process engineer who wants deeper experience to leverage your career or find a better job.
  • You are coming from another field and want to shift your career, or understand how a process engineering career works.

What students say

4.7 23 reviews
  • 5 stars78%
  • 4 stars17%
  • 3 stars4%
  • 2 stars0%
  • 1 star0%

This is the best all-around practical process engineering course on the internet! All topics are thoroughly explained in an outstanding way. I highly recommend it without hesitation, it’s extremely undervalued, and the value for money is 1000%!

IR

Best course ever

Subhan Azeez

Helpful to understand the pumps

Meru Raghavani

Informative and well presented

Mustafa Hasan

Good but not great.

KR

Best course for fresh graduates.

Nurzhan Kushekbayev

very good

Thomas Koch

This course is very useful for fresh and experienced engineers. strongly recommended

Omar Mohammed

I'm enjoying the teaching

Godpower George

last part voice issue but overall very good

Ubaidullah R

very insightful

Durid Abbas

very good

Ahmed Yaseen Taha

Great course . What i like most is the videos are short and crisp and power packed with information

Aiswarya Santhosh

Very useful

Abdelrahman Mohamed Abdelaal

Totally worthwhile

Ahmed Hadidy

Very interesting educative. I'm particularly glad to have come across this course package. Kudo to you Mohammad

Ibrahim Isah

very good explanation

Eslam Tantawy

Good till now

Ashok Amireddi

Very Straight to the point

Chukwuemeka Okoubi

Informative course

Zeeshan Zahid

Your instructor

Mohamad

Process Engineer

Mohamad is a chemical engineer with over 16 years of experience in the oil, gas, and petrochemical industries, particularly in the field of process design engineering. He has worked on projects for various engineering companies. Seeing firsthand the need for practical engineering learning tools, Mohamad began creating online courses and educational content focused on real-world process engineering workflows. He aims to make complex technical concepts approachable through the use of demonstrations, simulations, and practice exercises. Mohamad is passionate about equipping the next generation of engineers with the skills and knowledge to excel in their careers.

Frequently asked questions

Why Should I take this course?

This course will help you understand what a process engineering career involves and how it works. It will cover the key aspects of process engineering that are often not covered in depth during college, such as:

  • Understanding how a project is structured and carried out
  • Sizing equipment and preparing necessary documentation
  • Common practices for operations and safety, as outlined in various codes and standards
  • The essential mindset and approach that process engineers need to have

The goal is to provide a comprehensive overview of the process engineering profession and the skills needed to succeed in this field.

Why is this course expensive?

This is not just a course. It’s a masterclass containing a set of courses. It’s aiming to go through the whole process engineering career not just a specific activity.

Through this masterclass:

  1. You shall understand how process engineering career works and be prepared to start your career. This shall be through connecting different process engineering activities and diving through each activity, the considerations that should be taken for a proper design, and how this activity shall impact the whole project.
  2. You have access to 8 courses already on the platform here with a total price of around $220, even higher price on Udemy. These courses are already within 4.5 rating on Udemy as you can see in P&ID course and 4 in 1 Hydraulics course.
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What prerequisites do I need to take this course?

This course is designed for university students, fresh graduates, and experienced engineers looking to expand their knowledge in process engineering. A basic understanding of chemical engineering principles and what a chemical, oil and gas plant components is needed. For example, it’s important to have some basic knowledge of what a distillation tower or heat exchanger or flash drum separators are.

Can I use the supplied Calculation sheets for my private calculations?

Yes, you can. However, please note that the Excel sheets were made just for educational purposes. If you use it to validate a process or purchase equipment or material, then you should validate it yourself, and using it shall be your sole responsibility.

What if I have questions or need assistance during the course?

As a student, you will have access to a dedicated Q&A section for each video where you can ask questions, seek clarification, and interact with fellow learners and the instructor. The instructor will be available to provide support and guidance throughout your learning journey.

Is there a money-back guarantee if I'm not satisfied with the course?

Yes, we offer a 30-day money-back guarantee. If you’re not completely satisfied with the course within the first 30 days, you can request a full refund.

Will I receive a certificate of completion after finishing the course?

Yes, upon completing the course and passing all the quizzes, you will receive a certificate of completion that you can share with your employer or on your professional profiles.

Is this course suitable for non-process engineers?

While the course is primarily designed for chemical and process engineers, it can also be beneficial for professionals from related disciplines such as mechanical, instrumentation, or piping engineering who want to gain a better understanding of process engineering principles and their application in projects.

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