What do you think?
Amazing Printer?
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They're fun. Greatest thing in the world for rapid prototyping.
Last one I had access to was too small for what I wanted to do with it though... We'll see what/if MTU has at their disposal.
I have a few E30 things in mind for it, ready to go ;)Comment
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Those things are great. Made a badass intake manifold for an F4i with one of those.Comment
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He hardly twisted that nut at all... Anyone know how strong this stuff actually is? Or how heavy?What it feels like owning an e30:
88 325 S50 swap in progress
90 325ix
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Depends on what type you go with. There's:
The powder you saw in the video above. Lots of different types, but when infused with resin it's actually really strong
Fused deposition. Basically printed plastic. Solid or honeycomb.
Stereo-lithography. A resin that is exposed to UV light to harden it in layers.
Selective laser sintering. Melting powder together with fuckin lasers. You can even do metals with this. Titanium, Steel, Aluminum, Alloys... Typically much stronger than cast parts, as there's no unequal cooling, contraction and expansion, and surface defects. Very intense stuff.Comment
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What it feels like owning an e30:
88 325 S50 swap in progress
90 325ix
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Associates of Applied Science in Electromechanical technology. Robotics, PLC's, Industrial automation and automation processes, basic electrical and mechanical engineering and computer programming. Continuing at Michigan Tech for a Bachelors in Applied Science for Electrical Engineering Tech this fall. While in my last school I took a hard liking to Kuka robotics and KRL language, Allen Bradley PLC's, And Mach 3 powering home/custom built/upgraded CNC machines.
And a lot of experience in mechanical engineering. Just no real tangible proof of it.
As it stands, here's a pretty basic rundown of my degree and what can be expected of me.
Last edited by TurboJake; 05-28-2012, 07:11 PM.Comment
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Selective laser sintering. Melting powder together with fuckin lasers. You can even do metals with this. Titanium, Steel, Aluminum, Alloys... Typically much stronger than cast parts, as there's no unequal cooling, contraction and expansion, and surface defects. Very intense stuff.
SLS allows for a use of a huge range of materials and composites that posses very impressive qualities. For example Carbon infused Nylon (NyTek 1200CF), possesses equal or higher tensile strength than steel, however is 65% lighter! It also has a much higher Thermal resistance. Materials such as this have already seen use in mass production, infact Boeing have been known to use SLS parts in the manufacture of their aircraft for some years now. I also recall one of the polyamides being used for a SLS Intake manifold that was used on a WRC rally car. Pretty cool stuff..
The great thing about SLS is that the only limitation as to what you can print, is the size of the print bed, it is the most effective way to rapid prototype parts with complicated undercuts and cavities due to its powder support material that can easily be brushed off. Even More impressively, more than 50% of the support material can be reused..
My Honours year Industrial Design project proposed SLS as a key manufacturing process for my 'near future' Rocker motorcycle concept..
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