Brian McLaughlin explains how ALM Orthos uses 3D titanium lattice structures with specific pore sizes to let skin grow over implants, solving a major problem in osteogenesis imperfecta treatment. He calls electron-beam melting and laser powder-bed fusion "night and day" different, and says combining both methods puts ALM Orthos ahead of competitors.
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but we have data in hand showing, you know, 3D titanium, you know, lattice structures of a certain type at a certain pore size, you know, using a certain technology flows the skin. Right. And that's very exciting. And I think that's really where we're going with this, you know, but the sky's the limit with regards to really, I think what we're doing here with regards to that application, with regards to the right technology. And listen, for those of you who know me on this call, you know, you know, I'm a proponent for electron beam melting. You know, I have been for many years. But it's interesting when you have both technologies and you have them in your hands, you know, we've had EOS, you know, and we've operated that at the same time as right side by side with, with, you know, electron beam melting. I mean, it's, it's night and day at the end of the day, you know, that's, that's really where we're, we're coming from. So when we say we're pretty far ahead of the competition, we're pretty far ahead of the competition with regards to technology within orthopedics. Thank you.