W2 • Luke II Geostationary

EMFF toroidal capture, hold & hand-off. Input payload mass & composition.

Input: Payload & Composition

Energy vs Stability

Luke II Preview

Data & Exports

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Here visualised is the Luke II in geostationary orbit, it magnetic field and energy systems all visualised and with ‘control pannel’ a UI and side menu which allows for variable sized metal deposits to ‘come in’ and be caught by it’s magnetic field and then ‘dropped’ or ‘held’ aswell as an ‘outgoing’/’incoming’ toggle which shows a payload capsule with inorganic materials being launched up and through the gap in the toroid where the emff then ‘sends’ the capsule off at speed. Additionally shown is a dragon capsule sent off in a similar fashion before it passes across to lunar to show the incoming process, outgoing then switches again to mars finally zooming out to the overview with minimal infrastructure to create ‘highway’ of our solar system using gravitational mapping and EMFF supported technologies this then zooms back into the earth system and completes the loop unless a three prong toggle for planets is used accordingly just chainging the render accordingly

RFS + EMFF Technologies - Romer Industries

Romer Industries has developed groundbreaking proprietary technologies that overcome the fundamental challenges of space mining. Our Resonant Frequency Sifting (RFS) and Electromagnetic Field Filtering (EMFF) systems work together to extract valuable materials from asteroids without physical contact, making operations feasible in microgravity environments.

How Our Technologies Work

Resonant Frequency Sifting (RFS)

Your browser does not support the canvas element. RFS Animation

RFS uses precision-tuned crystal oscillations to induce molecular resonance in target ore, freeing specific atoms from regolith without physical drilling. The system targets the natural vibrational frequencies of desired materials, causing them to separate from the asteroid matrix.

Key Benefits:

  • Non-invasive extraction method
  • Minimal energy consumption
  • Selective material targeting
  • No mechanical wear and tear

Electromagnetic Field Filtering (EMFF)

Your browser does not support the canvas element. EMFF Animation

EMFF employs localized magnetic fields to attract and coalesce the freed particles, effectively separating desired materials from regolith in microgravity. Dynamic electromagnetic fields guide metallic particles into collection chambers.

Key Benefits:

  • Contact-free particle collection
  • Works perfectly in vacuum
  • No moving mechanical parts
  • Highly selective filtering

Integrated Mining Process

1

Target Identification

Spectral analysis identifies valuable materials within asteroid composition

2

RFS Activation

Precision crystal oscillators generate resonant frequencies specific to target materials

3

Material Liberation

Target atoms vibrate free from surrounding matrix without physical disruption

4

EMFF Collection

Magnetic fields capture and concentrate freed particles into collection chambers

5

Resource Processing

Collected materials are refined and prepared for transport or utilization

Development Status

Mark III Prototype

Status: Lab-tested and operational

Capabilities:

  • Multi-frequency RFS targeting
  • Adaptive EMFF collection
  • Real-time composition analysis
  • Autonomous operation capability

Mission Readiness

Target: Mission 1 deployment

Performance:

  • 97% target material recovery
  • 31% energy efficiency improvement
  • Zero mechanical failure rate
  • Scalable design architecture

Technical Specifications

RFS System

  • Frequency Range: 1-100 MHz
  • Power Consumption: 2.5 kW average
  • Targeting Accuracy: ±0.001 MHz
  • Operating Temperature: -200°C to +150°C

EMFF System

  • Field Strength: Up to 5 Tesla
  • Collection Efficiency: 95%+
  • Particle Size Range: 0.1-10 μm
  • Processing Rate: 10 kg/hour
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RFS & EMFF Field Projetions

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Terrestrial Systems