1. MicroToken Exchange Data Security Solutions
Use Case Solution: GVSC
Securing Real Time Commands and Video

2. The Customer: The GVSC
The United States Army CCDC Ground Vehicle Systems Center (GVSC), located in Warren, Michigan, is the United States Armed Forces' research and development facility for advanced technology in ground systems. It is part of the U.S. Army Combat Capabilities Development Command (CCDC), a major subordinate command of the U.S. Army Futures Command.

3. The Challenges and Requirements The MTE and GVSC Implementation
The Use Case Process Flow
The Challenges and Requirements
The MTE Solution
The MTE and GVSC Implementation

4. Leader Follower Vehicles Military Ground Vehicles
The Challenges
Common Software
Aerial
Vehicles
Leader Follower Vehicles
Autonomous Vehicles
Military Ground Vehicles
A variety of military vehicles use the same software and electronic architectures as commercial vehicles.
They are potentially vulnerable to hacking.
To help it defend its fleets, the GVSC and all military sectors scout for an intrusion defense system that can protect against cyber-attacks on military vehicles.
Adversaries probe and exploit systems used by government, law enforcement, military, intelligence and critical infrastructure in the United States and abroad.

5. Secure Live Video Transmission
The Requirements
Secure Live Video Transmission
Thwart Replay Attacks
Secure Command
and
Control

6. The Solution: Eclypses MicroToken Exchange (MTE)
MTE secures Data at Rest or, in this case, Data in Transit.
MTE handles all the “Key Management” so that you do not have to.
MTE prohibits unauthorized access.
MTE thwarts “replay-attacks
MicroToken Exchange MTE PCI DSS Certified MicroToken Exchange MTE

7. The MTE Implementation – Phase I
Eclypses provided technical collaboration to determine
the best scheme for deployment.
The Eclypses team embedded MTE “methods” within the GVR-Bot application. This required inserting our MTE “code”, Into the “source code” of the robotic operating system.
The same process was followed for the “controller”.
Implementation

8. The MTE Implementation – Phase II
Eclypses tested for vulnerabilities around the installation.
The GVR-Bot was then tested by GVSC along with an independent third party.
Enhancements and adjustments were made to fortify the overall architecture of the solution provided.
The GVR-Bot was then re-tested by the same independent third party and the results were extraordinary.
The Eclypses team met with the GVSC Penetration Test team to collaborate regarding additional enhancements that the GVSC team wanted to see.
Eclypses implemented those changes and completed the POC.
Implementation

9. Risk Management with variable parameters
RESULT: The GVR Bot SECURED with MTE!
Output Window
Risk Management with variable parameters
MicroToken Packets replaced “real commands” and were transmitted, received and interpreted by the intended endpoint
Live video streams were secured a single frame at a time, secured by MTE.
Security Protection Is Our Highest Priority

10. Technical live demonstration is scheduled for October 2019
The GVSC Implementation
Technical live demonstration is scheduled for October 2019
Top Brass as well as many other interested parties will be in attendance
Additional POC’s are expected after the extraordinary success that was demonstrated

11. Illustration of GVR Bot Remote commands
Sending Device
Receiving Device
Command List
Move Forward
Move Backward
Turn left 90 Degrees Turn Right 90 Degrees
Stop
Fire projectile
Transmit Video
Self-Destruct
Command List
Move Forward
Move Backward
Turn left 90 Degrees Turn Right 90 Degrees
Stop
Fire projectile
Transmit Video
Self-Destruct
Paired Devices

12. Illustration of GVR Bot Remote commands with MTE
Sending Device
Receiving Device
Command List
Move Forward
Move Backward
Turn left 90 Degrees Turn Right 90 Degrees
Stop
Fire projectile
Transmit Video
Self-Destruct
Command List
Move Forward
Move Backward
Turn left 90 Degrees Turn Right 90 Degrees
Stop
Fire projectile
Transmit Video
Self-Destruct
MicroToken within a
MicroToken Packet
transmitted to the
Receiving endpoint
(6I<'nsh`9^M~>}/_)
(^2L?OOU}xK'kT}Y#tO?<H9yK>kbP~h!Bzrl)3KXyQ6KNoG]EY76I<'nsh`9^M~>}/_?O3$V<^Ypa5-L-LW|LT4+4Mx3TM

13. Transmitted Packet Received
Illustration of GVR Bot Remote commands with MTE
Sending Device
Receiving Device
Command List
Move Forward
Move Backward
Turn left 90 Degrees Turn Right 90 Degrees
Stop
Fire projectile
Transmit Video
Self-Destruct
Command List
Move Forward
Move Backward
Turn left 90 Degrees Turn Right 90 Degrees
Stop
Fire projectile
Transmit Video
Self-Destruct
(6I<'nsh`9^M~>}/_)
Transmitted Packet Received
Command Interpreted
(^2L?OOU}xK'kT}Y#tO?<H9yK>kbP~h!Bzrl)3KXyQ6KNoG]EY76I<'nsh`9^M~>}/_?O3$V<^Ypa5-L-LW|LT4+4Mx3TM

14. Validation of Eclypses’
Third Party Penetration Tested
Validation of Eclypses’
MicroToken Exchange
“With the method of key generation, even if the attacker intercepts the initial key/pin, they would need to brute force their way to the discovery of the algorithm, with that being said, it would take nation state actors to even attempt to break the encryption process without having access to the source code
In other words, very improbable.” – H2L Solutions (Military Penetration Testing Facility)

15. Contact Us Securing Data via MicroToken Exchange
For more information contact:
(USA)
Contact Us
Ensuring that sensitive data remains unavailable
to exploitation in the event of an internal
or external network defense breach