Login für Abonnenten

Please log in to read subscribed content.




  • Content
  • Events Calendar
  • Editorial team
  • Subscription
  • Media
  • Newsletter
wire
wire
  • Reports
  • Business
  • Research + Development
  • Products
  • Whitepaper
  • Call umformtechnik.net
  • Issues digital
search.box
  • Content
    • Reports
    • Business
    • Research + Development
    • Products
    • Whitepaper
    • Call umformtechnik.net
    • Issues digital
  • Events Calendar
  • Editorial team
  • Subscription
  • Media
  • Newsletter

24/06/2024 – Cable manufacturing / simulation

Cable analysis using 3D modeling and simulation technology

NKT in Sweden uses numerical modeling to investigate electromagnetic fields and calculate armor losses in 3D cable designs. The modeling results were validated with experimental measurements in order to be able to carry out design analyses with the aid of simulations.

Next image
Cable-simulation.png

Fig. 1: A 3D cable modeled in the Comsol “Multiphysics” simulation software. © Comsol

 
Cable-simulation.png

Fig. 1: A 3D cable modeled in the Comsol “Multiphysics” simulation software. © Comsol

 
Cable-simulation.png

Fig. 2: The geometry of the 3D magnetic flux in the air gap between the conductors in the armored cable model. © Comsol

 
Cable-simulation.png

Fig. 2: The geometry of the 3D magnetic flux in the air gap between the conductors in the armored cable model. © Comsol

 
Cable-simulation.png

Fig. 3: Magnetic properties of the cable, calculated from the hysteresis curves. © Comsol

 
Cable-simulation.png

Fig. 4: Validated results, clockwise from top left: IEC, measured and modeled losses in five cable designs; measured and modeled shield currents; IEC, measured and modeled values of ?1; and IEC, measured and modeled values of ?2. © Comsol

 
Cable-simulation.png

Fig. 4: Validated results, clockwise from top left: IEC, measured and modeled losses in five cable designs; measured and modeled shield currents; IEC, measured and modeled values of ?1; and IEC, measured and modeled values of ?2. © Comsol

 
Cable-simulation.png

Fig. 4: Validated results, clockwise from top left: IEC, measured and modeled losses in five cable designs; measured and modeled shield currents; IEC, measured and modeled values of ?1; and IEC, measured and modeled values of ?2. © Comsol

 
Cable-simulation.png

Fig. 4: Validated results, clockwise from top left: IEC, measured and modeled losses in five cable designs; measured and modeled shield currents; IEC, measured and modeled values of ?1; and IEC, measured and modeled values of ?2. © Comsol

 
Back to article

Further articles for:

  • cable manufacture
  • simulation

Comsol Multiphysics GmbH

  Show company
  • Most read
  • Latest

04/08/2025

Additional 8,000sqft of space and nearly £100,000 on new technology

AWI expands into additional units

By  Jörg Dambock

25/09/2025

Wire processing

Advanced CNC wire forming and tube bending solutions

By  Jörg Dambock

14/11/2025

Steel cable stranding equipment

The future of stranding is here

By  Jörg Dambock

20/11/2025

“DLN 10” put to the test in reeal production conditions

Accuracy and defect detection

By  Jörg Dambock

24/11/2025

On our own account - WIRE

Review of the industry - week 47/2025

By  Daniel Keienburg

28/11/2025

Blasting

Keeping wire conform extrusion dies in peak condition with wet blasting

By  Jörg Dambock

24/11/2025

On our own account - WIRE

Review of the industry - week 47/2025

By  Daniel Keienburg

20/11/2025

“DLN 10” put to the test in reeal production conditions

Accuracy and defect detection

By  Jörg Dambock

19/11/2025

Strategic move strengthens Elkabel’s vision for a smarter, data-driven manufacturing future

Elkabel accelerates digital transformation

By  Jörg Dambock

18/11/2025

On our own account - WIRE

Review of the industry - week 46/2025

By  Daniel Keienburg

  • Meisenbach Verlag
  • Imprint
  • Data Privacy
  • Media
  • Twitter
  • RSS Feed
Meisenbach Logo