Oracle Combat System
 | |
| Type | Autonomous Combat Platform |
|---|---|
| Place of origin |
 Nouvelle Alexandrie |
| Under development | 1740 AN- |
| Number built | 2 (prototypes), 3 (advanced prototypes in production) |
| Manufacturer | |
| Complement | 0 (remote operation) |
| Combat weight | Classified |
| Length | Classified |
| Width | Classified |
| Propulsion | Alexandrium-enhanced hexapodal locomotion system |
| Speed | Classified |
| Range | Classified |
| Sensors | Alexandrium quantum array (multi-spectrum) |
| Armament |
|
| Armour | Alexandrium-composite reactive matrix |
The Oracle Combat System (OCS) is an autonomous combat platform under development by the Federal Forces of Nouvelle Alexandrie. Representing a significant advancement beyond conventional armored vehicles, the Oracle combines Alexandrium-enhanced computing systems with a hexapodal mobility platform and advanced weapons systems. Unlike traditional tanks requiring human crews inside the vehicle, the Oracle operates as a remotely controlled unit with advanced autonomous functions, maintaining strategic oversight from human command authorities.
By 1742 AN, the National Research and Development Corporation had completed 2 functioning prototype units undergoing intensive field testing as part of the Force 1752 defense initiative, with 3 specialized advanced prototypes currently in production. The project aims to deploy the first operational squadron by mid-1748 AN.
Technology
The Oracle's defining feature is its Alexandrium-enhanced computing system. Unlike conventional combat systems, the Oracle utilizes stable Alexandrium-243 isotopes in its computational hardware, enabling processing capabilities that far exceed traditional systems. This allows the platform to execute complex battlefield operations with minimal latency while maintaining secure communications with command centers.
The vehicle's hexapodal locomotion system provides exceptional mobility across difficult terrain inaccessible to tracked or wheeled vehicles. Each articulated leg contains micro-Alexandrium servos that deliver precise movement control while maintaining structural integrity under combat conditions. The system can adapt its gait configuration based on terrain analysis, shifting between high-speed movement across open ground to careful navigation of urban environments or mountainous regions.
Primary armament consists of a 130mm electromagnetic accelerator cannon capable of firing various projectile types, including armor-penetrating kinetic rounds and programmable smart munitions. Secondary systems include twin 15mm hypervelocity machine guns and classified directed energy defensive systems that can intercept incoming projectiles.
Modular Design and Maintenance
The Oracle's revolutionary modular architecture dramatically reduces maintenance costs and downtime compared to conventional combat vehicles. Each leg module can be replaced within 15 minutes by a standard two-person maintenance team using basic field equipment. The vehicle employs standardized "plug-and-fight" components with self-diagnostics that automatically report wear and potential failures before they occur.
The platform's self-healing circuitry, powered by Alexandrium-derived nanotechnology, can reroute critical systems in combat situations, extending operational capability even after sustaining damage. This adaptive hardware dramatically reduces depot-level maintenance requirements by approximately 78% compared to conventional armored vehicles. Field technicians require only a standardized toolset and basic certification rather than specialized training for each subsystem, dramatically reducing the personnel and expertise needed to maintain an Oracle squadron. The system's built-in automated testing reduces diagnostic time by 91% compared to conventional vehicles.
Maintenance costs are further reduced through the elimination of consumables required by traditional vehicles, such as lubricants, filters, and engine components. The Alexandrium power cells provide an estimated 11-year operational lifespan before requiring replacement, eliminating the logistics chain typically associated with fuel supply.
CyberSpectrumMax Integration
The Oracle Combat System is designed with native compatibility with the Nouvelle Alexandrian Cyber-Electromagnetic Activities Visualization System (NACAVS), also known as "CyberSpectrumMax." The Oracle's Alexandrium-enhanced computing architecture shares a common protocol framework with CyberSpectrumMax, allowing for real-time data fusion and visualization of electromagnetic activities across the battlefield. This enables the Oracle platform to serve as both a sensor node and an action element within the broader NACAVS network, enhancing overall force effectiveness through superior information advantage.
When deployed as part of a CyberSpectrumMax-equipped battlegroup, the Oracle can dynamically coordinate electronic warfare activities, automatically prioritize threats, and execute precision electromagnetic operations while maintaining continuous battlefield awareness. The system architecture was jointly developed by Sarbanes-Lopez Cybersecurity and Neridia Defense Industries to ensure seamless information exchange between platforms.
Specialized Variants
Three advanced prototypes are currently in production, each designed for specific operational environments:
All-Terrain Oracle (ATO)
The All-Terrain Oracle variant features enhanced leg articulation and adaptive pressure distribution systems, allowing it to navigate extreme environments including dense jungle, steep mountains, urban rubble, and underwater operations to depths of 50 meters. The ATO incorporates expanded sensor arrays for comprehensive terrain analysis and obstacle detection, with specialized electromagnetic damping systems to maintain stability in high electromagnetic interference zones.
Polar Operations Oracle (POL)
Designed specifically for warfare in polar regions, the Polar Operations Oracle incorporates thermal regulation systems that can maintain optimal operating temperatures in environments as low as -70°C. The specialized leg configuration includes retractable ice spikes and snow distribution plates that can adapt to various ice conditions, from solid pack ice to unstable snow drifts. Enhanced sensor packages include specialized penetrating radar systems capable of detecting buried structures or threats beneath ice and snow.
Extreme Environment Oracle (EEO)
The Extreme Environment Oracle is optimized for operations in both high-temperature conditions exceeding 60°C and extreme altitude environments above 5,000 meters. The EEO features enhanced cooling systems utilizing Alexandrium-infused heat-dissipation technology and specialized atmospheric compensation systems that maintain optimal performance in low-oxygen environments. Reinforced structural components resist degradation from sand, dust, and corrosive atmospheric conditions, while specialized sensors function reliably in heat haze and atmospheric distortion.
Unit organization
Oracle Combat Systems are organized into autonomous combat units (ACUs), each comprising three Oracle platforms supported by a command and control vehicle operated by human officers. Two ACUs form a combat group, with an additional headquarters element providing strategic direction and maintaining oversight protocols required under New Alexandrian military regulations.
Combat groups can operate in coordination with conventional forces for combined operations. The Alexandrium-enhanced computing allows efficient coordination between multiple Oracle units, though all strategic objectives remain under human command authority as mandated by the Military Ethics and Constitutional Education Command following the Spring Crisis of 1739.
Development history
The Oracle program began as a theoretical research initiative in late 1740 AN at the National Research and Development Corporation (NRDC). Initial development focused on hexapodal locomotion systems and preliminary Alexandrium integration concepts. The project remained in research phase until 1741 AN, when funding was significantly increased following successful proof-of-concept demonstrations.
Development accelerated dramatically after the Alexandrium-graphene lattice integration breakthrough in early 1742 AN, which solved critical computing stability issues that had previously limited autonomous systems. The first functioning prototype was completed in VIII.1742 AN, with the second prototype incorporating substantial improvements based on initial field testing data delivered in XII.1742 AN.
The program has been jointly managed by NRDC in collaboration with Rimarima Armaments (weapons systems), Neridia Defense Industries (mobility and armor), Sarbanes-Lopez Cybersecurity (advanced computing and autonomous functions), Javelin Industries (propulsion systems), and Fountainpen Corporation (advanced computing and electromagnetic systems integration).
The project represents one of the largest investments in military technology in New Alexandrian history, though specific budget allocations remain classified. As part of the Force 1752 initiative, the timeline for specialized variant development was established in XI.1742 AN, with production of the three advanced prototypes beginning in XII.1742 AN.
| Developer | Unit Count | Status | Operator | Notes |
|---|---|---|---|---|
National Research and Development Corporation Rimarima Armaments Neridia Defense Industries Sarbanes-Lopez Cybersecurity |
2 | Prototype | Federal Forces of Nouvelle Alexandrie | Undergoing intensive field testing at CCI as part of the Force 1752 initiative |
| National Research and Development Corporation |
3 | In Production | Federal Forces of Nouvelle Alexandrie | Specialized variants (ATO, POO, EEO) with expected delivery in VII.1743 AN |
| National Research and Development Corporation |
Unknown quantity (estimated 9) |
Planned | Federal Forces of Nouvelle Alexandrie | First operational squadron planned for deployment by mid-1748 AN |
Operational parameters
The Oracle operates under strict operational parameters established following the comprehensive military reforms of 1739 AN-1740 AN. While the system is capable of executing complex battlefield operations with minimal human input, all strategic decision-making remains under direct human control. Multiple redundant safeguards prevent unauthorized operation or command override, with continuous monitoring by human operators.
