• Skip to primary navigation
  • Skip to main content
  • Skip to footer
Taylor Forge Logo

Taylor Forge

We deliver solutions that fuel the world, defend our country, and explore the universe.

  • Home
  • Solutions
    • Slug Catchers
    • Vortex Separators
      • Vortex Tube
      • Vortex Cluster
    • Extruded Outlet Headers
    • Pressure Vessels
    • Launchers & Receivers
    • Offshore Platform Equipment
  • Vision
    • Our History
    • Our People
    • Our Process
  • Resources
    • Technical Library
    • Brochures & Information
    • Project Highlights
  • Contact
    • Find a Sales Rep
    • Locations and Facilities
    • Careers
      • Apply Now
  • Request A Quote

Introduction to Cyclonic or Vortex Separation in Gas Processing

Learn More
Introduction to Cyclonic or Vortex Separation in Gas Processing

Why Vortex and Centrifugal Separators Save Money

Conventional separators use Stoke’s Law, K Factors, and “” based lowering annular and particle velocities to allow heaving liquid particles out of lighter gas streams. In contrast, vortex or cyclonic separation thrives off high velocities to induce tornadoes and g-forces to drive liquids out of the gas stream onto the wall of the internals. The tornado has a low-pressure internal core that holds the gas while the liquids travel out of the drains within the particular vessel configuration. The use of fixed internals with no filter or wire mesh internals, allows for no maintenance and continuous operation at a steady pressure drop. These factors combine to drive vessel size down from these other technologies, driving significant vessel and installation savings.

History

Vortex or cyclonic separation was originally developed to handle sediment in water and other low-pressure fluids to separate fine particles that would otherwise negatively impact treatment facilities and equipment.  As it was developed, it was found to be cost effective in a wide variety of applications. The first gas scrubbers were developed in 1972, and first vortex cluster was installed for ConocoPhillips at their refinery in Dubai, U.A.E, in order to stop foaming in a gas / oil separator.

The patented technologies became mainstream, its ability to quickly process gas vs residence time in standard vessels, became a popular solution for operators worldwide.

Applications

So, what are the best applications of vortex separators?  Originally designed for separating lube oil out of gas lines, vortex principles and technology have a wide variety of applications within the oil and gas industry.

Vortex Tube

Typically, applications are identified when they include any combination of high gas to liquid ratios, scrubbing applications similar to filter separators and coalescers, and large operational ranges.  While there are specific cases for bulk liquid and gas separation using vortex at mid-level efficiency, it is more likely to be used in cases where high efficiency fluid separation is needed.  For example, if hydrocarbons are being transported via pipeline to a processing plant, and liquids are to be separated from gases, a high efficiency vortex separation system is preferential to protect sensitive filtration and compression equipment downstream.  The vortex systems offered by Taylor Forge Engineered Systems reach efficiencies of 99.9% of solids ≥ 0.3 microns and 99.9% of free liquids ≥ 1-3 microns.

Vortex Cluster

Developed originally to combat foaming in process streams, the cluster design is adept at handling liquid and gas dominant streams at high flow rates. Perfect for slugging applications and surges, the cluster helps create a calm liquid interface reducing residence time and foaming compared to conventional separators. Utilizing the large cluster internals, these units are also capable of handling paraffins, waxes, and other solids that may arrive in the process stream. Offered in retrofit and new applications, a cluster design will save significant money over empty slug or inlet vessels with wire mesh or vane, while also achieving higher levels of separation, lower pressure drops, and less maintenance. The vortex systems offered by Taylor Forge Engineered Systems reach efficiencies of 99.9% of solids ≥ 0.3 microns and 99.9% of free liquids ≥ 1-10 microns.

Related Technical Articles

A Procurement Perspective: 5 Ways to Save Money Buying a Finger Type Slug Catcher

A Procurement Perspective: 5 Ways to Save Money Buying a Finger Type Slug Catcher

Read More
9 Design Considerations Engineers Should Use To Optimize Their Finger Type Slug Catcher

9 Design Considerations Engineers Should Use To Optimize Their Finger Type Slug Catcher

Read More
What is a Slug and Why do we Need Slug Catchers?

What is a Slug and Why do we Need Slug Catchers?

Read More
5 Project Metrics to Assess if you Need a Finger or Vessel Slug Catcher

5 Project Metrics to Assess if you Need a Finger or Vessel Slug Catcher

Read More
Separation Methods for a Harp or Finger Slug Catcher

Separation Methods for a Harp or Finger Slug Catcher

Read More
Balance and Distribution in a Finger Type Slug Catcher

Balance and Distribution in a Finger Type Slug Catcher

Read More
Introduction to Cyclonic or Vortex Separation in Gas Processing

Introduction to Cyclonic or Vortex Separation in Gas Processing

Read More
A Procurement Perspective: How to save money and time with vortex separation vessels

A Procurement Perspective: How to save money and time with vortex separation vessels

Read More
Vortex Tube Separation in Gas Processing

Vortex Tube Separation in Gas Processing

Read More
Vortex Cluster Separation in Gas Processing

Vortex Cluster Separation in Gas Processing

Read More
Extruded Header and Manifold Design Principles

Extruded Header and Manifold Design Principles

Read More
Manufacturing Process for Extruded Outlets in Gas Processing

Manufacturing Process for Extruded Outlets in Gas Processing

Read More
where-to-use-extrusions

What Makes an Extrusion Unique? Where Should You Use Extrusions?

Read More
pressure-vessels-asme-div-1-vs-2

ASME Section VIII Div 1 vs. Div 2 for Pressure Vessels

Read More
asme-d1vd2-quality-req.-header

ASME Div 1 vs. Div 2 Quality Requirements

Read More

Footer

Fueling the world
Defending our country
Exploring the universe

Contact Us

  • 208 N Iron St
    Paola, KS 66071
  • engineered@tfes.com
  • (913) 294-5331
  • LinkedIn
  • YouTube
  • Solutions
  • Slug Catchers
  • Vortex Separators
    • Vortex Tube
    • Vortex Cluster
  • Extruded Outlet Headers
  • Pressure Vessels
  • Launchers & Receivers
  • Offshore Platform Equipment
  • About Us
  • Our History
  • Our Process
  • Our People
  • Resources
  • Technical Library
  • Brochures & Information
  • Project Highlights
  • Careers
Taylor Forge Logo
  • Accessibility
  • Privacy Policy

Copyright © 2025 · Taylor Forge Engineered Systems, inc · Web Design KC Logo