Mark Albert is editor-in-chief of Modern Machine Shop Magazine, a position he has held since July 2000. He was associate editor and then executive editor of the magazine in prior years. Mark has been writing about metalworking for more than 30 years. Currently, his favorite topics are lean manufacturing and global competitiveness. Mark’s editorial activities have taken him to numerous countries in Europe and Asia as well as across the United States many times. He is a graduate of the University of Cincinnati (Cincinnati, Ohio) and Indiana University (Bloomington, Indiana).
Proficient use of 3D design software from Autodesk distinguishes ITAMCO as a gear manufacturer.
Once a year, members from the Autodesk Manufacturing Community choose among the past year's monthly “Inventing the Future” honorees to select an Autodesk Inventor of the Year. The 2014 winner was recently announced and it is ITAMCO, a custom gear manufacturer based in Plymouth, Indiana.
ITAMCO delivers precision-machined components to original equipment manufacturers in a wide range of industries, including oil and gas and renewable energy; mining and construction; aerospace; and defense. Autodesk Inventor 3D design software, as part of Autodesk Product Design Suite and Autodesk Factory Design Suite, are among the tools ITAMCO leverages to serve its customers more effectively.
It's great to see a precision machining company receive this honor because it highlights the strength of this industry and the importance of the advanced metalworking technology in place there. Although precision gear manufacturing may not have much glamour among the general public, ITAMCO’s products have been used in a number of high-profile applications. NASA has chosen the company’s gears for the mechanical arm that built the international space station. The Department of Defense has used ITAMCO’s gears on its land-based satellite systems.
More recently, the company designed, manufactured and assembled a new gearbox for construction vehicles in record time by using Inventor and Autodesk Inventor HSM Pro. The software enabled ITAMCO to verify the assembly virtually for any interference issues prior to manufacturing and to utilize the advanced computer-aided manufacturing (CAM) capabilities within Inventor HSM Pro for machining the components.
It is also worth noting that ITAMCO’s operations have been enhanced by Factory Design Suite, which enables users to optimize a factory layout in a digital environment before it is completed. The company uses this software to lay out new machining cells and determine the placement of equipment to make sure the plant meets industry standards of organization and efficiency across the factory floor.
Watch this video for a demo of the hand scraping process, and find a link below to a white paper on the topic.
Hand scraping of mating surfaces on a machine tool enables the surfaces to be flatter, more accurately aligned, longer wearing and freer to glide across one another. No automated or mechanical operation can match these benefits. Machine builder Okuma has issued a white paper detailing the benefits of hand scraping, at technique it applies to all of its machines.
The company contends that hand scraping maintains high levels of CNC machining accuracy and reduces wear and tear, resulting in a long, stable and productive life for the machine. This manual process ensures that tight tolerances are consistently maintained and that precision CNC machining performance is sustained for years, therefore yielding the lowest cost-per-part, the company says.
In a nutshell, the hand-scraping difference accounts for four main benefits.
Accuracy - Scraping is done to align components within millionths of an inch, allowing for consistently-held, tight tolerances.
Flatness - Contact points prevent rocking, add balance when tightening, and allow for true flatness in parts.
Oil Pockets - Oil on the surface allows gliding motion.
Appearance - The finishing touch of scraping is aesthetic. Parts are “design scraped” to achieve an attractive textured finish.
To download a copy of the white paper, click here.
NPE2015: the International Plastics Showcase happens March 23-27, 2015, in Orlando. Be sure to check out the technical presentations sponsored by Plastics Technology at the magazine’s Knowledge Network at Booth 2602 in the West Hall.
Many of the topics are hard-core stuff for people in the plastics industry, but others appeal to the broader interest of managers in manufacturing. These include developing a skilled workforce, additive manufacturing, moldmaking and reshoring. For the complete line-up, click here.
A visit there is also an opportunity to get complementary drink tickets, a cool T-shirt and chances to win big prizes. Registering in advance is encouraged and it’s easy. Get the details here.
Attendees at the recent MFG Meeting in Orlando had an opportunity to immerse themselves in the most important aspects of innovation as force for revitalizing the manufacturing industry.
Here are a few of the insights offered by the speakers and panelists at this event.
George Blankenship, former executive of Tesla Motors, Apple Computers and Gap Inc., make the point that innovative products succeed only if potential buyers and customers are engaged in a way that connects their core interests and values with the core features and benefits that differentiate a new product.
Talking about the Internet of Things, Rob Gremley, executive VP, Internet of Things and Service Lifecycle Management at PTC, emphasized that connected devices (which interact with everyone and everything across a global network) impose new models for how manufacturers create, operate and service them. Service (how these products sustain and renew their value to users) will require the boldest new thinking, he says.
Innovation, the drive to invent the new (new products, new methods, new ideas, new customer experiences) can be a powerful force. It saved LEGO, the global company known for its interlocking toy "bricks"). However, as David Robertson, Wharton School of Business, demonstrated, this force must be pointed toward a clear goal and led by managers guided by a clear vision.
The icon for innovation in manufacturing these days is 3D printing. A panel of experts put this development into perspective. Its power to complement and enhance conventional machining methods represents its greatest impact on manufacturing, rather than the likelihood that it will displace subtractive machining on a wholesale basis. Everyone is still learning what additive can and cannot do.
At the event, Hybrid Technologies Ltd. received the inaugural International Additive Manufacturing Award. Dr. Jason Jones, co-founder and CEO of Hybrid Technologies, accepted the award on the company’s behalf. In his comments, he related his experiences in the years-long effort to develop a practical method to combine laser metal cladding with CNC machining on the same platform. He said that the success of his company rested on bold new thinking for sure, but that persistence, patience, good luck and the ability to turn adversity into opportunity were equally important. Creativity, not knowledge, will distinguish the true innovators in this era, he said.
John B. Rogers Jr., cofounder and CEO of Local Motors (the company's Strati is touted as the world's first 3D printed car) said that manufacturing will look more personal—customers will have direct input on the making of the products they intend to buy. The real drags on innovation are not technical challenges, he said, but rather entrenched bureaucracies, closed-minded regulators and old-guard manufacturers protecting what they consider their turf.
Finally, some attendees took the opportunity to be immersed in innovation quite literally. As a novel fundraiser, a number of members of the Precision Metalforming Association, jumped into the hotel’s pool in their formal wear following the gala dinner on the list night of the event. They, and their wet tuxedos, were raising funds for the association’s PAC efforts.
Hosted by AMT—The Association for Manufacturing Technology, National Tooling & Manufacturing Association and Precision Metalforming Association, The MFG Meeting brings together the complete chain of manufacturing to discuss the current and future state of the manufacturing industry.
For multi-axis machining, a good workholding fixture gets the part away from the worktable surface, yet holds the part securely for aggressive machining. This video shows a dovetail pedestal doing this job.
Note the extra “elbow room” the spindle head needs to access five sides of this workpiece. The video is also a good example of 3+2 machining, which is one of the most valuable options for a machine with full five-axis capability. In this case, the machine is a DMG MORI DMU 50 five-axis machining center under power at Boldt Machinery Inc. in Erie, Pennsylvania, for a recent customer demo event highlighting 3+2 machining.
You don’t need to watch the entire video (it’s 10 minutes long). Sampling different segments, however, reveals a variety of operations, mostly with short, stout cutting tools that make 3+2 machining an advantageous option.
What the video does not show is the new triangular geometry incorporated into the dovetail clamping surfaces of this pedestal fixture. You can get that story here. The new fixturing system is from AMT Innovations of Orchard Park, New York.
In addition, examples of using multiple pedestal fixtures to hold large parts can be seen here. Of course, the applications shown are useful for thinking about the flexibility of pedestal workholding fixtures in general.