Date/Time
27/04/2019
8:00 am - 4:00 pm

Location: 4811 87 St NW
4811 87 Street NW, Edmonton, AB, T6E0V3

Total Spaces: 27
Booked Spaces: 27
Available Spaces: 0


Fundamentals of Line Hydraulics, PSV & Control Valve Sizing & Selection

COURSE OVERVIEW

NEDAAAB – Edmonton chapter is pleased to announce the professional development course for its member and non-member. This course provides an overview of Line Hydraulics, PSV and Control Valve Sizing & Selection process in Oil & Gas industry. Course is designed with theoretical & Western Canada industry specific real examples approach.

WHO SHOULD ATTEND? 

  •  Mechanical & Process Engineers / Specialists
  • Electrical, Piping, Facilities and Project Engineers who would like to improve their basic understanding of the topic.

 Please see below the details of the event and register for the day.

When:  April 27th, 2019- Saturday

Registration Deadline: 20th April 2019

Timings:  8:00 am to 4:00 pm

Location: Edmonton

Address:  4811 87 Street NW, Edmonton, AB, T6E 0V3

WHO ARE COURSE INSTRUCTORS?

 

Umar Siddiqui is a Process Engineer, graduated from NED University (2011) in Chemical Engineering, with a Masters degree in Petroleum Engineering (2014) from the University of Calgary. He is registered with APEGA as an E.I.T. since 2014 with his P.Eng. expected in Fall 2019. Umar has over 6 years of experience in design and troubleshooting of conventional gas, conventional/heavy oil processing, fertilizer industry, and power generation facilities. His work experience encompasses projects in the oil and gas sector across three continents; Asia, North America & Western Africa, with special focus in Conceptual, FEED and Detailed Engineering design studies. He is certified with ASPEN Tech (USA) in advanced Process Simulation, with proficiency in developing process philosophy, project scoping and executing detailed engineering design.

Mustafa Siddiqui is a Mechanical Engineer with over 5 years of experience in the Oil and Gas industry. Mustafa has a diverse work and academic background. He has a Bachelor’s degree in Chemical Engineering from NED University (2010) and a Masters in Sustainable Energy / Mechanical Engineering from Carleton University (2013). He has worked as a production engineer on the vendor side, as well as a discipline engineer in an EPC environment. His areas of interest include pump and compressor sizing, packaged equipment design, emission reduction technologies, code, and regulatory requirements.

COURSE CONTENT

PART I – LINE HYDRAULICS (2.5 hours)

 PROCESS:

 1) Liquid Service

– Estimate pressure drop (major/minor) in process line using manual approach

– Develop System curve for a process line

– Pump curve and system curve

– Real industry case studies

2) Gas Service

– Estimate pressure drop in flare header under relief conditions using plot plan

– Real industry case studies

3) Multi-phase Service

– Theory of multi-phase flow

– Multi-phase flow sizing considerations

4) Pipeline Hydraulics (Case Studies)

– 270 km of white oil pipeline network using Drag Reducing Agent (DRA)

– Well-productions fluids transmission to Central Process Facilities (CPF) with hydrate inhibition

Catch:

– Interactive session on usage of software resources like ASPEN HYSYS, PIPENET etc. for flow line hydraulics.

– Overview of design practices employed using standards such as GPSA, JGC, Shell DEP etc.

MECHANICAL:

– Jurisdiction and regulatory requirements

– Design code (s)

– Material

– Examination and testing

PART II – PRESSURE RELIEF VALVE SIZING (Approx. 2.5 hours)

 PROCESS:

 1) Introduction

– Understanding of over-pressure and relief conditions

– Overview of Pressure Relief Devices; their types and utility

2) PSV Sizing

– Sizing scenarios for PSVs; Fire, Blocked Discharge, Thermal, Tube Rupture etc.

– Estimate relief load (manual methods) for Fire, Thermal, Tube rupture scenarios

– Orifice Sizing for Critical & Sub-Critical flows (gas/vapor, liquids based on API 520 (Part I) guidelines

– DIERS/Omega method for two-phase relief

– PSV Inlet/Outlet line sizing criterion

3) PSV Orifice Designations

– PSV Orifice designations per API and ASME; their difference and final selection criteria

– PSV Datasheet preparation

Catch:

– Two-phase PSV Relief design methods (DIERS/Omega Method)

– Flare Network hydraulics under blow down de-pressuring (subject to time constraint)

 MECHANICAL:

– Code guidelines

 

PART III – CONTROL VALVE SIZING (Approx. 1.5 hours)

 PROCESS:

 1) Introduction

– Overview of the control valve and its purpose in the piping network

– Control valve types and utilities

2) Control Valve Sizing

– Control Valve sizing equations (liquid/gas) service

– Case Study: Incorporation of control valve in process system and assessing its impact using pump curve and system curve

Catch:

– Real industry case study: impact of pump discharge control valve on overall system.

MECHANICAL:

– Design code(s)

– Construction and testing

Instructors prefer to keep entire session interactive rather than classic class-room teaching, and therefore participants will be welcomed and encouraged to actively engage in any Q/A or experience sharing throughout the length of the course at any time.

EVENT FEE

  • For NEDAAAB Registered Member: $50 CD
  • For NON-NEDAAAB Members: $60 CD

LUNCH & STRETCH BREAKS

Lunch & Stretch breaks will be provided.

COURSE COMPLETION CERTIFICATE

E-certificates will be provided to participants by NEDAAAB to earn CPD/PDUs

TASKFORCE MEMBERS

  • Taha Khan – Event Lead
  • Syed Munawwer Hasnain
  • Zubair Rahim
  • Talha Sultan

BOOKINGS

This event is fully booked.

List of Attendees

  • Muhammad Waqar Azhar
  • Laurier Brochu
  • Zubair Rahim
  • Qaisar Khan
  • Syed Hasnain
  • Muhammad Sultan
  • abdul wahab khan
  • Kamran Yousafzai
  • Ibrahim Khan
  • SADIQ ANSARI
  • Shams Zoha
  • Mehwish Butt
  • Sultan Afsar
  • Syed Ayaz Mahmood
  • tooba Abbasi
  • Breno Diogenes
  • Taha Khan
  • Syed Junaid
  • Jennifer Robertson
  • Mubashir Saleem
  • Sheikh Ilyas Tahir
  • Tauqeer Javaid
  • Amna Atiqi
  • Syed Rizvi
  • Hamza Luqman
  • Khurram Tauheed
  • Modusser Tufail