CREATE
  • Technology
    • BIOTECH
    • COMMUNICATIONS
    • COMPUTING
    • IMAGING
    • MATERIALS
    • ROBOTICS
    • SOFTWARE
  • Industry
    • DEFENCE
    • INFRASTRUCTURE
    • INNOVATION
    • MANUFACTURING
    • POLICY
    • PROJECTS
    • TRANSPORT
  • Sustainability
    • ENERGY
    • ENVIRONMENT
    • RESOURCES
  • Community
    • CULTURE
    • PEOPLE
  • Career
    • EDUCATION
    • INSPIRATION
    • LEADERSHIP
    • TRENDS
  • About
    • CONTACT
    • SUBSCRIBE
No Result
View All Result
CREATE
  • Technology
    • BIOTECH
    • COMMUNICATIONS
    • COMPUTING
    • IMAGING
    • MATERIALS
    • ROBOTICS
    • SOFTWARE
  • Industry
    • DEFENCE
    • INFRASTRUCTURE
    • INNOVATION
    • MANUFACTURING
    • POLICY
    • PROJECTS
    • TRANSPORT
  • Sustainability
    • ENERGY
    • ENVIRONMENT
    • RESOURCES
  • Community
    • CULTURE
    • PEOPLE
  • Career
    • EDUCATION
    • INSPIRATION
    • LEADERSHIP
    • TRENDS
  • About
    • CONTACT
    • SUBSCRIBE
No Result
View All Result
CREATE
No Result
View All Result
Home Industry Manufacturing

Here’s how reverse engineering could help address global supply chain fragility

Elle Hardy by Elle Hardy
2 June 2020
in Manufacturing
2 min read
1
A member of the Leussink team working on reverse engineering a part.

A member of the Leussink team working on reverse engineering a part.

With the COVID-19 pandemic continuing to have knock-on effects on industries around the world, one Australian engineering firm says it has the answer to parts shortages.

Reverse engineering is the reproduction of a product or part that cannot be obtained by other means. It involves measuring an object and reconstructing it as a 3D-model in computer-aided design (CAD) software, then manufacturing the part. 

Jason Leussink, Managing Director of Illawarra-based engineering firm Leussink, said his company first got involved in the process when the local steel mill was facing delays of weeks, if not months, for component parts that wear out over time.

“Reverse engineering can apply to any sized part, it doesn’t really matter,” he said.

“We can run finite analysis on a product to see if we can improve it by making it stronger or more wear resistant. Using CAD technologies, we can apply it to any size or shape product, from something as small as a coin to as large as a building.”

Jason Leussink.
Jason Leussink.

A simple reverse engineering process might involve manual measurement and data collection of a physical model’s dimensions, using hand tools such as micrometers, Vernier calipers and gauges.

“For more complex items we have technologies such as articulated measuring arms, which can measure a component while it is in service,” Leussink said. 

“We distribute the Tomelleri Space Arm, which measures the geometry of physical objects by sensing discrete points on the surface of the object with a probe.”

The firm uses either touch probing or 3D scanning, which runs a laser beam over the product. By transferring the product dimensions to software, it not only reduces the risk of measurement errors, but significantly reduces the time required for the overall reverse engineering effort. 

“Reverse engineering is particularly applicable where there are machines that can run 24/7 for months on end, repeating the same process over and over again,” Leussink said.

“This type of high use means parts and accessories will need to be replaced regularly, and in some cases major components as well.”

“Reverse engineering is particularly applicable where there are machines that run 24/7 for months on end, repeating the same process over and over again.”
Jason Leussink

In terms of intellectual property, Leussink said the team always needs to research to ensure they are not infringing on any patents before reverse engineering a product.

“You don’t go and manufacture a whole system. It’s generally just a component which is on that particular system, such as simple bolts, shafts or pins – common items that don’t have any intellectual property restrictions.”

In the past, Leussink said that reverse engineering has largely been used for long-life machinery, where the parts are no longer being manufactured. 

But with the COVID-19 pandemic now disrupting the global manufacturing supply chain, he predicts reverse engineering will be in demand for a wide variety of products and industries.

“Companies in Australia have relied heavily on overseas manufacturing,” he said.

“In the past it might have been a cheaper and faster solution to have [a part] made in China, but now it may be more cost effective to do the reverse engineering where you are, and have it manufactured locally.”

Tags: COVID-19pandemicreverse engineering
Previous Post

“In This Together”: What engineering can do to be more inclusive of Indigenous people

Next Post

The engineering student bringing affordable robotics kits to schools

Elle Hardy

Elle Hardy

Elle is a freelance journalist. She has written for industry publications including the Australian Water Association's Current magazine, Mercer Magazine and BPay Banter.

Next Post
A STEAM City design engineered by students.

The engineering student bringing affordable robotics kits to schools

Comments 1

  1. Simon Broner says:
    5 years ago

    Interesting point re intellectual property at the end. From my experience, this should almost be the first question asked before starting any reverse engineering type activity.

    Reply

Leave a Reply Cancel reply

Your email address will not be published. Required fields are marked *

    WANT CREATE DELIVERED DIRECT TO YOUR INBOX? SUBSCRIBE TO OUR NEWSLETTER.

    By subscribing to create you are also subscribing to Engineers Australia content. Please find our Terms and conditions here

    create is brought to you by Engineers Australia, Australia's national body for engineers and the voice of more than 120,000 members. Backing today's problem-solvers so they can shape a better tomorrow.
    • ABOUT US
    • CONTACT US
    • SITEMAP
    • PRIVACY POLICY
    • TERMS
    • SUBSCRIBE

    © 2024 Engineers Australia

    No Result
    View All Result
    • Technology
      • BIOTECH
      • COMMUNICATIONS
      • COMPUTING
      • IMAGING
      • MATERIALS
      • ROBOTICS
      • SOFTWARE
    • Industry
      • DEFENCE
      • INFRASTRUCTURE
      • INNOVATION
      • MANUFACTURING
      • POLICY
      • PROJECTS
      • TRANSPORT
    • Sustainability
      • ENERGY
      • ENVIRONMENT
      • RESOURCES
    • Community
      • CULTURE
      • PEOPLE
    • Career
      • EDUCATION
      • INSPIRATION
      • LEADERSHIP
      • TRENDS
    • About
      • CONTACT
      • SUBSCRIBE
    preload imagepreload image