This article is based on an official press release from GKN Aerospace.

On April 13, 2026, GKN Aerospace and the U.S. Air Force Research Laboratory (AFRL) announced the launch of a collaborative $8.4 million manufacturing initiative. The program, officially named TITAN-AM (Titanium Industrialization and Technology Advancement for Near-net Additive Manufacturing), is designed to industrialize and advance 3D printing technologies for large-scale aerospace structures.

According to the official press release, the partnership will focus heavily on Laser Metal Deposition with Wire (LMD-w) technology. By shifting away from traditional subtractive manufacturing methods, the initiative aims to make the production of next-generation titanium aerostructures faster, more sustainable, and highly efficient.

The TITAN-AM program will be executed at GKN Aerospace’s Global Technology Centre located in Fort Worth, Texas. We understand from the announcement that the project is expected to yield significant advancements for both commercial aviation and domestic defense supply chains by proving the viability of additively manufactured titanium components in operational environments.

The TITAN-AM Program and LMD-w Technology

The core of the $8.4 million TITAN-AM investment centers on maturing Laser Metal Deposition with Wire (LMD-w). As detailed in the program’s background materials, LMD-w is a directed energy deposition (DED) process that utilizes a high-powered laser to melt a continuously fed titanium wire, building complex structures layer by layer.

Titanium is a highly sought-after material in the aerospace sector due to its exceptional strength-to-weight ratio and resistance to corrosion. However, traditional manufacturing requires machining parts from massive titanium blocks. According to industry data cited in the announcement, conventional subtractive manufacturing can result in a “Buy-to-Fly” ratio of up to 95 percent, meaning that up to 95 percent of the raw titanium is machined away as scrap waste. LMD-w technology drastically reduces this material waste while simultaneously shortening production lead times.

The TITAN-AM program aims to accelerate the readiness of LMD-w technology and demonstrate its value on operational titanium structural components for both defense and commercial aerospace platforms, according to the GKN Aerospace announcement.

Five Critical Focus Areas

To successfully qualify LMD-w for rigorous aerospace structural applications, the press release outlines five specific focus areas for the TITAN-AM program:

• Industrialization: Scaling the LMD-w processes to accommodate large-scale titanium aerostructure components.
• Material Datasets: Developing comprehensive and robust titanium material datasets to guarantee structural performance, safety, and long-term reliability.
• Advanced Simulation: Improving digital simulation capabilities to optimize structural designs and accurately predict manufacturing outcomes before physical printing begins.
• Inspection Techniques: Pioneering Non-Destructive Inspection (NDI) methods specifically tailored for the unique properties of additive manufacturing processes.
• Practical Demonstration: Validating the technology by physically manufacturing and rigorously testing selected aerospace structural components.

Leveraging Fort Worth’s “Cell 3” Infrastructure

The execution of the TITAN-AM program relies heavily on existing infrastructure at GKN Aerospace’s Fort Worth facility. The company will leverage its massive “Cell 3” additive manufacturing system, which was officially commissioned in June 2023.

According to the provided background data, Cell 3 is recognized as the world’s largest known laser-directed energy deposition additive manufacturing cell. The system is equipped with a 20-kilowatt laser, features up to 10 axes of motion, and operates within a massive inert environment. This setup is capable of printing titanium components up to 5 meters (over 16 feet) in length, making it uniquely suited for the large-scale goals of the AFRL partnership.

Partner Backgrounds and Expertise

Both partners bring decades of specialized experience to the TITAN-AM initiative. GKN Aerospace noted in its release that it possesses over 20 years of experience in additive technologies. The company is already utilizing 3D printing in serial production for commercial-aircraft; for instance, GKN produces the additively manufactured fan case mount ring for the Pratt & Whitney GTF (Geared Turbofan) engine family, which currently operates on the Airbus A220 and Embraer E195-E2.

The U.S. Air Force Research Laboratory (AFRL) has been researching fusion-based additive manufacturing for aerospace alloys since the late 1990s. The military’s ongoing investment in this sector is driven by strategic imperatives: maintaining and modernizing legacy weapon systems, reducing reliance on foreign-sourced raw materials, and fortifying the domestic defense industrial base.

AirPro News analysis

At AirPro News, we view the TITAN-AM initiative as a critical step in bridging the aerospace industry’s “Valley of Death”, the notoriously difficult regulatory and financial transition from successful prototype to certified, flight-ready hardware. By explicitly focusing on the creation of robust material datasets and specialized non-destructive inspection (NDI) techniques, GKN and the AFRL are directly addressing the primary hurdles to Federal Aviation Administration (FAA) and Department of Defense (DoD) certification.

Furthermore, the broader supply chain implications cannot be overstated. The U.S. defense sector has faced persistent bottlenecks in traditional heavy forging and casting. By transitioning to near-net additive manufacturing, the industry can onshore critical manufacturing capabilities, allowing the U.S. to build large-scale aircraft components locally and on-demand. Coupled with the massive reduction in raw titanium waste, this shift represents a significant leap forward for both supply chain resilience and aerospace sustainability.

Frequently Asked Questions (FAQ)

What is the TITAN-AM program?
TITAN-AM (Titanium Industrialization and Technology Advancement for Near-net Additive Manufacturing) is an $8.4 million collaborative program between GKN Aerospace and the U.S. Air Force Research Laboratory (AFRL) to advance 3D printing for large titanium aircraft structures.

What is LMD-w technology?
Laser Metal Deposition with Wire (LMD-w) is a 3D printing process that uses a high-powered laser to melt a continuously fed metal wire, building up a component layer by layer. It significantly reduces material waste compared to traditional machining.

Where will the manufacturing take place?
The program will be executed at GKN Aerospace’s Global Technology Centre in Fort Worth, Texas, utilizing their massive “Cell 3” additive manufacturing system.

Sources: GKN Aerospace

This article is based on an official press release from Alaris Aerospace Systems LLC.

On April 13, 2026, Alaris Aerospace Systems LLC, a prominent distributor of aftermarket aircraft parts and aviation asset management firm, announced a major restructuring of its domestic logistics network. According to the company’s official press release, Alaris is consolidating its four United States-based warehouse facilities into a single, centralized Global Fulfillment Center located in Jupiter, Florida.

The strategic move is designed to streamline operations, improve inventory management, and bolster supply-chain resilience to meet growing demands across both the commercial and defense aviation markets. By centralizing its domestic footprint, the company aims to reduce the logistical complexities associated with managing multiple distribution nodes.

To ensure uninterrupted service to its global client base, Alaris Aerospace stated that the transition will be executed in carefully managed phases. The company has developed a comprehensive operational plan that includes inventory transfers, system cutovers, and direct coordination with logistics partners, carriers, and customers.

Strategic Consolidation and Operational Goals

Centralizing the U.S. Footprint

The new purpose-built facility, located at 15971 Corporate Circle in Jupiter, Florida, will serve as the primary domestic hub for the company’s aftermarket parts distribution. According to the press release, merging the four existing U.S. locations into this single center is expected to enhance inventory accuracy, speed up order processing, and optimize overall distribution workflows.

Company leadership emphasized that the consolidation is a necessary step to support long-term growth and maintain high service standards in an increasingly demanding aviation market.

“Consolidating our domestic warehousing into one purpose-built fulfillment center is a major step forward for Alaris Aerospace,” said Bikram Jaswal, Chief Executive Officer of Alaris Aerospace Systems LLC, in the official announcement. “This change enables faster order processing, improved inventory accuracy, and a more consistent customer experience, while positioning us to scale as demand grows across commercial and defense markets.”

Phased Execution and Global Footprint

Managing the Transition

Large-scale logistical consolidations often present integration risks, such as aligning disparate systems and maintaining service quality during the physical movement of assets. To mitigate these risks, Alaris Aerospace is employing a phased migration strategy. The company noted that it is actively coordinating with its partners to minimize any potential supply chain disruptions during the move.

“The phased approach allows us to migrate inventory and workflows carefully while maintaining the high service levels our customers expect,” stated Ravinder Rathore, Chief Operating Officer. “We’re investing in people, systems, and processes to make this a net improvement for every partner we serve.”

Company Background and Scale

Founded in 2009, Alaris Aerospace Systems holds an Aviation Suppliers Association (ASA-100) accreditation and specializes in acquiring end-of-life commercial and regional aircraft. Industry data indicates the company performs approximately 10 to 12 aircraft teardowns annually, harvesting and refurbishing parts from Airbus, Boeing, Embraer, and ATR fleets. Alaris currently serves over 300 Airlines and Maintenance, Repair, and Overhaul (MRO) customers worldwide. In addition to its newly consolidated U.S. presence, the company maintains international sales offices and facilities in Dubai, United Arab Emirates; Kuala Lumpur, Malaysia; and Antwerp, Belgium.

Industry Context and Market Pressures

AirPro News analysis

Following years of global supply chain volatility, the aviation aftermarket sector has increasingly prioritized operational resilience. Centralizing warehousing operations is a recognized strategic method to gain tighter control over inventory and logistics, thereby reducing the variables that can lead to shipping delays and fulfillment errors. For Alaris Aerospace, this consolidation aligns with broader industry trends favoring streamlined, highly visible supply chains over fragmented regional networks.

However, the move is not without external challenges. The consolidation occurs amid broader labor constraints within the aviation sector. A recent case study by the Florida Chamber Foundation highlighted workforce shortages that could impact Florida’s aviation industry. As Alaris expands its operations at the new Jupiter facility, navigating these regional labor market constraints to recruit and retain skilled talent will likely be a critical factor in the center’s long-term success. Furthermore, competitors in the aftermarket parts sector may attempt to capture market share if any service disruptions occur during the company’s migration period, underscoring the importance of the phased execution strategy outlined by the company’s leadership.

Frequently Asked Questions

Where is the new Alaris Aerospace Global Fulfillment Center located?

The new centralized facility is located at 15971 Corporate Circle, Jupiter, Florida.

How many warehouses is Alaris Aerospace consolidating?

According to the company’s press release, Alaris is merging four of its existing U.S. warehouse locations into the single Jupiter facility.

Will the consolidation cause delays in parts fulfillment?

Alaris Aerospace has stated that the transition is being executed in phases, with a detailed operational plan designed to minimize disruption and ensure uninterrupted service to its customers.

Sources

• Alaris Aerospace Systems LLC Press Release
• Alaris Aerospace Systems Official Website

This article is based on an official press release from Locatory.

The aviation aftermarket is experiencing a sustained surge in demand for maintenance, repair, and overhaul (MRO) components tied to legacy engine platforms. According to a March 2026 market overview released by aviation marketplace Locatory, sourcing behavior is increasingly dominated by mature narrowbody aircraft, reflecting broader supply chain realities and fleet retention strategies across the global airline industry.

As operators continue to fly older aircraft longer than initially anticipated, the strain on the MRO supply-chain has become more pronounced. The latest data underscores a structurally driven demand cycle that highlights the critical need for reliable spare parts access to keep aging fleets operational.

Narrowbody Platforms Dominate Sourcing

The Locatory.com report indicates that search activity on its platform is heavily concentrated on mature narrowbody aircraft. Specifically, the Boeing 737 Next Generation (NG) and the Airbus A320ceo families remain the primary drivers of component sourcing worldwide.

These aircraft form the backbone of short- and medium-haul networks globally. With new-generation aircraft deliveries facing persistent delays, airlines are forced to extend the operational lives of their existing 737NG and A320ceo fleets. This extension directly translates into higher maintenance requirements and a corresponding spike in demand for replacement parts. In a company press release, Locatory.com noted that this trend represents a “sustained, structurally driven demand cycle.”

Supply Constraints Hit CFM56 and V2500 Engines

A significant portion of the MRO demand is focused on the powerplants that drive these legacy narrowbodies. The market overview highlights intense search concentration and ongoing supply constraints for components related to the CFM56 and V2500 engine families.

These engines are firmly in the mature phase of their lifecycles. As they accumulate more flight hours and cycles, the need for heavy maintenance and shop visits increases. The Locatory.com data confirms that the market for these specific engine platforms is highly active, with operators and MRO providers competing for a limited pool of available spare parts to ensure fleet reliability.

“The concentration of searches and supply constraints across CFM56 and V2500 powered fleets confirms a market that is firmly in the mature phase…” according to the Locatory.com market overview.

AirPro News analysis

We observe that the trends highlighted in the Locatory.com March report align with broader macroeconomic and industrial challenges facing the commercial aviation sector in 2026. The intense focus on CFM56 and V2500 engines is a direct symptom of the ongoing new-aircraft delivery shortfalls from major original equipment manufacturers (OEMs).

When airlines cannot secure new, fuel-efficient aircraft on schedule, they must invest heavily in their legacy assets to maintain capacity and meet passenger demand. This dynamic creates a bottleneck in the aftermarket, where the supply of used serviceable material (USM) and new replacement parts struggles to keep pace with the elevated maintenance requirements of aging fleets. Until the production rates of next-generation aircraft stabilize and delivery backlogs are cleared, we expect the MRO sector will continue to see intense pressure surrounding these proven, legacy engine platforms.

Frequently Asked Questions

What is driving the demand for legacy engine parts?

The demand is primarily driven by airlines extending the operational life of mature narrowbody aircraft, such as the Boeing 737NG and Airbus A320ceo, due to delays in receiving new aircraft deliveries.

Which engine platforms are experiencing the most supply constraints?

According to recent market data, the CFM56 and V2500 engine families are seeing significant search concentration and supply constraints as they enter the mature phase of their lifecycles.

How do supply chain issues affect airline operations?

A shortage of critical MRO components can lead to extended maintenance turnaround times, potentially grounding aircraft and reducing an airline’s operational capacity.

Sources: Locatory