It’s a Bird…It’s a Plane…It’s Additive Manufacturing!


There has been much written of late about the tremendous potential of additive manufacturing, which may radically alter the manufacturing landscape over the coming decades. While traditional manufacturing via subtractive processes depend upon the removal of material by methods such as cutting and drilling, additive manufacturing utilizes techniques such as 3D printing to create objects by laying down successive layers of material.

Many hobbyists and home enthusiasts have been happily getting into the act with increasingly inexpensive 3D printers from companies such as Makerbot which use plastic that is heated and rendered into any number of shapes and products. However, additive manufacturing is increasingly finding its way into commercial applications too. What does this mean for you? Well, one of the ramifications of additive manufacturing is that you can look forward to flying in the near future with the help of a jet engine made of components that were printed by an MEP client!

Morris Technologies and its sister company, Rapid Quality Manufacturing, are precision manufacturing firms that are based in Evendale, Ohio, a suburb of Cincinnati. According to their Web site, Morris Technologies has “pioneered the use of direct metal laser sintering (DMLS) to produce fully functional, complex metal parts straight from 3D CAD models.” Laser sintering is one of many additive manufacturing techniques used to produce parts (for more information on the various techniques, check out one of my prior blogs here), and offers the ability to heat powdered metals to create a wide range of parts, including components made from Ti64. This aerospace-grade titanium offers high mechanical properties, corrosion resistance, and low weight, and also lends itself to biomedical applications such as implants thanks to its biocompatibility.

Last week, GE Aviation acquired these two small manufacturers, which together employ about 130 in the Cincinnati area. GE expects to utilize their capacity to print components for the LEAP jet engine, which is slated to go into service in the next few years for short-haul airline use. In fact, over 4,000 of these engines, a joint venture between GE Aviation and Snecma of France, have already been ordered.

What does this have to do with MEP? Well, Morris Technologies is one of many Ohio small manufacturers that have been served by TechSolve, part of Ohio MEP.  Among other things, TechSolve has assisted Morris Technologies with a test plan for safe grinding guidelines and parameters for the super-finished cutting edge inserts to apply to titanium alloy parts that laser sintering techniques print. In other words, TechSolve has helped Morris with the process to finish the aerospace-grade titanium that is being printed via additive manufacturing, as such alloys are inherently difficult to machine.

It is worth noting that GE Aviation just happens to have a facility in Evendale, too. This is likely not a coincidence, as an article from the most recent issue of The Economist notes:

“The GE deal is further evidence for those who believe that product innovation will increasingly go hand-in-hand with manufacturing innovation. So proximity of production and R&D will matter more. With GE Aviation based just outside Cincinnati, the firms are almost neighbors.”

A press release from GE Aviation notes the links between geographic proximity, manufacturing, and innovation as well:  “Our ability to develop state of the art manufacturing processes for emerging materials and complex design geometry is critical to our future. We are so fortunate to have Morris Technologies and Rapid Quality Manufacturing just minutes from our headquarters. We know them well.”

So, keep your eyes on the skies, and you will soon see the handiwork of additive manufacturing streaking across the horizon! Do you have an additive manufacturing story or news to share? If so, drop me a line…

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  1. The next step in additive manufacturing is environmental responsibility and sustainability. The plastic used in additive manufacturing is petro-chemical based, adding to global pollution and global warming. The plastics used in 3D printers contain chemicals and heavy metals, potentially exposing children to potentially harmful toxins. 3D printers are making their way into homes and schools and will likely become a common household gadget. This manufacturing revolution can truly be revolutionary if new, safer materials replace the petro-plastics used in the process. Developing biodegradable materials and bio-based plastics for additive manufacturing is an opportunity for manufacturing to lead the way in the bioeconomy and be part of the solution, not the problem.

  2. Janet,
    Thanks for your insightful comments. I very much agree that additive manufacturing offers great potential for environmentally responsible and sustainable manufacturing. In addition to the opportunity to develop and utilize sustainable and Earth/human-friendly materials in the AM process, I can think of a few other dimensions by which sustainability and AM can leverage each other as well:

    1 – Taking a step back, the AM process is inherently less wasteful than subtractive manufacturing in the utilization of materials and elimination of material waste. One might argue that AM is the ultimate Lean Manufacturing technology!

    2 – AM offers great potential for use of readily available waste materials in developing nations in lieu of materials that are better left conserved or not used at all in the manufacturing process. The following link to an article from The Economist notes this potential:

  3. Pingback: Enterprise Minnesota Helps RedEye Put 3D Printing In The Sky - Manufacturing Innovation Blog

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