RSS feed Add to your Facebook page LinkedIn Watch us on Youtube

Activity title

Additive Manufacturing to Support Forward Deployed Medical Forces- Printable On-Demand Medical Capabilities

Activity Reference

HFM-ET-204

Panel

HFM

Security Classification

NATO UNCLASSIFIED

Status

Active

Activity type

ET

Start date

2024-04-02T00:00:00Z

End date

2025-04-02T00:00:00Z

Keywords

3D Printing, Additive Manufacturing, Expeditionary Medicine

Background

Medical supply chains often use an outdated hub and spoke system, relying on large warehouses to keep current robust inventories that can then be pushed downstream to Role of Care 2 and Role of Care 3 consumers. Because these hubs are not optimized to support point-of-need and just-in-time delivery, this system requires significant infrastructure to maintain medical stock, and creates major delays and bottlenecks in the ability to get supplies and equipment to the right time and at the right place. Additive Manufacturing (AM) technology has the potential to streamline and expedite continuity of medical operations in austere locations by minimizing the need for on-site storage of certain supplies and reducing the necessity of long-range transport and tracking of equipment parts. This Technical Activity Proposal will identify how NATO member Nations plan and integrate AM tools and biotechnology solutions in different austere forward deployed operational environments.

Objectives

The scientific objectivesl focus on validating the efficacy of on-demand AM processes to support forward deployed medical assets, confirming the primary NATO countries that use or plan to use these capabilities, establishing the fundamental questions that must be addressed to establish AM as NATO capability and developing a plan for a more comprehensive workshop to explore these questions. The overarching question is whether these additive manufacturing protocols will provide more effective supply chain support over and above the current model of hub and spoke supply chain models for Class VIII medical material and what additional science and technology investments are required to make AM an effective MEDLOG capability. Additive manufacturing is the construction of a three-dimensional object from computer aided design (CAD) models or a digital 3D model. Originally, the term additive manufacturing was used to refer to a process that deposits a binder material onto a powder bed with inkjet printer heads layer by layer. More recently, the popular vernacular has started using the term to encompass a wider variety of additive-manufacturing techniques such as electron-beam additive manufacturing and selective laser melting. Additive manufacturing has seen tremendous success within the commercial sector. For example, the aviation industry has leveraged additive manufacturing to reduce cost, reduce the number of nonconforming parts, reduce weight in the engines to increase fuel efficiency and find new, highly complex shapes that would not be feasible with the antiquated manufacturing methods. From a medical perspective, these applications suggest AM could play an important role in streamlining MEDLOG. Medical supply chain doctrine relies on a hub and spoke approach where large warehouses are leveraged as central storage points and supplies are then “pushed” forward to various platforms as needed. However, this reactionary model causes extensive delays within the supply chain resulting in delays of needed Class VIII materials in weeks to months. A more proactive approach is one in which the ability to procure needed Class VIII material is provided as close to the medical platform as possible. AM has the promise to provide that ability.

Topics

To accomplish this, this exploratory group will investigate the use of additive manufacturing along six different and related dimensions: 1) Understanding the basic Operational Medicine Challenges best suited for these capabilities; 2) Assessing the current state of these capabilities and the environments in which they are currently used; 3) Characterizing outstanding science and technology challenges to be addressed; 4) Discussing approaches to integrating these capabilities into expeditionary medicine, logistics, and operational settings to support the future warfighter in austere operations; 5) Exploring how other technologies, like Artificial Intelligence and Modelling and Simulation may be incorporated into AM techniques; and, 6) Understanding how AM capabilities can support Humanitarian Aid / Disaster Relief.

Contact Panel Office