ONA EDM ads

VISIT US! Some things you have to see for yourself. A machine specification can tell you: How many axes it has. How large a workpiece it can accommodate. What tolerances it can achieve. But it won't tell you the whole story... Like why you'd build a machine with two EDM heads instead of one. Or what it takes to cut through a 1-metre-high workpiece using wire EDM. 👀 That's where things get really interesting. If you're working on challenging #turbine components, I'd be happy to welcome you to ONA, show you what we've developed and explore what might be possible for your own #applications. After all, some things are better understood in person. Request a technical visit: https://visit.onaedm.com/

Some of the most complex EDM solutions in the world start here. Machines. Technology. Engineering expertise. Want to see it for yourself? https://lnkd.in/gMtw9Y2H

Some of the most complex EDM challenges in the world are solved in this place. + 15,000 machines installed worldwide + 70+ years focused on EDM + One of the most complete EDM portfolios in the industry This is where advanced EDM technology becomes real manufacturing solutions. Want to see how it happens? 🏭 Request a visit here: https://lnkd.in/gMtw9Y2H

3D printing can build parts no standard conventional cutting tool could ever reach in case post-machining is needed. That's the silent problem of additive manufacturing in turbine components: Printed combustor and turbine components might give you one-part injector, cooling cavities and airflow geometries that improve efficiency and protect the part under extreme heat. But the internal cavities and functional features still need post-processing to achieve the desired tolerances. Internal cavities can't be easily milled or drilled. We worked with a leading global gas turbine OEM on exactly this challenge. The result was machine availability up to 98%. Additive manufacturing gets the headlines. But post-processing is what actually makes it production-ready. Comment NOZZLE and I'll send it to you👇

For years, broaching has been considered the standard for manufacturing turbine disc fir tree profiles. And honestly, for a long time, that made perfect sense. But EDM technology has evolved. A LOT. New digital generators are significantly improving: • Material removal rates • Surface quality • Process stability To the point where wire EDM is now becoming a real alternative for certain turbine disc applications. BROACHING: • Every geometry change may require a new tool • Tool manufacturing can take months • Iterations become expensive • Flexibility is limited • Prototyping is slow EDM: • Geometry adjustments are made directly through programming • No dedicated broaching tool is needed • Faster iterations and prototyping • Greater flexibility for complex profiles • High surface quality thanks to new digital generators • Machine autonomy and unattended process That changes the equation for aerospace manufacturers working with increasingly demanding turbine components. Especially when timelines are tight, geometries evolve fast, and precision is non-negotiable. Which, btw, is almost always the case. I think aerospace manufacturers have already chosen EDM Explore ONA turbine EDM solutions: https://lnkd.in/eCrR3qEy

Bevor Sie eine EDM-Maschine kaufen, wollen Sie Antworten. Bei ONA bekommen Sie mehr als das: ✅ Simulationen. ✅ Echte Teiltests. ✅ Technische Validierung. Wir verkaufen nicht nur EDM-Maschinen. Wir beweisen, dass Ihre Herausforderung gelöst werden kann. 👉 Möchten Sie Ihre beweisen? > https://lnkd.in/gt8d-ef7