List of Figures

3.1. Gravity Separator featuring Gas By-pass System (Norwegian Demo 2000 programme)

3.2. In-line Cyclonic Separator Schematic

3.3. In-line Three Phase Separation Skid with Booster Pumps (surface application)

3.4. Pipe-Separator Test Rig

3.5. FMC Subsea Separation System Study featuring Pipe-Separator

3.6. SpoolSep subsea separator (SAIPEM)

3.7. CEC unit (surface application)

3.8. Troll Pilot Liquid Separation Principle

3.9. The Troll Pilot Separator and details of the "snail"

3.10. Troll Pilot System

3.11. Sand Removal System

3.12. Water Injection Pump and Pump Module (OneSubsea)

3.13. The Tordis Development

3.14. The SSBI System Principle (FMC)

3.15. The Tordis SSBI System

3.16. Tordis SSBI System Design Basis

3.17. The Tordis SSBI Separator and Details of the Sand Jetting System

3.18. Marlim SSAO

3.19. Marlim Subsea Separation System Diagram

4.1. Raw Seawater Injection System for Albacore (OneSubsea)

4.2. Raw Seawater Injection System being installed for Columbia E Field (OneSubsea)

4.3. LiquidBooster system for Tyrihans (Aker Solutions)

4.4. The SWIT subsea module (by courtesy of Well Processing)

4.5. The SWIT process

4.6. SWIT water treatment unit (left) and water injection pump (right)

4.7. SEABOX (NOV)

4.8. SWIT water treatment & injection unit

4.9. BHGE conceptual Subsea Sulphate Removal and Injection System

4.10. SRINGS^TM process (Saipem-Veolia-Total)

4.11. SRINGS^TM subsea architecture (Saipem-Veolia-Total)

4.12. SRINGS^TM subsea station arrangement (Saipem-Veolia-Total)

5.1. In-line Gas/Liquid Cyclonic Separator Schematic

5.2. The Vertical Annular Separation (VASP) Concept

5.3. Marimba VASPS System Process

5.4. System Overview

5.5. VASPS Subsea Hardware

5.6. VASPS Separator Assembly

5.7. The Separator Helix

5.8. ESP Overview

5.9. VASPS System Installation

5.10. The subsea separation caissons with their ESPs

5.11. MPP for BC-10 (TechnipFMC)

5.12. The Perdido project development

5.13. Pazflor Development featuring three Subsea Separation Units (Miocene)

5.14. Pazflor Subsea Separation Unit Process Flow Diagram Overview

6.1. Typical Subsea Gas Compression System Diagram (FMC Kongsberg)

6.2. Siemens ECOII Compressor (Siemens / FMC Kongsberg)

6.3. Compressor Details (including diaphragm component – GE Oil & Gas)

6.4. Ormen Lange Subsea Gas Compression System (AkerSolutions)

6.5. Asgard Subsea Gas Compression System (AkerSolutions)

6.6. Gullfaks Wet Compression Station (OneSubsea)

7.1. Weir Hydraulic Submersible Pump

7.2. ESP Overview

7.3. Installation of ESP on Petrobras RJS-477 well (Albacora)

7.4. Petrobras Jubarte Field (Phase 1) – Downhole or Dummy Well Alternatives of the ESP

7.5. Jubarte Field Phase 1 – Dummy Well Selected Location of the ESP (FMC Technologies)

8.1. Internals of the Helico-axial pump (Technology developed by IFP, Total & Statoil)

8.2. MPP Mechanical Design

8.3. Hydraulic Driven MPP (Sulzer)

8.4. Electric Driven MPP (Sulzer)

8.5. Framo Electric Driven Subsea Multiphase Pump

8.6. Sulzer Subsea Multiphase Pump

8.7. Shaft power Evolution (Offshore Magazine, February 2017)

8.8. DP Evolution (courtesy of OneSubsea)

8.9. Casing Rated Pressure Evolution (psi)

8.10. Water Depth Evolution (courtesy of OneSubsea)

8.11. All TOTAL Subsea Boosting Applications until 2019

8.12. All OSS Subsea Pumping Applications Worldwide.

8.13. All OSS Subsea Pumping Applications Worldwide

8.14. OSS Pumps Portfolio

8.15. OSS Pumps Main Components

8.16. OSS latest applications.

8.17. Sulzer Pump Technologies.

8.18. Sulzer Pump Range Map – Single Phase Liquid Water

8.19. Sulzer Pump Range Map – Single Phase Liquid Oil

8.20. Sulzer Pump Range Map – Multiphase

8.21. Sulzer/TPFMC first applications.

8.22. Sulzer/TPFMC application to come in 2019.

8.23. Sulzer / TPFMC Pump Module Illustrations.

8.24. AKSO MPP hydraulic.

8.25. AKSO MPP with impellers in back-to-back arrangement.

8.26. AKSO Liquid-filled induction motor - 2 Poles motor, 6.6kV - 6MW / 6000rpm.

8.27. AKSO new motor winding cable.

8.28. AKSO Subsea Pumps Portfolio at Q2/2019

8.29. AKSO Multibooster Capabilities.

8.30. Typical topside equipment needed for a conventional MPP system versus the MCP

8.31. View of the MCP modular concept

8.32. Twin Screw Pump Principle

8.33. Aker Kvaerner "MultiBooster" Subsea Pump installed in the Lyell field

8.34. BP King Field MultiBooster Pump Module

8.35. SBMS-500 System

8.36. SBMS-500 Motor/Pump (Leistritz)

9.1. Chemical Storage Station general arrangement

9.2. Subsea Chemical Storage System (SCSS) by Seatools

9.3. Subsea Chemical Storage by NOV (MEG only)

9.4. OceanWorks Subsea Fluid Injection System