Latest / Zero Shot Podcast DEMO / Innovating Wolverine Claws: The Journey of Smart Materials V2
Transcript
- 0:00speakers: In this conversation, the interview explores the creation of Wolverine claws using smart materials that can self-heal. That opening sets the stakes we'll follow.
- 0:11Interviewer: Did you know Wolverine's my favorite superhero?
- 0:14In fact, Wolverine Claws was my very first make it real project back in 2009.
- 0:19Who would have thought such a simple project would lead to all of this?
- 0:22Anyways, those Wolverine Claws projects were a lot of fun, but they always missed that one little thing.
- 0:27His ability to self -heal.
- 0:29I could have really used that this summer when I broke my hand.
- 0:32But I do have titanium in my hand now, which makes me one step closer to being Wolverine.
- 0:38Let's take a look at the claws that I've made over the years.
- 0:40The very first ones that I made back in 2009 when I was working for a machine shop were water jet cut and then CNC machined into these crazy
- 0:4812 inch long Wolverine Claws, which we've used for tons of different projects.
- 0:53We've even run electricity through them.
- 0:54You can see they're actually all arced up.
- 0:56We made them spark.
- 0:57All kinds of fun stuff.
- 0:59And then last summer, I had a lot of fun with these bone claws that we made.
- 1:03Now, they are metal, not bone.
- 1:05But to be honest, I'm quite surprised
- 1:07speakers: On the journey of creating Wolverine claws, what challenges did you face?
- 1:11Interviewer: Hey, hey there.
- 1:12Deadpool here.
- 1:14Don't you just love this?
- 1:16Seeing them work together?
- 1:18I do.
- 1:19I love how creative he gets.
- 1:21Just love seeing him on camera when he can get out here.
- 1:25It's good.
- 1:26I think what he's working on is Hugh Jackman related.
- 1:31Not a big fan of that, but that's okay.
- 1:34I'm just happy to see that he's working with his hands again.
- 1:38Ain't that great.
- 1:39Alright.
- 1:39We're gonna go back to watch it.
- 1:42We're going.
- 1:42Now we can bend stainless back into shape, but it gets weaker every time.
- 1:46So we're gonna need something better than stainless steel.
- 1:48Some sort of smart alloy, perhaps?
- 1:51speakers: Let's dive into the technology behind smart materials.
- 1:54So I'm here with Mike from Smarter Alloys.
- 1:56Mike, what constitutes a smart material?
- 1:59Smart materials are any material that reacts to external stimuli, such as temperature change or magnetism.
- 2:04Smarter Alloys, we deal with shape memory alloys.
- 2:06Those are materials which you can bend in a form, and when you apply heat, they return to the original shape.
- 2:11The most common of those materials is called nitinol.
- 2:13What are some actual commercial applications of nitinol?
- 2:16Well, nitinol was first developed in the 1960s, and it was first adopted by the medical device industry.
- 2:22It was a great application of material, and it found its way into things like stents and guide wires.
- 2:28Today, we use it for things like orthodontic arch wires for people getting braces.
- 2:33Also, we use it for bone staples, for people that have a broken bone and need the healing tower of nitinol to pull the bone together and hold it together
- 2:40so it can remodel the bone and heal.
- 2:43So we're talking the actual just warmth of the human body, basically?
- 2:47Right.
- 2:47Yeah, yeah.
- 2:47Body temperature is what applies to heat.
- 2:50Yep.
- 2:51Yep.
- 2:51That's awesome.
- 2:52We also do endodontic files.
- 2:54So this is a little drill that if you get a root canal, this actually goes into the crown of your tooth, all the way down to the root and the apex
- 3:02of the root.
- 3:03So as you know, on our YouTube channel, we have a series called Make It Real.
- 3:06Is it possible to make a pair of Wolverine claws that after sustaining damage and being bent could heal themselves?
- 3:13So you want to make claws that deform and then heal themselves and go back to the original shape?
- 3:18Exactly.
- 3:18That sounds awesome.
- 3:20Let's go do it.
- 3:21All right.
- 3:22So this is nitinol.
- 3:26So this is an ingot of the base material.
- 3:28Right.
- 3:29So that's the way it comes from the foundry.
- 3:30They melt the material into an ingot.
- 3:32What we're going to do is we're going to take that ingot and we're going to mash it down and roll it into sheet form.
- 3:37So we're going to end up with this.
- 3:39And this is what we're going to cut your claws from.
- 3:41So what we're going to do is we're going to throw this on our EDM and we're going to cut it out using Electron Disarch Machining and get your shape.
- 3:48Awesome.
- 4:00With comes foundry established, what changed?
- 4:02Huh.
- 4:08Do you think it will return? This excitement about the claw returning leads us to the next step in our exploration.
- 4:15what do you think?
- 4:16Is it going to return?
- 4:30Alright.
- 4:31Perfectly flat.
- 4:33That is cool.
- 4:34Why don't you take that back to the shop, James?
- 4:36And we'll get started in the other five.
- 4:37Sounds good.
- 4:38It's nice to meet you.
- 4:39Nice to meet you.
- 4:44Alright, so we've brought the claw back to the shop, and now it's time to test it.
- 4:48Now, this type of nitinol has about 10 % deformation before it loses its ability to return to its original state.
- 4:56They actually hooked us up with a SolidWorks model demonstrating 10 % deformation.
- 4:59But the real question is, does that work in real life?
- 5:03Let's find out.
- 5:08That's pretty bent.
- 5:09So now we just have to apply heat to have this return to its original state.
- 5:13And to do that, I'll be using our Hacksmith mini -saver.
- 5:16Let's see what happens.
- 5:19Ha ha ha.
- 5:23That is so cool.
- 5:26Look at that.
- 5:28This Bill Nye mother is educating the next generation of STEM.
- 5:34Love that.
- 5:36Alright, let's try a more complicated event.
- 5:39As we prepare for assembly, what should we expect?
- 5:42All right.
- 5:44There's one shinier claw.
- 5:48Now I just have to do five more.
- 5:51You can come back later.
- 5:53All right.
- 5:53So I've got three polished up, which means it's time to connect them together so I can actually wear them like Wolverine's claws because just holding them between your
- 6:01fingers doesn't really work that well.
- 6:06So what we need to do is we need to cut some bars to go through these holes, and then we need to cut some plates so we can splay the claws just like Wolverine.
- 6:13Let's see how the claws hold up under pressure.
- 6:16That is incredible.
- 6:19All right.
- 6:20We got the rest of the claws in from Smarter Alloys, and they look great.
- 6:24Now, before
- 6:26Wolverine's claws were this conversation's first project in 2009. Nitinol is a shape memory alloy that returns to its original shape when heated.
- 6:35All right.
- 6:36That is pretty bent up.
- 6:39Let's see if it works.
- 6:41That that we've polished them, how do they look?
- 6:44All right.
- 6:46All right.
- 6:51All right.
- 6:52We've got all the pieces, so now time to assemble.
- 6:55We're good to go.
- 7:10As we assemble, what should we keep in mind?
- 7:13It's pumpkin time.
- 7:16This conversation comments on the physical toll of using the claws. What should we listen for as this continues?
- 7:23Oh, that stabbings makes you tired.
- 7:27As we wrap up, what are your final thoughts?
- 7:29My claws!
- 7:31Well, good thing they're self -healing.
- 7:36All right, these are freaking awesome.
- 7:38Wolverine's self -healing claws.
- 7:40Huge thank you to Smarter Alloys for helping us make these claws.
- 7:43We've got some other projects planned with them in the future, so make sure you subscribe and hit that like button.
- 7:48You're not a member yet?
- 7:49Well, you could become one today.
- 7:50And if you don't, I'll find your house, hunt you down, and gut you like a f***.