Star Wars Roleplay: Chaos

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Approved Tech Er'gerak

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OOC INFO

Intent: Expand on alloys manufactured by the Bryn'adul

Image Source: Pinterest

Permissions: N/A

Primary Source: N/A


PRODUCTION INFO

Manufacturer: Bryn'adul

Affiliation: Bryn'adul

Model: N/A

Modularity: No

Production: Minor

Material:


PHYSICAL SPECIFICATIONS
  • Classification: Alloy
  • Weight: Light
  • Color: Green, Red
  • Resistances:
    • Energy: High
    • Kinetic: High
    • Lightsabers: Average
    • Other:
    • Sonic: Very Low
    • EMP/Ion: Low
SPECIAL FEATURES

Listed in Strengths

STRENGTHS


Ultra-dispersive: Neutronium exhibits ultra-dispersive mechanical properties making it ideal for protection against energy stress such as re-entry or blaster fire

High Melting Point: Er'gerak being primarily composed of neutronium and aluminium has a melting point of around 3,000°C

Lightweight: Specially designed as an aerospace alloy, Er'gerak is very lightweight yet tough with a density of 3.1g/m^3


WEAKNESSES

Pressure Change: The manufacture of this alloy on Draemidus Prime means its molecular structure is packed tighter than natural. When taken off-world, Er'gerak expands slightly. While this decreases its density (up to a 0.7g/m^3 decrease in vacuum) it makes it weaker against impact stresses and reduces its energy dispersion

Sonic Weakness: The presence of Malabast in Er'gerak makes the alloy susceptible to damage caused by heavy induced oscillations


DESCRIPTION

Er'gerak is the Bryn'adul's mainstay heavy-duty aerospace alloy. An alloy composed primarily of Neutronium (46%), Aluminium (49%) and Malabast (4%) with the remaining percentage filled with trace elements used to fine tune the alloy. Er'gerak is notably used as the hull for drop-pods that are expected to undergo immense energy and impact stresses during re-entry (such as the Nimscall Drop-pod). In light of its high-stress applications, the problem of molecular expansion whenever the alloy is off-world is often overlooked as pressure is expected to be applied for essentially all of its net operational lifetime.
 
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