Unreviewed FAE/S-18 "Face Dancer" Reconfigurable Micro-Surface Actuation System

[Mellifluous Magenta]

OUT OF CHARACTER INFORMATION

• Intent: Create a new kind of passive-active sensor / electronic warfare system.
• Image Source: N/A
• Canon Link: N/A
• Permissions:
  
  • GPO-12 "Ironmaze" Threat-Prevention Suite (OM)
  • FAE/S-17 Active Airflow Management System (N/A)
• Primary Source: N/A

PRODUCTION INFORMATION

• Manufacturer: First United Astral Engineering
• Affiliation:
  
  • First United Astral Engineering
  • Exclusive Writers and Buyers
• Market Status: Closed-Market
• Model: FAE/S-18 “Face Dancer” Reconfigurable Micro-Surface Actuation System
• Modularity: Yes
• Production: Mass-Produced
• Material:
  
  • Durasteel Alloy - Pixel Matrix Structural Frame and Mounting Substrate
  • Carbon Fiber Composite - Pixel Support Structures
  • MEMS-Grade Silicon - Micro-Actuator Mechanisms
  • Micro-Phase-Change Alloy - Thermal Core Material
  • Thermoelectric Semiconductor - Solid-State Cooling Plates
  • Thermo-Chromatic Meta-Material - Outer Emissivity-Control Coating
  • Gabonna Memory Crystal - Primary Data Storage
  • Optical Data Cables - Communication Pathways
  • Reinforced Sealing Gaskets - Atmospheric and Environmental Seals

SPECIAL FEATURES

• Oversight and Administration
  
  • Primary Computer Brain Module - Signature Control Computer (SCC)
  • Subprocessor Modules
• Information Storage and Processing
  
  • Primary Gabonna Memory Crystal
  • Various Secondary Memory Crystals and Processors
  • Heuristic Processing
  • Positronic Processing
• Power Systems
  
  • Energy Capacitor
    
    • Draws power from the host.
• Data and Information Security
  
  • GPO-12 "Ironmaze" Threat-Prevention Suite
  • Pyrowall
  • Quantum Processing and Data Management
  • Genetic Code, Retinal, and Dermatoglyphic Verification
• Reconfigurable Micro-Surface Actuation System
  
  • The reconfigurable micro-surface actuation (RMSA) system is a passive-active system that replaces a craft's standard outer hull plating with a dynamic meta-material skin. This skin is composed of billions of microscopic, interlocking hexagonal panels, each a self-contained micro-electro-mechanical system (MEMS) capable of independent, rapid physical reconfiguration.
    
    • Physical Operation
      
      • Each pixel of the RMSA is a plate measuring between 10 and 100 microns across. It is mounted on a multi-axis actuator that can, in milliseconds:
        
        • Tilt up to 30 degrees in any direction.
        • Recess into a dampened cavity.
        • Extend to form a raised peak.
      • These movements are minuscule individually, but when executed in coordinated groups across square meters of the hull, they fundamentally alter the surface's geometric properties at a macroscopic level as measured by active sensors.
        
        • Since the individual pixels are far too small to be seen with the naked eye from any meaningful combat distance, the silhouette of the host craft remains unchanged. A TIE/ln Space Superiority Starfighter equipped with the Face Dancer appears the same as a stock TIE/ln Space Superiority Starfighter.
  • Sensor Cross-Section Manipulation
    
    • The system's primary purpose is to defeat targeting locks by making the craft's sensor signature chaotic and unpredictable.
      
      • Absorptive State
        
        • Pixels are tilted to direct incoming radar energy into microscopic black body cavities lined with sensor-absorbent material, where the energy is dissipated as heat. This state minimizes the craft's sensor return, creating a low observability effect on enemy scopes. The absorptive state is the default, standby mode of operation.
      • Reflective State
        
        • Pixels align to form vast, near-perfectly flat facets, acting as mirrors for specific sensor wavelengths. This creates a momentary, blindingly strong return, making the craft appear as a much larger object.
      • Diffusive State
        
        • Pixels are set at random, jagged angles, scattering incoming sensor pulses in a multitude of directions. Only a tiny, distorted fraction of the energy returns to the source, making the craft appear as a small, fuzzy cloud of debris.
      • Corner Reflector State
        
        • Groups of three pixels configure themselves into microscopic corner cubes. This captures sensor energy and reflects it directly back to the source with high efficiency, generating an sensor signature equivalent to an object dozens of times larger, but from a very small area of the hull.
  • Integrated Thermal Management
    
    • Each micro-actuator pixel doubles as a multi-functional thermal unit.
    • Multi-Layered Pixel Structure
      
      • Base Actuator Layer
        
        • The MEMS machinery that provides physical movement.
      • Thermal Core
        
        • This is the critical layer. It consists of:
          
          • Micro-Thermoelectric Cooling Plates
            
            • Solid-state heat pumps that can actively transfer heat from one side of the pixel to the other when a current is applied. They can make a pixel surface intensely hot or cold relative to its surroundings.
          • Phase-Change Material (PCM) Matrix
            
            • A material doped into the pixel's substrate that melts or solidifies at specific temperatures. As it changes phase, it absorbs or releases a large amount of thermal energy, acting as a microscopic "heat battery" to smooth out thermal fluctuations.
          • Thermo-Chromatic Coating
            
            • The outermost layer of the pixel is a meta-material that changes its thermal emissivity (its efficiency at radiating infrared energy) based on an electrical charge applied to it.
    • Functional Operation
      
      • The SCC has a thermal management module that works in concert with the sensor deception profile. It can execute several key routines:
        
        • Heat Shedding and Distribution
          
          • Instead of heat naturally concentrating around the engines and power core, the system uses thermoelectric cooling plates to actively siphon this waste heat and distribute it across the entire hull. A pixel on a wingtip can be commanded to become as hot as an exhaust port for a fraction of a second, before being cooled down and having a different pixel on the nose heated. This turns the craft's entire surface into a massive, low-temperature radiator, eliminating the single glaring bullseye of a traditional engine plume.
        • Dynamic Heat Masking
          
          • This is the primary defensive function. The system creates a false, shifting thermal signature.
            
            • It identifies the hottest part of the ship (typically the main engine bell), before commanding the thermoelectric cooling plates on pixels surrounding the hot spot to actively cool, creating a cold ring. Simultaneously, it heats up a random, non-vital section of the hull, such as an armored wing, to the same temperature as the engine.
            • As a result, a heat-seeker/infrared sensor sees two targets of equal priority: the real engine and a fake one on the armored wing. It must choose, and it has a 50/50 chance of choosing wrong.
        • Emissivity Blinking
          
          • By rapidly cycling the thermo-chromatic coating on different pixel groups between high and low emissivity states, the system can make parts of the hull flash hot and cold in infrared. A patch of hull might radiate intensely for a millisecond (looking like a bright IR star) and then go dark, only for another patch to flash elsewhere. This creates a strobing, chaotic IR signature that is virtually impossible for a missile or tracking computer to track smoothly.
  • Utility Systems
    
    • Self-Diagnostic and Health Monitoring Suite
      
      • A network of low-feedback micro-sensors distributed throughout the pixel matrix continuously monitors each pixel's structural integrity, actuator function, and thermal performance. The system can identify dead or degraded pixels in real-time, isolate them from the network, and report their status to the SCC. This allows maintenance crews to identify damaged sections of the skin quickly without requiring a full physical inspection.
    • Redundant Data and Power Buses
      
      • The pixel matrix is divided into independently powered and data-routed sectors. If one sector loses power or communication due to battle damage, the surrounding sectors can isolate the failure and continue operating. This ensures that localized damage does not cascade into a full system failure.
    • Emergency Shunt and Dump Protocols
      
      • If the thermal management system becomes overwhelmed (such as during an extended firefight or proximity to a stellar body), emergency protocols engage. The system can rapidly dump excess heat through dedicated thermal radiators (typically located on the rear or underside of the craft) or shunt it to isolated capacitor banks for emergency power. This prevents catastrophic thermal buildup from damaging the pixel matrix or the craft's internal systems.
    • Pixel Recalibration and Self-Alignment Routine
      
      • Over time, micro-actuators can drift from their calibrated positions due to thermal cycling, vibration, or mechanical stress. The SCC periodically runs a recalibration routine, commanding all pixels to return to a known home position and measuring their response times and accuracy. The system compensates for any drift through software adjustment, ensuring the skin's deception patterns remain precise without requiring manual maintenance between missions.
    • Battle Damage Redundancy and Bypass
      
      • When a cluster of pixels is destroyed, the SCC automatically detects the dead zone and adjusts its deception algorithms to compensate. The system can paint a false signature over the damaged area using neighboring functional pixels, or alter its overall deception pattern to route around the gap. This ensures the craft remains protected even with significant portions of the skin compromised.
    • Atmospheric and Environmental Sealing
      
      • The pixel matrix is fully sealed against vacuum, atmosphere, and corrosive environments. Each pixel is gasketed and interlocked with its neighbors to form a continuous, hermetic seal. The system includes pressure sensors that detect any breaches, allowing the SCC to alert the pilot and activate emergency sealing protocols for critical internal systems.
    • Electromagnetic Pulse (EMP) Hardening
      
      • The pixel matrix and its supporting electronics are shielded against EMP and ionizing radiation. Redundant circuits and optical data transmission pathways ensure that even if the primary electronics are disrupted, the system can reboot and resume function within seconds.
    • Self-Cleaning and Debris Shedding
      
      • The micro-actuators can perform rapid, coordinated vibration patterns across the hull to shed accumulated debris, micrometeorite dust, or ice crystals. This prevents foreign material from interfering with the pixels' movement or compromising the surface’s low observability properties.
    • Crew and Maintenance Interface
      
      • A dedicated control interface and software application allows pilots and ground crews to interact with the RMSA system. Pilots can select pre-programmed deception profiles, override the system for manual operation, or deactivate specific sectors. Maintenance crews can run diagnostics, view detailed pixel health reports, and initiate recalibration or repair routines.
    • Deactivation and Safe Mode
      
      • The system includes an emergency deactivation protocol. In the event of catastrophic failure or if the system is compromising the craft's structural integrity, the SCC can command all pixels to return to a neutral, flat position and lock in place. This turns the skin into a conventional, inert hull plating, ensuring the craft can continue to operate (or be recovered) even if the RMSA is non-functional.
    • Active Airflow Management System Link Capability
      
      • The Face Dancer can link with the host craft’s FAE/S-17 Active Airflow Management System (if equipped), allowing the two systems to collaborate, share data, and augment each other’s effects.

STRENGTHS

• Dynamic Sensor Deception: The Face Dancer's ability to rapidly cycle among absorptive, reflective, diffusive, and corner reflector states across different hull segments creates a chaotic, unpredictable sensor signature that defies conventional targeting. Enemy fire-control computers may find it virtually impossible to establish or maintain a stable lock, as the craft's apparent size, shape, and position shifts hundreds of times per second. On sensor readouts, a craft equipped with the Face Dancer can appear as a flickering and strobing mess that seems to be warping and glitching. This is from the sensor energy being scattered, absorbed, and reflected in an unpredictable pattern by the churning micro-surface. As a result, this forces opponents to rely on visual targeting or unguided fire, dramatically reducing their effective accuracy.
• Fire Dancer: By actively redistributing waste heat across the entire hull and creating false thermal signatures, the Face Dancer can defeat heat-seeking missiles and infrared tracking systems. The system can make a wingtip appear as hot as the engine exhaust, forcing seekers to choose between multiple equally attractive targets. Emissivity blinking further disrupts tracking by creating a strobing, chaotic IR profile that few seeker heads can smoothly follow.
• Low Observability: The Face Dancer's default absorptive state provides continuous passive low observability without significant power draw or active emissions. By directing incoming sensor energy into microscopic black body cavities lined with sensor-absorbent material, the system minimizes the craft's sensor return across multiple spectra. This baseline low-observability allows the host craft to remain difficult to detect during transit, approach, and patrol operations, preserving its low profile until active deception is required.
• Anti-Home: As the Face Dancer itself does not emit energy like a conventional sensor jamming system, home-on-jam and anti-radiation tracking systems are ineffective against it. This means that the Face Dancer is significantly less dangerous or risky to use, compared to conventional jamming and electronic warfare systems.

WEAKNESSES

• Mark 1 Eyeball: The pixel movements are far too small to change the craft's visible silhouette. A gunner using optical scopes, macrobinoculars, or even their own naked eye can still see a Face Dancer-equipped fighter equipped clearly. While computer-assisted targeting is extremely likely to be disrupted, skilled pilots or gunners can feasibly engage the craft manually. The Face Dancer creates sensor confusion rather than invisibility, and a determined visual spotter can track and fire upon the craft.
• Thermal Capacity: The thermal management system can redistribute and mask heat, but it cannot eliminate it. Prolonged engagement in combat or high-thrust maneuvers (without accounting for separate thermal management systems) can overwhelm the system's heat-shedding capacity. If the thermal core reaches saturation, emergency shunt protocols engage, forcing the craft to vent excess heat through visible radiators in a process that creates a brief but glaring thermal signature that can be exploited by enemy sensors.
• Tiny Fragile Dancer: The pixel matrix is an extraordinarily complex system composed of billions of microscopic moving parts. As a result, it is vulnerable to micrometeorite impacts, debris, proximity blast effects, and sustained kinetic damage. While the system has redundancy, sufficient battle damage can degrade its performance significantly, creating dead zones that may compromise the deception pattern and expose the craft to precise targeting.
• Power Hungry: Operating the full deception suite, particularly thermal management and active reflective states, requires significant electrical power. The system draws from the host craft's main reactor, potentially competing with weapons, shields, and engines for energy. If not equipped with an advanced, super-grade powerplant, prolonged combat use may force users to choose between full deceptive capability and other combat-critical systems.
• Deception Limitations: The Face Dancer works best virtually against any type of sensor that works by emitting a form of energy and analyzing the return signal. It is less effective against passive detection sensors or visual tracking. It is also not effective against lifeform sensors. This means that its low-observability and deception properties are limited, preventing the host craft from being a true perfect stealth platform (unless it is backed by outside true stealth systems).

DESCRIPTION
The FAE/S-18 “Face Dancer” Reconfigurable Micro-Surface Actuation System is a passive-active system that replaces a craft's standard hull plating with a dynamic meta-material skin. This skin is composed of billions of microscopic, interlocking hexagonal panels, each a self-contained Micro-Electro-Mechanical System (MEMS) that is capable of independent, rapid physical reconfiguration.

The Face Dancer was developed by First United Astral Engineering as one of the pillars of the company’s efforts to ensure survivability and dominance in its small craft, vehicles, and other designs in the high-threat sensor environments that define modern battlespaces. Rather than following conventional approaches in jammers and ECM suites, the Face Dancer takes full advantage of microtechnology to manipulate active sensor wavelengths. In this, the FAE/S-18 uses a passive, physical method in dynamically altering the craft's microscopic surface geometry to actively defeat targeting computers without emitting any energy of its own.

In essence, the Face Dancer is an electronic and sensor manipulation system that operates on the principle of information warfare by making the host craft's very existence in sensor-space uncertain. It turns a clear, lockable target into a dancing mirage, forcing enemy systems to either withhold fire or waste it on phantoms, thereby granting the host craft a significant and critical survivability advantage in high-threat environments.