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Project MACE : Military Applications of Cyber Effects

Overview

This project is managed under the JIRA Epic Task Mace-1. Project MACE is an ongoing effort to leverage existing technologies and the internet of space to the advantage of warfighters whose arena is moving rapidly towards a mixed reality of physical and cyber space. Given the assumptions below, modern warfighters have a need to:

Assumptions

Project MACE is based on the following assumptions:

  1. SOF forces of the future will operate in ultra-dense urban environments (i.e., Brazilian favelas, New Delhi, etc.)
  2. Based on assumption 1, space-based assets will not be able to penetrate to the ground to provide the required intelligence.
  3. Based on assumption 1, deployment of munitions from air assets will result in an unacceptable collateral damage estimate.
  4. The second and third world will adapt Internet of Things (IoT) and ICS/SCADA faster than the U.S. due to an absence of legacy infrastructure.
  5. Based on assumptions 1 & 4, the electromagnetic environment will present particular challenges to tradition RF capabilities such as terrestrial radio.
  6. Based upon assumption 1, 4, 5, satellite communications will also be unsuitable due to a lack of ability to see the horizon without making our operators’ significant targets.

Phases

The assumptions above require a re-examination of capabilities that are typically provided by support elements to improve efficiency and war fighter capabilities. Our warfighters need, with some degree of imediacy, to be able to:

  1. Conduct a rapid survey of both physical and electromagnetic space
  2. Quickly assess, map, and integrate knowledge gained from step 1 in order to provide offensive, defensive and support capabilities based on the physical an EM environment. These capabilities include a necessity to visualize large amounts of information in coordination with geographic location in a GPS-degraded or denied environment.
  3. Conduct operations in ultra-dense urban environments while taking advantage of embedded capabilities and opportunities already present in the environment. These capabilities need to be employed with a minimum of operator interaction and must rely on new methods of information visualization and non-traditional human-computer interfaces

These objectives can be condensed into three phases:

Current Phase

As of 03.01.2019, Project MACE is in the midst of its Discovery and Reconnaissance phase, in which we intend to assemble tools capable of (1) obtaining multiple device signatures from and area and (2) compiling these signatures in a single database or warehouse capable of (3) querying device meta-data from one or more signatures.

MACE

SOFWERX Cyber Security project is called MACE (Military Applications of Cyber Effects)

This project is based upon the following assumptions:

  1. SOF forces of the future will operate in ultra-dense urban environments (i.e., Brazilian favelas, New Delhi, etc.)

  2. Based on assumption 1, space-based assets will not be able to penetrate to the ground to provide the required intelligence.

  3. Based on assumption 1, deployment of munitions from air assets will result in an unacceptable collateral damage estimate.

  4. The second and third world will adapt Internet of Things (IoT) and ICS/SCADA faster than the U.S. due to an absence of legacy infrastructure.

  5. Based on assumptions 1 & 4, the electromagnetic environment will present particular challenges to tradition RF capabilities such as terrestrial radio.

  6. Based upon assumption 1, 4, 5, satellite communications will also be unsuitable due to a lack of ability to see the horizon without making our operators’ significant targets.

These assumptions require a re-examination of capabilities that are typically provided by support elements. Our operators need to be able to:

  1. Conduct a rapid survey of both physical and electromagnetic space

  2. Quickly assess, map, and integrate knowledge gained from step 1 in order to provide offensive, defensive and support capabilities based on the physical an EM environment. These capabilities include a necessity to visualize large amounts of information in coordination with geographic location in a GPS-degraded or denied environment.

  3. Conduct operations in ultra-dense urban environments while taking advantage of embedded capabilities and opportunities already present in the environment. These capabilities need to be employed with a minimum of operator interaction and must rely on new methods of information visualization and non-traditional human-computer interfaces.

Phase-1: establish and populate a Device Signature Repository

Query device characteristics based on combination of device signatures from multiple domains (ie. cyber, radio frequency, physical)

  • Identify devices based on images from a Drone

  • Identify devices based on RF Signals

  • Identify devices based on Cyber Information

  • Identify devices from combination of domains

Create a database that stores characteristics for each device

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