• Skip to primary navigation
  • Skip to main content
  • Skip to primary sidebar
  • Skip to footer
  • Advertise
  • Subscribe

Pneumatic Tips

Tips, Trends, Resources, News and Information

  • Blog
  • Industry News
  • Air Preparation
  • Engineering Basics
  • Components
    • Actuators
    • Cylinders
    • Fittings
    • Gears
    • Grippers
    • Pumps
    • Air Compressors
    • Tubing
    • Vacuums
    • Valves
  • Pressure Sensing
  • Design Guide Library
  • Classrooms
    • Pneumatics Classroom
You are here: Home / Air Preparation / How do you control compressed air flows?

How do you control compressed air flows?

June 13, 2019 By Paul Heney

Share
This ring blower has been operating continuously since the early 1980s.

The load on any compressed air system — and the flow that must be produced to maintain pressure — contributes to the cost of operation.  A good strategy to follow in trying to reduce compressed air costs is to examine the end users of the system and determine if they are classed as “appropriate” or “inappropriate.”

An inappropriate compressed air use could be one that uses too much compressed air, or could best be supplied with energy from some other source. This usually involves lower cost drivers like hydraulic, direct drive electrical, or low pressure supply. Why not use compressed air?  Because compressed air energy costs at least 8 times as much as, say, a direct drive motor.  It’s a matter of economics.

Uncontrolled blowing with compressed air is a common inappropriate use. These types of uses may be inappropriate because they may be using more compressed air than required due to:

  • Poor design of the nozzle,
  • Nozzle erosion due to age,
  • Use of unregulated high pressure air,
  • Continuous blow even when not required
  • Use of blowing when low pressure is available

The nozzle in the photograph above right is a poorly homemade unit that has been damaged by corrosion and runs 24 x 7 — consuming 32 cfm and costing $5,600 per year in compressed air costs! Similar nozzles are available that would consume about 10 cfm. The 10 cfm could be reduced to 8 cfm if the pressure was regulated to the nozzle. And this nozzle is not required to blow when the production line is not running, estimated at about 40% of the time.

Potential savings in addressing these deficiencies are 85%, worth $4,760 in operating costs per year. There are six similar nozzles in the plant with a potential of $28,500 — about 25% of the total compressed air costs in the plant.

This represents a significant savings for the owner of the nozzles. How much could you save? It may be time to examine your blowing devices in your plant!

 

 

Filed Under: Air Preparation

Primary Sidebar

Fluid Power World Digital Edition

Fluid Power World Digital EditionBrowse the most current issue of Fluid Power World and back issues in an easy to use high quality format. Bookmark, share and interact with the leading design engineering magazine today.

RSS Featured White Papers

  • eBook: Practical Guide to Pneumatics
  • Saving energy and service cost with electric linear systems
  • White Paper-How to Design Efficient Pneumatic Systems!

Fluid Power Design Guides

fluid
“pt
EXPAND YOUR KNOWLEDGE AND STAY CONNECTED
Get the latest info on technologies, tools and strategies for Fluid Power Professionals.
Hose Assembly Tips

Footer

Pneumatic Tips

Fluid Power World Network

  • Fluid Power World
  • Hose Assembly Tips
  • Mobile Hydraulic Tips
  • Sealing and Contamination Tips
  • Fluid Power Distributor Lookup

PNEUMATIC TIPS

  • Subscribe to our newsletter
  • Advertise with us
  • Contact us
  • About us

Copyright © 2025 · WTWH Media LLC and its licensors. All rights reserved.
The material on this site may not be reproduced, distributed, transmitted, cached or otherwise used, except with the prior written permission of WTWH Media.

Privacy Policy