Military Vehicle Fleet Command & Dispatch System

This document provides an integrated command & dispatch system solution based on private network connectivity and converged AI intelligence, tailored to the special confidentiality requirements and emergency command needs of military vehicle fleets. The document elaborates on the system design logic, technical details of core products (MCC6000 Mobile Command Box, MCC3500 Vehicle-mounted Service Terminal, MCC560 Individual Soldier Portable Device), functional implementation paths, and deployment plans, ensuring the system meets key requirements such as communication confidentiality, multi-mode interconnection, intelligent assistance, and emergency self-healing in military operations, providing comprehensive technical support for the digitalization and security upgrade of military vehicle fleet command & dispatch.

1.2 Application Background

As the core carrier for military mission execution, material transportation, and troop deployment, military vehicle fleets have strict confidentiality specifications and complex environmental adaptability requirements during driving and command processes:

• Communication: Reliance on civilian communication facilities (mobile phones, carrier 4G/5G networks) is strictly prohibited; dedicated communication means must be used to ensure link security and data confidentiality;

• Dispatch: Multi-level coordination of base - command vehicle - individual vehicle - individual soldier must be achieved to address emergency communication needs in complex terrain and extreme environments;

• Security: Technical measures must be employed to prevent communication leakage, link interruption, driving risks, and other issues, enhancing mission reliability;

• Data: Navigation and road condition data must be transmitted in a closed loop, avoiding data interaction with external public facilities to ensure mission concealment.

The current traditional command & dispatch model suffers from pain points such as single communication links, insufficient confidentiality performance, lack of intelligent assistance, and delayed emergency response, making it difficult to meet the efficiency and coordination requirements of modern military operations. This system, based on MCC series core equipment, integrates key technologies including satellite communication, SDR ad-hoc networking, and AI edge computing, to specifically address the core pain points of military vehicle fleet command & dispatch, building an integrated command system featuring "confidential and reliable, multi-mode redundant, intelligent collaborative, and emergency self-healing."

1.3 Document Scope

This document covers the full lifecycle technical description of the military vehicle fleet command & dispatch system, including in-depth user requirement analysis, overall system design, detailed introduction of core products (MCC6000/MCC3500/MCC560), functional module breakdown, deployment implementation process, and system advantage analysis. The document is applicable to military equipment procurement departments, system integrators, technical operations personnel, and other relevant parties, providing standardized technical references for system selection, deployment implementation, and post-maintenance.

Chapter 2 User Requirement Analysis

2.1 Core Requirements Overview

The military vehicle fleet command & dispatch system must revolve around five core objectives: "confidential communication, private network interconnection, intelligent assistance, emergency self-healing, and closed navigation," strictly adhering to the special specifications of military vehicle operations, achieving full-chain confidential communication and intelligent dispatch from base to command vehicle, command vehicle to individual vehicle, and individual vehicle to individual soldier, ensuring communication security, efficient coordination, and controllable emergency response during military mission execution.

2.2 Detailed Requirement Analysis

2.2.1 Communication Confidentiality Requirements

• Prohibition Restrictions: Use of mobile phone communication and civilian carrier networks (4G/5G public networks) for mission-related contact is strictly prohibited to eliminate data leakage risks;

• Confidential Links: Core communication relies on dedicated means such as satellite communication, shortwave communication, digital encrypted intercom, and SDR mesh broadband ad-hoc networking, building a physically isolated confidential communication system;

• Data Encryption: All audio/video, command, and IoT data shall be encrypted during transmission and storage using national cryptographic algorithms, with dynamic key updates to prevent interception and decryption;

• Equipment Compliance: Core communication equipment must meet military confidentiality standards, possessing anti-eavesdropping, anti-tampering, and anti-interference capabilities.

2.2.2 Multi-mode Interconnection Requirements

• Hierarchical Communication:

• Base - Command Vehicle: Long-distance confidential interconnection via satellite communication and shortwave communication, ensuring global command instruction delivery and status data reporting;

• Command Vehicle - Individual Vehicle: Internal fleet backbone communication network built via SDR mesh broadband radios and digital encrypted intercoms, supporting audio/video, command, and IoT data transmission;

• Individual Vehicle - Individual Soldier: In-vehicle and out-of-vehicle coordinated communication via HALOW mesh ad-hoc networking and portable terminals, covering scenarios such as individual soldier operations and external vehicle surveillance;

• Link Redundancy: Multiple communication methods operate in parallel, supporting intelligent switching (switching delay ≤1 second); when one link is interrupted, automatic switching to a backup link ensures communication continuity;

• Terminal Compatibility: Supports access of multiple terminal types including cabin audio/video intercom terminals, surveillance cameras, equipment sensors, and individual soldier portable devices, achieving full-scenario interconnection.

2.2.3 Intelligent Assistance Requirements

• Driving Safety Assistance: AI technology monitors driver status (fatigue, distraction, violation operations), providing real-time alerts and intervention recommendations;

• Equipment Status Warning: IoT data such as axle temperature, engine parameters, and onboard equipment status are collected and analyzed via AI to achieve fault prediction and maintenance reminders;

• Communication Optimization Assistance: AI servers monitor link quality in real time, dynamically adjust transmission parameters, and maintain optimal communication status;

• Decision Support: Based on mission data and environmental information, AI generates recommendations for route optimization, resource allocation, and emergency handling to assist command decision-making.

2.2.4 Emergency Dispatch Requirements

• Three-level Self-healing Mechanism:

a. Normal State: All terminals accept unified dispatch from the command vehicle;

b. Command Vehicle Lost: The vehicle-mounted service terminal takes over command authority for terminals within its coverage area, maintaining local communication;

c. Vehicle-mounted Terminal Lost: Individual soldier terminals communicate with each other via ad-hoc networking, ensuring basic coordination;

• Rapid Deployment: Core equipment supports individual soldier portability and rapid deployment (deployment time ≤5 minutes), adapting to emergency scenarios such as field operations and complex terrain;

• Survivability: The communication network supports dynamic node reconfiguration; single-point failures do not affect overall communication, meeting communication requirements under "three disconnections" (road disruption, network disruption, power disruption) conditions.

2.2.5 Closed Navigation Requirements

• Closed Data Import: The base navigation server obtains road data, traffic information, and restricted area markings from transportation and intelligence departments through a one-way security gateway, with no reverse data transmission channel;

• Offline Navigation Support: Vehicle-mounted terminals store core navigation data locally, enabling normal route planning and traffic warning functions even when disconnected from the network;

• Confidential Navigation Transmission: All navigation data is encrypted during transmission and storage to prevent route information leakage;

• Military Adaptation: The navigation system supports customized functions such as concealed route planning, restricted area avoidance, and military corridor priority.

Chapter 3 Overall System Solution

3.1 Design Philosophy

This system follows the core design philosophy of "confidentiality first, multi-mode redundancy, intelligent coordination, and emergency self-healing," using MCC series equipment as the core carrier and integrating key technologies including satellite communication, shortwave communication, SDR mesh ad-hoc networking, AI edge computing, and IoT sensing, to build an integrated command & dispatch system tailored to military vehicle fleet requirements:

• Confidentiality Design: Triple protection of "dedicated links + end-to-end encryption + physical isolation" completely eliminates risks from civilian networks;

• Multi-mode Design: Integration of multiple communication methods including satellite, shortwave, SDR mesh, digital intercom, and HALOW mesh, building a multi-link redundant network featuring "sky-ground integration, vehicle-to-vehicle interconnection, and human-vehicle interoperability";

• Intelligent Design: AI edge computing enables driving safety monitoring, equipment status warning, and communication link optimization, enhancing the intelligence level of command & dispatch;

• Emergency Design: Supports three-level authority automatic switching and network self-healing among "command vehicle - vehicle-mounted terminal - individual soldier terminal," ensuring uninterrupted command communication in extreme scenarios.

3.2 System Architecture Design

The system adopts a layered architecture design, divided from top to bottom into the base command layer, fleet command layer, vehicle terminal layer, and individual soldier terminal layer. Each layer is interconnected through dedicated encrypted communication links, while possessing independent operation and emergency self-healing capabilities.