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Archive for the ‘Additive Manufacturing’ Category

2nd Marine Logistics Group Develops First Marine Corps NDAA Compliant 3D Printed Drone

Wednesday, January 28th, 2026

MARINE CORPS BASE CAMP LEJEUNE, N.C. – Amidst the Department of War’s “Drone Dominance” intent to acquire 300,000 one-way attack drones by calendar year 2028, 2nd Marine Logistics Group has developed the Marine Corps’ first National Defense Authorizing Act-compliant 3D printed drone. The drone, titled HANX, is a holistically adaptable approved platform that can be tailored to the needs of the warfighter. HANX marks a large leap from previous Marine Corps’ 3D printed drone capabilities, such as “nibbler” in 2017, which was not subject to the same compliance requirements that exist today to meet NDAA requirements. HANX being fully NDAA compliant means it is resilient to backdoor programs from our adversaries, making it a device that can be used by any Marine for their mission. U.S. Marine Corps Sgt. Henry David Volpe is behind the creation of the 3D printed drone platform, helping to bring the Marine Corps into the next era of 3D print capabilities.

Volpe, an automotive maintenance technician with 2nd Maintenance Battalion, 2nd Combat Readiness Regiment, 2nd MLG, started 3D printing in seventh grade in his home state of Missouri. He joined a Lego robotics club in middle school, where he found he enjoyed making robots from putting the pieces together to programming them.

“Both my parents are engineers, so I feel like I’ve always had that encouragement to tinker and experiment with things,” said Volpe. “Programming and designing things were just a natural continuation of my interest and the environment I grew up in.”

After graduating from high school, Volpe attended college for automotive maintenance technology, where he learned how to work on cars and even got a job as a car mechanic.

“I just enjoyed the labor and learning about the systems within a vehicle. More specifically, I loved the electronic side of automotive. Yes, the part everyone complains about,” said Volpe.

However, when COVID-19 hit in 2020, it made both work and school hard for Volpe. He needed stability, so he thought of the armed forces. Volpe said he always thought that Marines were the best of the best, so he saw this as not only a good opportunity to join for job security, but a good excuse to become one of America’s finest.

After graduating from boot camp and his military occupational specialty schoolhouse in 2022, Volpe began working as a motor transport mechanic at 2nd Maintenance Battalion, where he pursued his passion for working on and maintaining cars. One day, a friend from work told him about the opportunities in robotics, 3D printing, and advanced manufacturing that the II Marine Expeditionary Force Innovation Campus offers.

Volpe was immediately intrigued by the opportunity. His previous experience with robotics and 3D printers made the innovation campus appeal to his passion and provided a chance to get back into an old hobby. Conveniently, the campus was also right across the street from his job, so he decided to go over and get involved.

“I immediately went over to the innovation campus, shook hands with the master sergeant, and said, ‘I want to work over here, I’ve got experience with this,’” said Volpe.

The innovation campus was launched with the intention of teaching and training Marines in 3D printing, robotics, and manufacturing. It provides a space for technically proficient and curious Marines to learn new skills as well as gain access to the materials, software, and hardware to design any products they can think of. Once Volpe got there, he was put to work immediately, where he repaired two 3D printers that had the crew stumped. His college experience helped him diagnose the issue and develop a problem-solving mindset. Volpe quickly found himself feeling at home working in the innovation campus.

“Although the environment itself felt surreal to me, I had never envisioned getting to do what my hobbies are as a job,” said Volpe. “Especially within the Marine Corps.”

Chief Warrant Officer 3 Matthew Pine, the officer in charge of the innovation campus, came across an article online about the U.S. Army making its own 3D-printed drones and decided to check it out. Pine knew Volpe was interested in drones because he had built them on his own time. So, Pine and Volpe took a trip to U.S. Army Fort Campbell, Kentucky, where Volpe was inspired to create a better and cheaper 3D printed drone platform designed and built entirely by a Marine.

“Their drone has some capabilities mine doesn’t, and some very nice cameras with it, but what I saw was a big price tag. I knew I could make something far cheaper without sacrificing too many features,” Volpe said. “The [U.S. Army] design and hardware selection was also contracted out to third and fourth parties; making their 3D printed drone an assembly can’t be entirely done by soldiers.”

Once Volpe set his mind to it, Pine helped lead Volpe and the rest of the Innovation Campus team through drone development, guiding them to reach their ambitious goal of innovation throughout the Marine Corps while giving them the room to make their own decisions.

Volpe previously built drones from kits but had never fully 3D-printed and built one from the ground up. He decided the same week he got back from this trip to take on the challenge and make the Marine Corps their own in-house-made drone.

Due to the operational tempo of the Innovation Campus, Volpewas given a deadline of 90 days to get the job done. He worked around the clock to design the drone, using different parts to make a Frankenstein of a prototype simply called “HANX,” based on Volpe’s nickname “Hank.” Before this challenge, Volpe only worked on drones by fixing or modifying them to suit whatever he needed his drone to do. It had been a while since he had built an actual drone. Despite this, he succeeded and made the drone he set out to build. Volpe had created five major versions of HANX in total prior to finishing the final prototype and there were dozens of small adjustments made to keep improving its design throughout the process.

“This was only possible because of the collaboration with the team around me,” said Volpe. “I’d give out different drone parts and say, ‘Hey, can you redesign this for me?’ Or ‘I need 20 of these printed.’ I designed it, but I didn’t work on it alone.”

Volpe took the lead on this project, assisted by Cpl Liam Smyth, who made the first design for HANX’s landing gear, Staff Sgt. Jonathan Borjesson, who helped Volpe with the hours of tuning the drone to the correct specifications, Cpl. Isauro Vazquezgarcia and Cpl. Corven Lacy who kept the 3D printers running while Volpe worked on the drone design and provided design input to improve the drone. None of it would have been possible if it were not for Chief Warrant Officer 3 Pine, who helped with the policy changes to even allow the drone to be made.

“You never do anything alone, whether that’s in combat or not,” said Volpe. After meticulously researching, planning, and implementing new knowledge learned to draft his blueprints, hundreds of hours, late nights, early mornings, failed designs, and shared success, the team of Marines had brought the drone from an idea to reality. And now “HANX” was ready to be tested.

Even after spending over 1000 hours, the hard part was still ahead. Now the team had to see if their work would meet the rigorous requirements to be approved by the small unmanned aerial systems program office.

“Anyone can create a cheap drone using cheap non-approved parts; however, finding parts that don’t run the risk of having backdoor software is difficult,” said Volpe.

A device harboring backdoor software is a device that adversaries could easily hack to record data from. To prevent the drone from becoming a potential security risk, all the critical components inside the drone have to be NDAA compliant.

“I was doing a ton of research, finding different manufacturers and then messaging them, trying to get a hold of people and talk with them about what they’re selling, and making sure that it is within NDAA standards,” said Volpe.

Volpe applied himself to finding all the pieces that would hopefully meet the necessary standard, the back and forward with the U.S. government a difficult but necessary process as they ensured all the pieces used were NDAA complaint. And then came the final test, ensuring the final product as a whole met all the necessary changes and adaptation requirements. The team waited eagerly, months of focused work balancing on the edge of success or failure.

But then the call came from the program office at NAVAIR notifying the team of the interim flight clearance process changes that enabled approval for flight of HANX. Just like that, Volpe had built the first NDAA and NAVAIR approved 3D printed drone. Completely by Marines, for Marines, at a price point that added versatility across units and changed the game on the limits of sUAS capabilities.

“I had never accomplished something like this,” said Volpe. “I’ve been to college before, rebuilt engines, but this is mine. This is what I designed. This is what I made”

After finally getting HANX approved for use, the Innovation Campus developed a plan for in-house-built, 3D printed modular drones. All the work put in over the past few months by Volpe and the team was now captured in training plans and a draft course framework. The campus was preparing the Marine Corps to equip any Marine with the ability to sustain the capability offered by the HANX and the equipment to manufacture it across all units. A capability quickly taken advantage of by the Marine Corps Special Forces Command at Marine Corps Base Camp Lejeune.

With HANX’s ability to be modified to suit various types of missions, such as reconnaissance, logistics, one-way attack drones, and more, it was a real-time answer to needs across II MEF major subordinate commands. With the Secretary of War’s intent for proliferating drone technology, HANX ability to adapt and be easily and cheaply crafted by any Marines in any unit directly supports the War Department’s plan to “unleash American drone dominance by bolstering the U.S. drone manufacturing base. HANX provides the Marine Corps large potential in harnessing the ingenuity of warfighters, arming combat units with low-cost attack drone capabilities, and training senior officers to overcome bureaucratic risk-aversion culture in drone procurement and training.”

“Some explosive ordnance disposal Marines, are about to buy 20 of these, and they’re going to be strapping explosives to it,” said Volpe, “The drone is cheap and easy to change, making it easier to be utilized for a variety of missions throughout the military, compared to all of the drones bought through contractors where we aren’t allowed to modify them.”

“When I first started working with 3D printing, I never could have imagined the technology would advance enough to enable anyone to be able to 3D print a drone,” said Volpe. “But seeing myself design and make one for the Marine Corps, a year ago I wouldn’t have thought that was possible.”

Volpe’s HANX drone is the most significant leap in 3D-printed drone technology for the Marine Corps in almost a decade and a significant accomplishment for the II MEF Innovation Campus and the U.S. Marine Corps as a whole.

“Volpe’s put over 1000 hours in this Innovation Campus workspace,” said Pine. “He’s very knowledgeable. He dives in deep whenever he’s learning something new. He is a motor transport mechanic, and he made the first drone approved for flight. That should tell you enough about how driven he is to make things successful.”

However, the HANX drone is just a stepping-stone on the road to the campus’s goal to enhance manufacturing capabilities in the Marine Corps. Innovations like HANX show Marines of all ranks and backgrounds they can embrace the 3D printing invocation that is being entirely done by Marines, for Marines. What started as a friend’s off-handed comment and a handshake, turned into one Marine’s passion impacting thousands.

Story by LCpl Javier Santillan 

U.S. Marine Corps Forces, Europe and Africa

101st Airborne Division Takes Flight with 3D Printed Drones

Friday, December 12th, 2025

FORT CAMPBELL, Ky – Turning another page in the 101st Airborne Division (Air Assault) journey within the Army’s transformation and its emerging technologies, the Division now has plans underway to revolutionize military drone creation in preparation for their upcoming division training exercise – Operation Lethal Eagle.

The Division began 3D manufacturing of small-unmanned aircraft systems (sUAS) at the EagleWerx Applied Tactical Innovation Center at Fort Campbell, Ky.

“This is bigger than simply printing parts. We are reshaping the sUAS enterprise at the tactical level,” said Col. (Promotable) Travis McIntosh, deputy commanding officer for support of the 101st ABN DIV. He said the project will impact the entire unit as it would affect “how we do small UAS in the division, from air worthiness to parts ordering, to fielding and training.”

The plan to build the systems at Fort Campbell came as a cooperative effort from the Division and 5th Special Forces Group (Airborne). Soldiers asked for sUAS that were more versatile, durable, and expendable than the standard previously fielded versions. For experimentation during the exercise, the Division and EagleWerx representatives are manufacturing 100 sUAS units and purchasing the ground control consoles, at a fraction of the cost of previously acquired sUAS’s.

Operation Lethal Eagle, a 21-day rigorous training exercise, is designed to prototype Army initiatives, train unit lethality, and build mastery of large-scale, long-range air assault (L2A2) capabilities throughout the Division.

Many on the project including Capt. Andrew Blomquist, the 2nd Mobile Brigade Combat Team innovation officer, are excited for the 3D printed drones to get into the hands of the end-users permanently.

“We have done multiple Soldier touch points, demos, and flight tests so luckily, we have already received great end user feedback”, said Blomquist. “One Soldier in particular that has experience with all of the previously fielded sUAS was surprised with its performance.”

The Division’s revolutionary experiment will continue in anticipation of its next major training event, in late spring at the Joint Readiness Training Center, at Fort Johnson, Louisiana.

To learn more about Eaglewerx Applied Tactical Innovation Center, visit home.army.mil/campbell/eaglewerx.

Story by Capt. Andrew Lightsey IV and Photos by Staff Sgt. Kaden Pitt 

101st Airborne Division (Air Assault)

Renishaw to Showcase Advanced Additive Manufacturing Solutions for Defense at DMC 2025

Tuesday, November 11th, 2025

Renishaw, a global additive manufacturing specialist, has announced its attendance at the Defense Manufacturing Conference (DMC) 2025. This premier national forum for advancing defense manufacturing will take place at Caribe Royale Orlando in Florida, from November 17-20, 2025 March 30-April 2 2026. Renishaw will be showcasing its innovative technologies and services that support the aerospace and defense sector, including for suppressor applications.

Renishaw uses its expertise in additive manufacturing and metrology to support various aspects of the aerospace and defense sector. The company’s products and technologies are used in manufacturing to boost efficiency, dimensional accuracy, and cost reduction. Renishaw’s technology is applied in diverse applications, from fighter jet systems to personal defense platforms.

John Laureto, Business Manager for Renishaw’s Additive Manufacturing Group in the Americas, commented, “DMC 2025 is an invaluable opportunity for Renishaw to connect directly with the defense community. Our long-standing success in supporting critical sectors, particularly the suppressor industry, highlights our commitment to delivering advanced solutions.”

Renishaw will be showcasing its RenAM 500Q metal additive manufacturing (AM) system. The RenAM 500Q boasts exceptional laser density on the powder bed, at 64 lasers per square meter, making it ideal for manufacturers aiming to produce top-quality components at a lower cost per part. It offers fast build speeds of up to 254 cc/hour with its four 500 W lasers, automatic powder recycling, and vacuum atmosphere preparation. This system delivers consistent and repeatable part quality, achieving 99.9 per cent density and optimized properties across the entire build plate.

Another focus will be TEMPUS™ technology, a new scanning algorithm for the RenAM 500 series systems. This innovative technology allows the system’s lasers to fire while the powder recoater is moving, removing up to nine seconds of build time from every layer. With builds frequently containing thousands of layers, this can cut build times by tens of hours, leading to a time reduction of up to 50 per cent without affecting part quality. This time and cost saving maximizes return on machine investment for existing users and makes new applications viable for AM.

At DMC 2025 Renishaw will demonstrate the capabilities of its platforms, technologies, and services that support its customers in the US defense manufacturing community. Renishaw’s booth will feature various components and mock-ups of machines, including aluminum heat exchange components and suppressor displays.

Renishaw looks forward to engaging with industry leaders, experts and policymakers at DMC 2025, demonstrating its continued dedication to advancing manufacturing capabilities within the defense sector.

For further information visit Renishaw’s website or contact the US sales team at Jeffrey.Seliga@renishaw.com

Update: DMC is rescheduled to March 30-April 2 2026 due to the gov shutdown.

SparkX Teams with Army Soldiers on Open-Source Drone Project

Saturday, July 26th, 2025

JOINT BASE ANDREWS, Md. – A small team of technicians at Joint Base Andrews is helping shape the future of battlefield innovation, one 3D-printed drone at a time.

The Andrews SparkX Cell Innovation and Idea Center partnered with the U.S. Army’s 1st Multi-Domain Task Force from Joint Base Lewis-McChord, Wash., to redesign Project SPECTRE (Small Printable-Engineered-Composites Tailorable Remote-Effect), an experimental effort to create rapidly deployable, customizable, small, unmanned aircraft systems.

The result of Project SPECTE was Blackbird, a fully open-source, government-owned drone platform that cut development costs by more than $1 million.

According to SparkX technicians, the Blackbird can be 3D-printed and assembled in 36 hours for about $200, offering a low-cost, modular sUAS solution for training and operational use in the field.

“Working within the government always provides an opportunity for quicker development that often times faces less roadblocks and is more cost-effective than the standard acquisition processes,” said a Soldier with the 1st MDTF.

With no formal aerospace engineering training, the SparkX technicians reverse-engineered a new platform from scratch. They developed an original airframe that met operational goals while avoiding intellectual property conflicts with the Army’s previous partner.

“It was what we envisioned the plane to look like,” recalled Staff Sgt. Stefan N. Sobiech, a former SparkX technician who is now stationed at Osan Air Base, Republic of Korea. “I oversaw creation of the wings, and I sought inspiration from the most efficient planes I could find.”

The project went through more than 10 variations, but Sobiech said the team kept pressing and learning from their mistakes.

“I don’t think there was ever an obstacle that we didn’t think we could work no past it,” he said. “We always went back at it from a different angle or researched how others got past a similar issue.”

The final design includes two propeller-driven motors, a wingspan of more than six feet and weighed approximately nine pounds. Its modular design features a push-to-connect fuselage and a customizable internal equipment tray, allowing for rapid swaps of mission-specific gear and easy to assembly in the field with no specialized tools.

In November, the team was invited to fly the drone during Titan Hoplite, a joint exercise hosted by the Air Force’s Task Force 99 at Shaw Air Force Base, S.C. The SparkX technicians showcased their airframe alongside other advanced sUAS technologies, drawing interest from units across the Department of Defense.

Sobiech said the team conducted a 30-second shakedown flight before heading to Shaw, where the Blackbird flew for more than two minutes during Titan Hoplite demonstration.

The drone unfortunately crashed after flying out of range of the hobby-grade motors and avionics.

Although, Sobiech was unable to attend the event, he mentioned receiving texts and video footage from observers of the successful flight.

“I was ecstatic! To see it sustaining flight, for that length of time, was an amazing feeling,” he said.

Earl Bagwell, Spark X director, said the Titan Hoplite demonstration sparked interest from several organizations in the Army and Air Force that wanted to get involved.

Bagwell released the 3D files as an open source to allow other units to 3D-print the components and integrate their own avionics and motors.

“We knew this would be a sought-after capability, but instead of going through the long patent process, we decided to open source it,” Bagwell said. “Whoever needs it can have it—because we need to innovate and move faster.”

The Air Force Research Laboratory, the Army Research Laboratory, Combat Innovation Lab, Tesseract, and 2nd MDTF are among the organizations that have accessed to the Blackbird files. Together, they support operational theaters across U.S. Indo-Pacific Command, Central Command, Europe, Africa, special operations, and the Army National Guard.

The 1st MDTF successfully deployed and tested the system in various environments, implementing rapid design updates on-site to improve both their understanding of the platform and its capabilities.

“Working in the joint force allows us to consider multiple angles and employment methods that might not be considered in an Army-only environment,” said an 1st MDTF Soldier. “It also gives us access to resources and diverse skill sets not inherent within individual services.”

Story by Patrick Griffith, 316th Wing

Dragonflies Overhead: sUAS and 3D Printing Empowering the 4th Infantry Division

Tuesday, June 3rd, 2025

FORT CARSON, Colo. — A distinct hum and sharp buzz slice through the air inside the Ivy Eagle’s “Monster Garage.” The sounds emanate from a football-sized quadcopter, its rotors a blur as it expertly maneuvers around a complex, custom-built obstacle course.

The modern battlefield demands agility, adaptability, and technological superiority. Small unmanned aerial systems, sUAS, and 3D printing, also called additive manufacturing, technology have emerged as critical assets in achieving these objectives, providing essential reconnaissance, surveillance, target acquisition, electronic warfare and logistical support capabilities.

Pilots from the 4th Infantry Division’s sUAS Innovation Platoon, the “Dragonflies”, practice their maneuvering skills at the “Monster Garage” with the use of laptop-based simulators before progressing on to the obstacle course in the warehouse and completing larger field exercises to demonstrate how sUAS are playing a crucial role in the operational environment.

Brig. Gen. Eugene Ferris, the division’s former deputy commanding general for maneuver, said that the future of modern warfare will depend on the lethal integration and the effective deployment and sustainment of sUAS in dynamic and often contested environments, which are paramount for mission success.

Small Unmanned Aerial Systems

In military operations, sUAS serve many critical roles, providing real-time intelligence, enabling precision strikes, conducting electronic warfare, and even facilitating resupply in challenging environments.

The effectiveness of the sUAS Innovation Platoon, 6th Squadron, 17th Cavalry Regiment, 4th Combat Aviation Brigade, 4ID, in these varied and crucial roles is further amplified by the ability to tailor their designs for specific, demanding environments.

“For the 4ID and 4CAB, the ability to rapidly prototype and adapt sUAS designs is critical when operating in diverse and complex environments”, said 1st. Lt. Nicholas McDonald, platoon leader for the Dragonflies. “The performance characteristics of these systems extended flight endurance for persistent surveillance, low observability for stealth and robust construction for survivability.”

For the division, these advantages translate into tangible operational benefits: customizing sUAS to carry specific payloads or intelligence packages for information gathering, quickly prototyping and testing new sUAS configurations and integrations during training exercises to adapt to future threats.

The dynamic nature of military operations often necessitates swift responses to emerging threats or rapidly evolving tactical situations, empowering the 4th Infantry Division and the broader military to quickly translate urgent operational needs into tangible solutions for sUAS.

Additive Manufacturing

Additive manufacturing, or AM, is a transformative technology that revolutionizes how the military develops, deploys and maintains its sUAS fleets, offering unprecedented agility, customization and enhanced operational readiness.

Beyond conventional prototyping, AM enables the production of complex, lightweight components crucial for maximizing the flight performance of sUAS, reducing their signature and increasing their payload capacity. These demanding requirements necessitate the use of advanced materials and highly optimized designs, areas where AM offers significant advantages over traditional manufacturing methods.

Ferris explains that AM technologies offer specific benefits for military applications. The inherent flexibility of AM allows for integrating features that enhance functionality and survivability in contested environments.

Additive manufacturing constructs three-dimensional objects directly from a digital file. The process begins by digitally slicing the 3D model into numerous thin, horizontal cross-sections. Following these sliced instructions, the 3D printer builds the object layer by layer from the bottom up. This involves extruding melted material like plastic filament and selectively curing liquid photopolymer resin with light.

Soldiers can rapidly produce replacement parts for damaged drones, fabricate specialized tools and fixtures for maintenance at the battalion level, and even create custom adapters or mounts for unique mission requirements directly in the field, significantly saving Soldiers’ time and the division’s maintenance costs.

Such advancements in operational readiness and flexibility through AM directly support the framework established by the Ivy Division’s priorities.

Integrating the Ivy Division Priorities

Two of the division’s priorities — lethal teams and peak partners — play a significant role in sUAS and AM.

Ferris said AM empowers the 4ID to translate urgent operational needs into tangible solutions for sUAS quickly. AM enables the rapid design and fabrication of prototype sUAS or specialized components to address specific battlefield challenges.

Ferris said that units such as the 4CAB’s Dragonflies and the 10th Special Forces Group have made significant strides in integrating sUAS into training, ensuring that 4ID remains prepared for the challenges of modern warfare.

These technologies directly enhance the priorities of lethal teams by equipping Soldiers with superior situational awareness with sUAS reconnaissance and surveillance. Additive Manufacturing ensures these critical eyes-in-the-sky and other essential gear can be rapidly repaired and maintained even in austere environments, keeping teams equipped, informed and deadly.

To maintain this technological edge and ensure a future of skilled personnel, the 4th Infantry Division actively engages with the local community, especially in STEM education.

Keri Brandt, 4ID’s Ivy Human Capital Campaign manager, said the division’s collaboration with District 8 highlights its well-established connections within the wider Front Range community. Brandt explained that a significant part of their partnership development strategy includes a mentorship program for students in science, technology, engineering and mathematics. This program brings students to the military installation for on-site visits, allowing them to see directly how the 4ID applies coding, engineering, and technological principles in the operation of drone and robotics systems. Brandt explains that 4ID and Fort Carson service members participate in district events to help facilitate STEM competitions, fostering student engagement and learning opportunities.

The future holds significant promise for integrating AM and sUAS. Empowering units like the sUAS Innovation Platoon with organic manufacturing capabilities and integrating artificial intelligence and machine learning could lead to automated design optimization for battlefield repairs.

Ultimately, the potential for Soldier-level customization and repair of sUAS using user-friendly AM systems could revolutionize battlefield logistics and operational flexibility.

As AM and sUAS technology continues to mature and integrate with other advancements, its role in empowering the Ivy Division and the broader military with cutting-edge aerial capabilities will continue to grow, ensuring a decisive edge in future conflicts.

By CPL William Rogers

RIA-JMTC Leads the Charge in 3D-Printed Drone Production, Uniting the Organic Industrial Base for Future Warfare

Wednesday, May 21st, 2025

ROCK ISLAND ARSENAL, Ill. – As the conflict in Ukraine has demonstrated, the battlefield of the future will be defined by the innovative and widespread use of unmanned aerial systems, and the ability to rapidly produce and deploy these systems at scale will be crucial to maintaining a tactical advantage in future conflicts.

“The U.S. Army recognizes the changing dynamics of warfare and is fully committed to staying ahead of the curve,” said Col. David Guida, commander of Rock Island Arsenal-Joint Manufacturing and Technology Center. “We are investing heavily in our Organic Industrial Base, harnessing its agility and innovation to develop and field advanced capabilities like these 3D-printed drones. At RIA-JMTC, our unique blend of cutting-edge technology and skilled artisans is leading the charge in this critical effort to shape the future of warfare.”

Through initiatives like Transforming in Contact, the Army is fielding new technologies and transforming how it develops, tests and integrates those technologies onto the battlefield. TiC prioritizes addressing immediate needs by enabling “in-contact experimentation”—putting cutting-edge technology directly into the hands of Soldiers and empowering them to innovate and adapt in real-world scenarios. This approach fosters a culture of calculated risk-taking and rapid Soldier feedback, ensuring that solutions are not only technologically advanced but also practical and effective on the modern battlefield. By focusing on near-term solutions and integrating emerging technologies, TiC enables Army units to rapidly test organizational changes and stay ahead of our adversaries, ensuring they are ready to fight and win in an increasingly complex and challenging operational environment. RIA-JMTC is partnering with multiple units in the field and the Combat Training Centers to share and provide technical data and lessons learned to help all improve.

This flexible and adaptive process is illustrated by the development of 3D-printed drones. RIA-JMTC is actively preparing to build the capacity for large-scale production of 3D-printed drones, working in close collaboration with other key OIB facilities, such as Tobyhanna Army Depot. This collaborative approach, harnessing the unique strengths and expertise of various OIB sites, is key to the Army’s strategy for rapidly developing and fielding advanced UAS capabilities. This directly supports TiC’s goal to accelerate the innovation and experimentation of new systems at scale to preserve our technological edge.

“This project is a testament to the enduring spirit of American ingenuity and the Army’s unwavering commitment to staying ahead of the technological curve,” said Guida. “Our team at RIA-JMTC is dedicated to producing high-quality, on-time readiness solutions for the Warfighter, constantly pushing the boundaries of what’s possible in support of those on the front lines. This 3D printed drone initiative embodies that commitment, showcasing our ability to rapidly adapt and deliver cutting-edge solutions that will directly impact the future of warfare.”

The initiative was sparked by a collaborative proof-of-concept project with the 101st Airborne Division (Air Assault), which highlighted the potential of 3D printing for rapidly prototyping and producing customized tactical drones tailored to specific mission needs. This initial project served as a valuable learning experience, demonstrating the viability of RIA-JMTC’s 3D-printed drone production capabilities and revealing the power of collaboration within the OIB.

“The history of the 101st Airborne Division is a testament to the courage, ingenuity and unwavering spirit of the American Soldier,” said Maj. Gen. Brett Sylvia, commanding general of the 101st Airborne Division (Air Assault). “These 3D printed drones are the latest of many exciting emerging technologies we are implementing under our continuous and iterative TiC. They are the beginning of a user-driven, division-enabled force multiplier that will empower our Screaming Eagles to write the next chapter in the evolution of vertical envelopment.”

Building on these initial successes, RIA-JMTC produced smaller drones from the 2nd Calvery Regiment with less pieces to again showcase its rapid production capabilities. The factory is now focused on preparing for full-scale production to meet the Army’s broader and rapidly expanding UAS needs. The factory is actively researching and evaluating various drone designs to ensure they are prepared when the Army provides the requirements. This research involves close collaboration with other experts within the OIB’s research and development community to identify designs that offer the optimal balance of capability, adaptability and cost-effectiveness.

“The OIB must support current unit readiness across the force, maintain the ability to surge and modernize and retool to sustain the next generation of equipment,” asserted Greg Lupton, RIA-JMTC deputy commander. “This project, demonstrating how Arsenals like RIA-JMTC directly respond to urgent Warfighter needs, highlights this critical role. By manufacturing and fabricating vital components and systems, Arsenals ensure our Soldiers have the utmost confidence in their equipment and are prepared to face any challenge on the battlefield.”

This collaborative approach is exemplified by RIA-JMTC’s partnership with Tobyhanna Army Depot, the Army’s Center of Industrial and Technical Excellence for Command, Control, Communications, Computers, Intelligence, Surveillance, and Reconnaissance (C4ISR) and Electronics, Avionics, and Missile Guidance and Control, and the Air Force Technology Repair Center for Tactical Missiles, Rigid Wall Shelters and Portable Buildings. Tobyhanna brings unparalleled expertise to the project, and their artisans will install the sophisticated electronics, sensors and mission-critical internal systems that will bring the drones to life, leveraging their deep experience in C5ISR, avionics and missile guidance systems.

“This partnership with RIA-JMTC leverages Tobyhanna’s core strengths as the Department of Defense’s leading provider of C5ISR readiness for the joint Warfighter,” said Col. James L. Crocker, Tobyhanna’s commander. “Our skilled workforce and state-of-the-art facilities are prepared to equip 3D printed drones with the advanced technological capabilities they need to provide a decisive edge on the battlefield.”

In addition to this ongoing research and development effort, RIA-JMTC is working to compile Technical Data Packages from the Army, which will help define the specific types and quantities of drones required to meet the demands of the future battlefield. This TDP will provide the critical specifications and requirements that will guide the final stages of production planning and ensure that the drones produced by RIA-JMTC are precisely tailored to meet the needs of the Warfighter.

“This project is about investing in the future of the Army and ensuring that our Soldiers have the tools they need to succeed in any mission, on any battlefield,” said Guida. “We are not just building drones; we are building the future of Army readiness.”

RIA-JMTC, in close coordination with Tobyhanna and other key OIB partners, is working to be fully prepared to rapidly produce and deliver these critical assets to the Warfighter. This agile and collaborative approach ensures that the Army can rapidly adapt to evolving threats and maintain its technological edge on the dynamic battlefields of the future.

“This is about more than just drones,” Lupton added. “This is about the Army’s commitment to leveraging the full potential of the OIB to maintain its technological edge in an era of rapidly evolving threats. The partnerships we are forging today will be essential to ensuring our nation’s security for decades to come.”

By Kendall Swank

Rock Island Arsenal-Joint Manufacturing and Technology Center’s 3D Printing Revolutionizes Military Readiness, Uniting the Best and Brightest in the Industry

Tuesday, March 11th, 2025

ROCK ISLAND ARSENAL, Ill.—The U.S. Army’s Rock Island Arsenal-Joint Manufacturing and Technology Center is embracing additive manufacturing to revolutionize machine repair, lower costs and enhance military readiness, showcasing the ingenuity and dedication found within the Department of Defense, the U.S. Army and its organic industrial base.

“The process of creating these temporary parts first requires reverse engineering the original part,” Edward Flinn, the director of the Advanced Manufacturing Center of Excellence at RIA-JMTC said. “We then printed the part, and fortunately minimal machining was required, so we were able to get the equipment operational soon after the prints were complete.”

The AM CoE, staffed by some of the brightest minds in the field, is creating temporary replacement parts for critical manufacturing equipment, significantly reducing downtime and extending the lifespan of aging machinery.

“In this factory, we have machines from the early 1950s that performed tasks that some newer technology just can’t do in the specifications and the tolerances that we require,” RIA-JMTC Logistics Director John Shappell explained. “The machines today are not as simple to adjust electronically, and the older machines are manually adjusted by a tradesman.”

This initiative builds on the success of the Battle-Damaged Repair and Fabrication program developed with Tank-automotive and Armaments Command. It allows rapid on-demand 3D printing of temporary repair parts for Army units in the field, directly contributing to the readiness and operational capability throughout formations.

“We make a lot of things that are hard to come by,” explains Robert Branch, AM CoE engineer. “By the time a part gets to the AM CoE, everyone has been given an opportunity to provide this part to the government. We’re sort of a last resort because traditional manufacturing methods are more appropriate for large-scale production. When you need a small quantity quickly, that’s when additive manufacturing comes into play.”

The adoption of additive manufacturing offers significant cost savings for the Army by reducing reliance on expensive traditional manufacturing methods, especially for small production runs. RIA-JMTC is at the forefront of this innovation, demonstrating the potential of 3D printing to revolutionize military manufacturing and readiness. While 3D printed parts can sometimes be more expensive, the speed and flexibility they offer prove invaluable.

“Customers understand that readiness solutions might come with a premium, and some are willing to invest in that assurance,” Randl Besse, AM CoE project manager said. “We can provide those parts in days compared to weeks, demonstrating the value of that investment in times of urgent need.”

This commitment to innovation within the defense industrial base ensures that facilities like RIA-JMTC are capable of not only sustaining fielded systems but also maintaining pace with Army modernization efforts. The AM CoE’s work is a testament to the talent present throughout the total workforce, ensuring the RIA-JMTC facility remains postured to surge in support of large-scale combat operations.

“I’m not a real big fan of recreating failure modes just because that’s the way it was,” Branch said. “If someone’s coming to the AM CoE and saying, ‘hey, we need these parts,’ I’m going to ask them why do you need these parts? Is it because they break in a certain area, or they wear out? Do they have one failure mode over another? Because I’m already there adjusting the part. So, let’s see how it interfaces with the other parts around it and if we can make it better.”

One example highlighting the factory replacement part program’s effectiveness is the replacement of a water pump for a critical plating system. With traditional procurement, the lead time for this pump was four to six weeks. The AM CoE was able to print, machine and test a replacement part in less than a week.

“As customers, we’re competing with the rest of the private industry to get this pump that we need to continue producing parts that build on military readiness,” Shappell said. “This replacement part program drastically improves operational availability and readiness.”

Beyond simply replicating existing parts, the AM CoE team actively analyzes and improves designs. For example, a redesigned burner cone, previously a two-piece component prone to failure, was 3D printed as a single, more robust piece, eliminating the previous failure points.

“There are many aspects where we’re getting material performance on printed items that are very close to forged or cast materials,” Branch explains. “When you factor in the safety margins of the original designs, the difference between the materials is often negligible.”

As the technology continues to evolve, additive manufacturing will likely have an even greater impact on Army operations and the wider military manufacturing industry. By embracing this emerging technology, RIA-JMTC is enhancing readiness and operational capabilities, ensuring Army formations are prepared for large-scale combat operations in contested environments.

By Kendall Swank

PROTEC3D: New Possibilities in Design and Functional Integration of Complex Components with Ballistic Protection

Friday, October 18th, 2024

KÖNIGSLUTTER, GERMANY (17.10.2024)

3D printing, also known as additive manufacturing, is revolutionising the production of ballistic protection solutions. In particular, 3D printing of armour steel opens up new possibilities in terms of design freedom, weight reduction and the manufacture of complex components, as well as the integration of additional functions.

Focus on innovation and technology

Mehler Protection offers a unique portfolio in Europe, providing protection solutions for all threats and protection levels according to STANAG 4569, including complete welded subsystems. The M-RACC (Multirole Armour Composite Components) product family includes modular, purely passive solutions against ballistic projectiles, shaped charges/anti-tank weapons, IEDs, mines and roof protection solutions. These are used in military and civilian vehicles, ships, helicopters and for critical infrastructure protection.

Patented 3D printing technology for armour steel is opening up new possibilities in the design of protective components. Layer-by-layer manufacturing allows precise control of material properties, resulting in consistent resistance to ballistic threats. By refining the printing technology and post-processing, mechanical properties can be further optimised.

Design freedom and advanced manufacturing processes

A key advantage of PROTEC3D is the virtually unlimited design freedom it offers. While conventional methods are often limited by geometric constraints, 3D printing enables the realisation of complex structures and shapes that were previously unimaginable.

Mehler Protection uses an Selective Laser Melting (SLM) process to manufacture the components. By welding the 3D printed components with the same alloy, large components can be produced. This enables the development of customised protection solutions that are precisely tailored to specific requirements and operating conditions. Subsequent heat treatment achieves hardnesses of 400-620 HB. The result is a homogeneous product with no weaknesses in welds, heat affected zones or hardness transitions.

In addition, PROTEC3D offers the option of cathodic dip coating (CDC). This process is not possible with conventional armour steel, as it reduces the hardness and thus the ballistic performance of the material. In addition, the process does not affect the alloy used, making it suitable for the corrosion protection of complex structures.

Efficiency through functional integration

3D printing makes it possible to produce highly complex components in a single manufacturing step. Traditionally, such components must be assembled from multiple parts, introducing additional weaknesses and adding weight. With additive manufacturing, complex geometries and internal structures, such as cavities or reinforcements, can be integrated directly into the part. This improves both structural integrity and manufacturing efficiency while reducing overall weight.

PROTEC3D also allows additional functions to be integrated directly into the component. For example, sensors cases can be equipped with cooling channels to decrease the thermal signature, or mounting points for other components can be seamlessly embedded into the structure. This reduces the need for subsequent assembly steps and increases the reliability and lifespan of protection solutions. This minimises the need for reassembly and increases the reliability and durability of protection solutions.

Short procurement times and cost efficiency

Another key benefit of PROTEC3D is the drastic reduction in lead times and associated cost efficiencies. Traditional manufacturing processes often require long lead times for the production of moulds and tools, as well as complex production steps. 3D printing eliminates many of these steps, resulting in much faster production. Prototypes and small series can be produced in days rather than weeks or months. In addition, additive manufacturing allows for more efficient use of materials by using only the material that is needed. These benefits help to deliver ballistic protection solutions faster, more flexibly and more cost-effectively, which is particularly valuable in time-critical and resource-intensive scenarios.

Diverse applications and future potential

PROTEC3D is already being used successfully in the first series projects in the field of civil protection vehicles. For example, window frames with protection level VPAM 9 have been realised with significant weight savings.

At this year’s Eurosatory in Paris, the international defence and security exhibition, an application in the field of optronics was presented. The PROTEC3D sensor housing, which meets STANAG Level 3 requirements, demonstrates the wide range of possibilities offered by 3D printing for complex components. This sensor housing was not only equipped with brackets for sensor elements, but also with channels for compressed air for cleaning the lenses and cooling pipes to reduce heat signatures. In general, PROTEC3D offers many new application possibilities, such as eliminating vulnerabilities in military land vehicles with ballistic protected media disconnectors and cable feed-throughs.

Conclusion

PROTEC3D offers significant advantages in terms of design freedom, ballistic performance, production of complex components and weight optimisation. It also ensures faster procurement and cost efficiency. By improving both efficiency and effectiveness, PROTEC3D sets new standards for flexibility and adaptability in ballistic protection. The continuous development and application-specific customisation of PROTEC3D promises to transform the field of ballistic protection solutions and open up innovative approaches for the future.

For more information about Mehler Protection please visit: mehler-protection.com