Operational Digital Twine (ODT)

NUMO_DoD_PoN_Challenge_Armadillo

OVERVIEW

Funding Opportunity:

DoD Point of Need Manufacturing Challenge: To best protect and pursue our interests at home and abroad, the United States relies on a robust and innovative domestic manufacturing sector. The federal government has established Manufacturing Innovation Institutes (MIIs) to be national, public-private partnerships including leaders in industry, academia, and nonprofits.  The MIIs were established to develop, demonstrate, and accelerate the early adoption of advanced manufacturing by funding research, development, technology, engineering, education, and workforce development projects and by creating an ecosystem that advances advanced manufacturing.

Our response to the challenge, code named Response Armadillo, is the Operational Digital Twine (ODT) enables localized production of parts in military frontline operational bases that is devoid of supply chain logistics and are in an austere environment where inclement conditions can add another dimension to the needs of the warfighters. Armadillos are hardy animals with a tough leathery shell and they roll up into a ball when attached by predators. A summary of the animal is at the end of this whitepaper

Utilizing Additive Manufacturing techniques frontline operations will be able to create spare parts on demand and in an expeditious manner. This use case addresses both remote manufacturing operations using 3D printing and also the well-being of war fighters by embedding smart devices (like brainwave and OCD – habit monitoring) utilizing locally created products like helmets.

This document is extracted from our Proposal to the DoD that was presented at ARM in Pittsburg. It maintains its original format with some changes for legibility, removal of classified information and names of partners to protect privacy.

MII PoN Challenge RFP
PART A – Remote Additive Manufacturing
PART B – Vanguard Wellbeing
Operational Digital Twine Presentation to MII

TABLE OF CONTENTS

  • Premise
  • Project Goals
  • Special Topic Areas
  • Proposed Solution
    • Part A – Remote Additive Manufacturing
      • Quad Chart Detail for Part A
    • Part B – Vanguard Wellbeing
      • Quad Chart Detail for Part B
  • High Level Interactions
  • Implementation Artifacts
    • MxD Digital Playbooks
    • Microsoft Azure Foundation
    • Markforged Additive Manufacturing Capabilities
  • Operational Digital Twine Framework
  • Reference Architecture
  • 3-Tier Orchestration
    1. Upstream
    2. Midstream
    3. Downstream
  • Test Mule – The Armadillo Helmet
  • Program Management Plan
  • Conclusion
  • ChatGPT Summary
  • About the Armadillo

PREMISE

In frontline military operations taking place in austere and remote locations with limited access to traditional supply chains and logistics support, there is a critical need to:

  1. Enable On-Site Manufacturing: Provide the capability for expedited and localized production of essential parts and equipment through advanced additive manufacturing techniques, specifically 3D printing. This capability ensures that frontline personnel have access to crucial spare parts and equipment when traditional supply chains are not feasible.
  2. Enhance Warfighter Well-Being: Improve the well-being and health monitoring of military personnel by embedding smart sensors in wearables, such as helmets and bracelets, to detect biometric data, including brainwave patterns and behavioral markers like Obsessive-Compulsive Disorder (OCD). This data allows for proactive and predictive maintenance and ensures that appropriate support and care can be provided to warfighters in real-time.
  3. Leverage Digital Technologies: Utilize a digital framework that integrates various technologies and components, including digital playbooks for efficient manufacturing processes, a secure and localized infrastructure, data orchestration, advanced additive manufacturing platforms, and sophisticated monitoring systems.
  4. Test in Austere Conditions: Physically test the proposed framework and technologies in challenging austere conditions to demonstrate their feasibility and effectiveness in remote military operations.

Overall, the premise of Project Armadillo is to create a comprehensive solution that not only addresses the logistical challenges of frontline military operations but also prioritizes the well-being and support of warfighters by harnessing advanced digital technologies and manufacturing techniques.

PROJECT GOALS

Response Armadillo aims to demonstrate innovative manufacturing solutions for frontline production, utilizing additive manufacturing technologies, local infrastructure, and wearables with biometric sensors. It will be tested in austere conditions to prove its viability and effectiveness in remote military operations.

This project responds to the challenge of enabling on-site manufacturing and monitoring in challenging operational environments, ultimately contributing to the safety and effectiveness of warfighters in the field.

The project’s goals, as outlined in Project Armadillo, are as follows:

1. Innovative Manufacturing Solutions: Develop and demonstrate innovative manufacturing solutions specifically tailored for frontline military production.

2. Utilization of Additive Manufacturing: Make effective use of additive manufacturing technologies, particularly 3D printing, to enable the rapid production of essential parts and equipment in remote military operational environments.

3. Localized Infrastructure: Establish a secure and localized infrastructure, including edge servers and 3D printers, to support on-site manufacturing needs.

4. Biometric Sensor Integration: Incorporate biometric sensors into wearables, such as helmets and bracelets, to monitor the well-being and health of military personnel in real-time.

5. Testing in Austere Conditions: Physically test the entire framework and technologies in austere and challenging operational conditions to validate their practicality and effectiveness.

6. Addressing Operational Challenges: Respond to the challenges of on-site manufacturing and monitoring in remote and challenging operational environments, where traditional supply chains and logistics support are limited.

7. Enhancing Warfighter Safety: Ultimately, prioritize the safety and effectiveness of warfighters by ensuring they have access to critical equipment and support, even in challenging and remote military operations.

In summary, Project Armadillo aims to develop, test, and demonstrate a comprehensive solution that integrates advanced manufacturing techniques, local infrastructure, and biometric monitoring to address the unique challenges faced by frontline military personnel. This project’s success will contribute to the safety and effectiveness of warfighters in austere operational environments.

SPECIAL TOPIC AREAS FOR PoN MANUFACTURING CHALLENGE

A successful solution conveys a technical approach or methodology that demonstrates an advanced manufacturing system that could address one or more of the challenges below.  Each challenge is based on a Class of Supply. Projects shall demonstrate the technology that could address the scenario and be deployed and perform in the required operational environment:

Scenario: U.S. forces are engaged in an operation at an austere forward operating base (FOB) in a remote location and no access to normal logistics support. Manufacturing at the FOB will provide capabilities and sustain personnel and equipment to successfully complete their operation.

Operational environment: The reach of U.S. forces is global. For the sake of the challenge, the demonstration location could be either a cold weather (i.e. arctic-type) location or a hot-humid location. DoD will determine a location within the continental United States (CONUS) to host the manufacturing challenge event and this location will be either cold weather or hot-humid. The proposer’s solutions must be able to operate in both conditions even though they will be demonstrated in only one chosen by DoD.

Items marked in red will be our areas of interest for the response to the challenge.

  • Build the FOB Challenge:
    1. Class IV – Civil engineering teams need to build structures and infrastructure for personnel and operations at the FOB. Ideally, locally available materials would be used to build structures and infrastructure.
  • Unmanned Ground Vehicles (UGV) Challenge:
    1. Class VII – Demonstrate the ability to manufacture and assemble a limited-capability UGV with control/navigation, power, motor, and at least one sensor.
  • Warfighter Medical, Health, and Nutrition Challenge:
    1. Class VIIIa – In combat situations, the 60 minutes after a traumatic injury is called the Golden Hour. Demonstrate local manufacturing of care items to support traumatic injury care.
    2. Class VIIIa – If a FOB has no access to normal logistics support, standard medical care must continue. Demonstrate local manufacturing of items to support standard medical care.
    3. Class I – Provide the means for local production of nutrition for warfighters
    4. Class II – Wearables for physiological monitoring of warfighters
    5. Class II – Field manufactured clothing for extreme environments: hot humid or cold weather
  • Power Challenge
    1. Class III – Locally produce Petroleum, Oil, Lubricants (POL) to power and sustain equipment
    2. Locally produce means for clean energy to power equipment
  • Cyber Challenges
    1. Need for securely sharing files with allies or partners operating at or near FOB
    2. Digital backbone for FOB PoN manufacturing
  • Staying in the Fight Challenge
    1. Class IX – Demonstrate the ability to manufacture in the field a set of repair items from a list provided by the DoD
    2. Class II – Demonstrate the ability to manufacture in the field equipment such as small arms, individual equipment, tentage, aerial delivery equipment, organizational tool sets and kits, hand tools, unclassified maps, administrative and housekeeping supplies and equipment.
    3. Class V – Demonstrate the ability to manufacture munitions in the field
  • Other
    1. Proposers could identify a challenge that would correspond to the scenario of austere forward operating base (FOB) in a remote location and no access to normal logistics support in a cold weather or hot-humid environment.

Class of supply definitions

Classes marked with an asterisk (*) are represented in the challenge.

  • *Class I– Rations – Subsistence (food and drinking water), gratuitous (free) health and comfort items.
  • *Class II– Clothing And Equipment – individual equipment, tentage, some aerial delivery equipment, organizational tool sets and kits, hand tools, unclassified maps, administrative and housekeeping supplies and equipment.
  • *Class III– POL – Petroleum, Oil and Lubricants (POL) (package and bulk): Petroleum, fuels, lubricants, hydraulic and insulating oils, preservatives, liquids and gases, bulk chemical products, coolants, deicer and antifreeze compounds, components, and additives of petroleum and chemical products, and coal.
  • *Class IV– Construction materials, including installed equipment and all fortification and barrier materials.
  • *Class V– Ammunition of all types, bombs, explosives, mines, fuses, detonators, pyrotechnics, missiles, rockets, propellants, and associated items.
  • Class VI– Personal demand items (such as health and hygiene products, soaps and toothpaste, writing material, snack food, beverages, cigarettes, batteries, alcohol, and cameras—nonmilitary sales items).
  • *Class VII– Major end items such as launchers, tanks, mobile machine shops, some parachute systems and vehicles.
  • *Class VIII– Medical material (equipment and consumables) including repair parts particular to medical equipment. (Class VIIIa – Medical consumable supplies not including blood & blood products; Class VIIIb – Blood & blood components (whole blood, platelets, plasma, packed red cells, etc.).
  • *Class IX– Repair parts and components to include kits, assemblies, and subassemblies (repairable or non-repairable) required for maintenance support of all equipment.
  • Class X– Material to support nonmilitary programs such as agriculture and economic development (not included in Classes I through IX).
  • Miscellaneous – Water, salvage, and captured material.

PROPOSED SOLUTION

We will implement an innovative manufacturing solution for the management of front-line production. We will utilize Additive Manufacturing technologies and a local off-line infrastructure comprising of edge servers, 3D printers and trained personal. This will showcase the art of the possible coupled with the science of engineering to accomplish the needs for remote manufacturing and enable the heath monitoring of the warfighters. We will also physically test the framework (both the digital and physical aspects) in austere conditions.

Project Armadillo will consist of two Parts:

Part A – Remote Additive Manufacturing

In Part A, we address the need for expeditionary manufacturing to enable the warfighters to quickly 3D-print parts in the front lines.

Our goal is to develop a digital framework to manage the process, logistics and fulfillment of the scenario presented in the challenge:

U.S. forces are engaged in an operation at an austere forward operating base (FOB) in a remote location and no access to normal logistics support. Manufacturing at the FOB will provide capabilities and sustain personnel and equipment to successfully complete their operation.

We intend to:

  • Use our Digital Twine automation architecture to blueprint every aspect of the process,
  • Implement a secure data management framework (hardware + infrastructure) provided by Microsoft’s proven industry solutions for defense and intelligence,
  • Utilize Markforged Eiger additive manufacturing platform for off-line 3D printing that has already been validated by the US military for remote location job submission and print management, and
  • Reuse knowledge from several MxD DoD strategic investment plans (SIPs), courses and workshops that we have been part of since 2021.

Part B – Vanguard Well Being

In Part B, we address the need for monitoring Warfighter Medical, Health, and Nutrition to enable their well-being by using bio-metric sensors embedded to wearables.

Our goal is to enable the wellbeing of the front-line fighters corresponding to the scenario:

U.S. forces are engaged in an operation at an austere forward operating base (FOB) in a remote location, no access to normal logistics support and there is need to monitor their well-being.

We will coordinate the logistics and management of sensors embedded in wearables and its data streaming in terms of need monitoring, safety, security, privacy, storage, and availability. We will utilize the Digital Framework that we have proposed in Project A – The Operational Digital Twin to ensure that all aspects of data transfer and physicality of the wearables is accounted for in this project. We will also test the wearables for functionality and usability in austere conditions.

For Part B, the Vanguard Well Being, we will:

  • Print the Armadillo Helmet as a proof for remote manufacturing using Markforged X7 Field 3-D printer.
  • Provide a robust casing to house the NoMo Diagnostic wearables including a skullcap.
  • Embed NoMo Diagnostic Sensors in the Helmet, and the HabitAware bracelet as wearables on the warfighter, and
  • Transfer sensor data to edge servers defined in Project A for bio-metric analysis.

HIGH LEVEL INTERACTIONS

We envisage a digital framework for expeditionary manufacturing and on-site management in the remote austere location for the Operational Digital Twine. It combines various technologies and components to enable efficient and secure operations. It will be based on our partnership model called Linked Solutioning where we will bring to bear tools and technologies in conjunction with our partners to enable the correct implementation of the project.

NUMO_ODT_InteractionDiagram2

IMPLEMENTATION ARTIFACTS

1. DIGITAL PLAYBOOKS – Digital playbooks are essentially guides or manuals that provide step-by-step instructions and procedures for manufacturing processes. They are based on industry expertise and can help ensure that manufacturing operations in remote locations are carried out effectively and efficiently. In this case we will leverage MxD’s knowledge base and best practices based on their smart manufacturing initiatives driven by their Strategic Investment Projects (SIP) portfolio.

For the requirement to state Consortium Developed Intellectual Property (CDIP), itemized below are the projects that we have been part of at MxD that we will be using as playbooks and guidebooks for our progression along this project:

2. FOUNDATION – Microsoft’s Azure Stack Edge serves as the foundational infrastructure for this digital framework. It provides a localized environment for securely managing files, data, and processes. This localized infrastructure is crucial for ensuring data security and reliability in remote locations where connectivity may be limited or unreliable.

3. ORCHESTRATION – Numorpho’s Digital Twine Reference Architecture plays a critical role in connecting various data streams within the framework. Orchestration involves intelligently managing the flow of data and information between different components and systems, ensuring seamless integration, communication and actionability. This is essential for coordinating manufacturing processes and data exchange. The Digital Twine is a toolset in the Mantra M5 process automation platform that enables activities in make, manage, move, market and maintain workflows. This is detailed in the subsequent sections.

4. ADDITIVE MANUFACTURING – Markforged Federal division’s off-line Eiger platform is used for additive manufacturing processes. It converts Computer-Aided Design (CAD) STL files into machine G-code, which is specific to the 3D printer being used. This element allows for the intelligent printing of parts and efficient production management in remote locations. Additive manufacturing is particularly valuable in situations where traditional manufacturing methods are challenging.

Markforged’s Additive Manufacturing Digital Forge technologies are a suite of advanced tools and solutions designed to enhance the 3D printing process. This suite comprises 3D printers, the Eiger fleet, and the Teton Simulation package embedded in their slicer. Here’s a summary of each component:

  1. 3D Printers:
    • Markforged offers a range of 3D printers designed for industrial and advanced manufacturing applications.
    • These printers are known for their reliability and versatility, capable of producing parts with a variety of materials, including plastics, metals, and composites.
    • Markforged’s 3D printers are used for producing functional, high-strength parts suitable for a wide range of industries, from aerospace to automotive.
  2. Eiger Fleet:
    • Eiger is Markforged’s cloud-based 3D printing software platform.
    • The Eiger Fleet is an extension of Eiger that allows for centralized management and control of multiple 3D printers within an organization.
    • It provides features like remote monitoring, job scheduling, and analytics, making it easier to manage and optimize 3D printing operations across various locations.
  3. Teton Simulation Package:
    • Teton is a simulation package embedded within Markforged’s slicer software.
    • It enables users to simulate the 3D printing process before actually printing a part.
    • With Teton, users can identify potential issues such as warping, structural weaknesses, or print failures in advance, allowing for adjustments to be made to the design or print settings.
    • This simulation capability helps improve the quality and reliability of 3D printed parts and reduces the likelihood of costly errors.

Markforged’s Additive Manufacturing Digital Forge technologies encompass a comprehensive ecosystem of 3D printing solutions. Their 3D printers are known for their industrial-grade capabilities, while Eiger Fleet simplifies the management of multiple printers. The embedded Teton Simulation package adds an important quality control aspect by allowing users to simulate prints and address potential issues before they occur, resulting in more reliable and high-quality prints.

The Digital Forge is an integrated platform that combines software, hardware, and materials to enable manufacturers to create strong and reliable parts on-demand, right at the point of need. The platform consists of three main components:

  1. Desktop and Industrial 3D printers – The 3D printers include the Desktop series and the Industrial series, which can print high-strength composites and metals, respectively. The printers are equipped with sensors, laser inspection, and cloud connectivity to ensure quality and reliability. The enterprise software includes Eiger, a browser-based interface that allows users to design, slice, and manage their prints from anywhere. Eiger also integrates with Teton Simulation, a software that optimizes print settings and validates print quality using finite element analysis (FEA).
  2. Enterprise Software – , and
  3. Industrial materials – The materials include continuous fiber reinforcement (CFR) composites, which can produce parts as strong as 6061 T6 aluminum, and various metals, such as stainless steel, copper, titanium, and tool steel..

The Digital Forge is powered by artificial intelligence (AI) that learns from data collected from over 10,000 connected printers and over 10 million completed prints. The AI enables the platform to improve its performance and capabilities over time through over-the-air (OTA) software updates.

The Digital Forge is the world’s most secure additive manufacturing platform, as it has achieved ISO/IEC:27001 certification for information security and ISO:9001 certification for quality management2.

SMART MONITORING – Enable proactive and predictive maintenance as well as enhance the wellbeing of warfighters by adding sensors to detect the environment, utilize brain wave to understand obsessive-compulsive (OCD) behavior so that appropriate short-term and long-term help can be provided. The inclusion of sensor technology for health and behavioral monitoring is a forward-looking approach to ensure the physical and mental well-being of personnel in remote and austere locations.

This is part of our CONNECT-DETECT-PROTECT theme that endeavors to utilize sensors to do real time monitoring of the lay of the land and the occupants wellbeing and utilize actionable intelligence to infer and decipher next steps by utilizing generative AI techniques to predict action.

OPERATIONAL DIGITAL TWINE FRAMEWORK

The Operational Digital Twine Framework would consist of 3 layers – The Digital, the Physical and the Core (containing Master records) divided into Upstream (Product data and raw materials logistics), Midstream (enable additive manufacturing) and Downstream (parts maintenance and wellbeing monitoring)

A. Digital Layer:

  • This layer deals with the digital aspects of the framework, focusing on data management, information flow, and digital processes.
  • It encompass the use of digital playbooks (from MxD), data orchestration (Numorpho), and other digital tools (Remote Eiger) to streamline manufacturing operations and data exchange (Azure on-prem provisioning).

B. Physical Layer:

  • The physical layer involves the tangible and practical elements of the framework, such as hardware, equipment, and the actual manufacturing processes.
  • It includes additive manufacturing equipment like 3D printers (Markforged X7), infrastructure like edge servers (Azure in a box), and the physical production of parts and components (CAD library).

C. Core Layer:

  • The core layer serves as the central component of the framework, containing master records and information critical to the entire system’s functioning.
  • It will manage and maintain the operations using a distributed ledger that spans across all of the aspects of the remote manufacturing and war fighter wellbeing functionalities.

1. Upstream:

  • This component deals with product data and raw materials logistics, encompassing information related to the materials needed for manufacturing and the initial stages of production.

2. Midstream:

  • The midstream component is dedicated to enabling additive manufacturing processes. It likely includes the tools, software, and infrastructure required for 3D printing and part production.

3. Downstream:

  • Downstream focuses on parts maintenance and well-being monitoring. It involves the post-production phase, where parts are monitored, maintained, and the well-being of personnel is tracked through sensors and other technologies.

This layered approach provides a structured and organized framework for managing the various aspects of manufacturing and on-site management in remote and austere locations. It ensures that digital, physical, and core elements work together seamlessly to support expeditionary manufacturing operations while also addressing the well-being of personnel in challenging environments.

REFERENCE ARCHITECTURE

We shall utilize the Digital Twine Reference Architecture to enable the Orchestration of the Upstream, Midstream and Downstream activities as depicted in the diagram below.

Utilizing the Digital Twine Reference Architecture to enable the orchestration of Upstream, Midstream, and Downstream activities is our strategic approach to ensure a cohesive and efficient operational framework. Here’s how each of the mentioned activities will be orchestrated within this framework:

  1. Planning & Governance:
    • Orchestration in this context involves coordinating planning processes, ensuring compliance with regulations, and governance of manufacturing activities. It includes materials and equipment procurement, the scheduling of production runs and resource allocation.
  2. Front-line Operations:
    • Orchestration here focuses on coordinating and optimizing front-line manufacturing activities. It ensures that the right tasks are executed at the right time and that resources are allocated securely and efficiently in austere environments.
  3. Parts Catalog Management:
    • Orchestration in this area involves managing the catalog of parts and components needed for manufacturing. It ensures that the catalog is up-to-date, accessible, and aligns with production requirements.
  4. 3D Printing:
    • Orchestrating 3D printing processes entails managing the entire additive manufacturing workflow. This includes converting CAD designs into machine-readable instructions, selecting the appropriate printer and materials, and overseeing the printing process.
  5. Data Management:
    • Data orchestration ensures the smooth flow of data across the framework. It includes managing data storage, access, and security, as well as facilitating data exchange between different components and systems.
  6. Actionable Intelligence:
    • Orchestration here involves processing and analyzing data from various sources to generate actionable insights. These insights can be used for decision-making, predictive maintenance, improving manufacturing processes and effectively monitoring the wellbeing of warfighters.
  7. Logistics & Support:
    • Orchestration of logistics and support activities ensures that raw materials, equipment, and personnel are deployed efficiently to support manufacturing operations. It may involve real-time tracking of logistics and resource allocation.
  8. Security and Privacy:
    • Orchestration of security and privacy measures is critical in a military context. It involves implementing robust security protocols to protect data and systems while also ensuring compliance with privacy regulations.

By leveraging the Digital Twine Reference Architecture for orchestration, we create a cohesive and integrated framework where these activities work in harmony. This ensures that manufacturing operations in remote and austere locations are efficient, secure, and well-coordinated, ultimately contributing to the success to our response to the PoN Challenge and the well-being of warfighters.

3-TIER ORCHESTRATION

A. Upstream

B. Midstream

C. Downstream

TEST MULE – THE ARMADILLO HELMET

Rethinking what is possible

  • 3D PRINTABLE
  • FOLDABLE – 1/6th the size of a regular helmet when folded
  • CUSTOMIZABLE – can be tailored to fit warfighters head form
  • ADAPTABLE – can include brainwave sensors for monitoring health and well being

This helmet is our testament to Additive Manufacturing, and it personifies our “Born not Built” philosophy to create transformational products and services.

REFERENCE: The Making of the Folding Helmet

PROGRAM MANAGEMENT PLAN

CONCLUSION

The Operational Digital Twine (ODT) is a comprehensive framework designed for expeditionary manufacturing and on-site management in remote and austere locations The premise of the Operational Digital Twine is to address the challenges of manufacturing and on-site management in austere and remote military operational environments with additional benefits to catering to the wellbeing of warfigthers. It aims to:

  • Enable localized and rapid production of essential parts and equipment, particularly in situations where traditional supply chains are unavailable.
  • Enhance the well-being and health monitoring of military personnel through advanced biometric sensors.
  • Utilize a digital framework that integrates various technologies for efficient and secure operations.
  • Test and validate the framework’s viability and effectiveness in challenging, austere conditions.
  • Contribute to the safety and effectiveness of warfighters in remote military operations by ensuring access to critical equipment and support.

In summary, ODT is a forward-looking solution designed to optimize manufacturing processes, improve the well-being of military personnel, and ensure the success of military operations in challenging and remote environments.

NITIN UCHIL – Founder, CEO & Technical Evangelist
nitin.uchil@numorpho.com

Summary by ChatGPT

This document outlines Response Armadillo, a response to the DoD Point of Need Manufacturing Challenge. The project, also known as the Operational Digital Twine (ODT), aims to enable localized production of parts in military frontline operational bases, especially in austere environments where supply chain logistics are challenging. It leverages additive manufacturing techniques and smart monitoring technologies to address these challenges.

Components of Project Armadillo:

  1. Remote Additive Manufacturing (Part A):
    • Objective: Enable rapid 3D-printing of parts in frontline operations.
    • Approach:
      • Develop a digital framework to manage the entire manufacturing process.
      • Implement a secure data management framework provided by Microsoft.
      • Use the Markforged Eiger additive manufacturing platform for offline 3D printing.
      • Utilize knowledge from MxD DoD strategic investment plans.
    • This part focuses on addressing manufacturing needs in remote locations where traditional logistics support is unavailable.
  2. Vanguard Well Being (Part B):
    • Objective: Monitor the medical, health, and nutrition of frontline fighters through biometric sensors embedded in wearables.
    • Approach:
      • Coordinate the logistics and management of wearable sensors and their data.
      • Ensure data transfer and physicality of wearables through the proposed Digital Framework from Project A.
      • Test wearables for functionality and usability in austere conditions.
    • This part aims to enhance the well-being of warfighters in remote locations where normal logistics support is lacking.

Key Elements of the Operational Digital Twine (ODT):

  • Digital Playbooks: Guides and manuals for effective manufacturing processes based on industry expertise, leveraging MxD’s knowledge.
  • Foundation: Microsoft’s Azure Stack Edge provides secure local infrastructure for data management in remote locations.
  • Orchestration: Numorpho’s Digital Twine Reference Architecture connects various data streams within the framework to ensure seamless integration.
  • Additive Manufacturing: Markforged Federal division’s Eiger platform facilitates intelligent 3D printing of parts in challenging environments.
  • Smart Monitoring: Incorporates sensors to detect brainwave and OCD behavior, enabling proactive and predictive maintenance and supporting warfighters’ well-being.

ABOUT THE ARMADILLO

  • Armadillos are mammals that have a leathery armor shell and long, sharp claws for digging. They are native to the Americas, where they inhabit a variety of different environments.
  • Armadillos have short legs, but can move quite quickly. The average length of an armadillo is about 75 cm (30 in), including its tail. The largest species can grow up to 150 cm (59 in) and weigh up to 54 kg (119 lb), while the smallest species is only 13–15 cm (5–6 in).
  • Armadillos are omnivorous, and feed on insects, worms, grubs, small vertebrates, plants, fruits, and carrion. They use their keen sense of smell to locate their prey, and dig with their claws to unearth them. They also dig burrows for shelter and protection
  • Armadillos have poor eyesight, but good hearing. They are mostly nocturnal or crepuscular, meaning they are active at night or dusk. They are solitary animals, except during the mating season or when raising young
  • Armadillos have unique reproductive traits. One species, the nine-banded armadillo, always gives birth to four identical quadruplets that originate from a single egg. Another species, the three-banded armadillo, is the only one that can roll itself into a ball when threatened by predators.
  • Armadillos are also interesting animals from an evolutionary and ecological perspective. They are part of the superorder Xenarthra, along with the anteaters and sloths. They are related to the extinct glyptodonts, which were giant armored mammals that lived during the Ice Age. They are also the only known living mammals that can contract leprosy.