Subheader Icon 877-412-3651
Request a quote
Article The Avalon 2019 Innovation Award Goes to a Cutting Tool Image

Jimmy Toton, a Ph.D. candidate at the RMIT University in Melbourne, has won this year’s “Young Defence Innovator Award” along with the $15000 money prize that accompanies it. The young engineer has presented a novel 3-D printed steel cutting tool that convinced the judges of its performance by cutting through titanium alloys in a manner that is in many cases considered to be better than the conventional tools used in the field right now. This is very important because many industries, the Defence sector, and companies that develop aerospace solutions all use superalloys and tough metals that are extremely resistive to cutting.

Toton’s 3-D printed milling cutter not only makes the cutting of strong alloys easier and quicker, but it’s also much cheaper to make compared to the cost of conventional tools. In machining, improving productivity while reducing the cost is all one can ask for, so the tool is apparently ready for widespread adoption. This groundbreaking milling cutter is made by using the LMD (Laser Metal Deposition) technology which allows for unprecedented levels of precision in the printing process. Layer by layer, metal powder particles are solidified thanks to the energy of a highly-targeted laser beam, resulting in a strong and reliable cutting tool that can have complex geometry.

Of course, mill cutting tools are subject to enormous forces, and even the slightest material defects or tiny cracks would end up in the quick failure of the cutter. Toton had to go through a series of optimizations in the printing process, based on meticulous quality assurance methods and exhaustive testing. Winning the award has definitely justified his great efforts, but this is only the beginning of the road. This novel cutting tool opens up new possibilities in manufacturing, and it’s so significant that attendees of the event stated that those who have high manufacturing costs are obliged to use this tool to remain competitive. A Sutton Tools representative has also added that Toton’s project has “industry-level” significance. “This project exemplifies the ethos of capability-building through industrial applied research, rather than just focusing on excellent research for its own sake.”

Related Articles

Latest NASA Just Tested a Powerful New Thruster That Could One Day Send Humans to Mars Image
Aerospace

NASA Just Tested a Powerful New Thruster That Could One Day Send Humans to Mars

NASA’s latest propulsion experiment could reshape the future of deep-space travel. Engineers at NASA Jet Propulsion Laboratory recently tested a powerful lithium-fed electromagnetic thruster that may one day help carry astronauts to Mars faster and more efficiently than current spacecraft systems. A New Kind of Engine for Deep Space The experimental engine is known as a magnetoplas

Latest Inconel Alloys vs Stainless Steel: Which is Stronger? Image
Metals

Inconel Alloys vs Stainless Steel: Which is Stronger?

Are Inconel alloys stronger than stainless steel? The answer depends on how strength is measured. Tensile strength, yield strength, hardness, compressive strength, heat exposure, forming method, and treatment can all change the result. In practical terms, Inconel vs stainless steel is less about one material “winning” and more about choosing the alloy that gives the part the right form, fit, funct

Latest ORNL PM-HIP Breakthrough Targets Larger Critical Metal Parts Image
Industry News

ORNL PM-HIP Breakthrough Targets Larger Critical Metal Parts

Oak Ridge National Laboratory has developed a manufacturing method that could make large critical metal parts faster to produce, easier to customize, and less dependent on conventional casting and forging supply chains. The U.S. Department of Energy laboratory announced on May 14 that its researchers used additive manufacturing to fabricate custom canisters for powder metallurgical hot isostati

Latest Best Materials for High-Temperature Aerospace Applications Image
Aerospace

Best Materials for High-Temperature Aerospace Applications

Every turbine blade, exhaust duct, and fastener in an aircraft engine faces a punishing combination of heat, stress, and corrosive gas. And the high-temperature aerospace materials that survive those conditions aren't interchangeable. If you pick the wrong alloy, the part can distort, crack, or fails mid-flight. Choosing the best materials for high-temperature aerospace applications starts with un