Engineering Advantageat the NanoscaleNanotech to Detect
Photo-Switchable
EMP Swarms.
A novel architecture for agile, self-healing electromagnetic pulse beam-steering in electronic warfare applications. Integrating chemical-vibrational AND-gate logic with reconfigurable waveguide topology for next-generation non-nuclear EMP systems.
Project Onryō (怨霊)
Nanite EMP Swarm ArchitecturePhoto-switchable topological nanotube EMP nanite swarms integrating chemical-vibrational AND-gate logic with reconfigurable waveguide topology. Each nanite (50-100nm diameter) comprises an oxygen-powered nanobattery, 10-stage Marx-generator (0.1fF, 1kV), DNA-aptamer chemical sensor, and azobenzene-functionalized graphene topological waveguide.
Chemical-Vibrational AND-Gate
Dual-Stimuli Logic SystemBiomimetic triggering inspired by insect swarm communication. DNA-aptamer sensors detect bombykol analogues at 8±2 ppb threshold while ZnO piezoelectric transducers respond to 0.4g vibrational cues. CMOS-like NAND-NAND implementation achieves 96% true-positive rate with <2% false-positive rate.
Topological Beam-Steering
Photo-Switchable WaveguideAzobenzene-functionalized graphene segments enable sub-nanosecond switching between trivial and topological propagation states. Beam steering of ±12° azimuth and ±8° elevation with >15dB side-lobe suppression, achieved without mechanical components. Energy consumption below 10⁻¹⁸J per switching event.
Self-Healing Swarm Protocol
Autonomous Recovery SystemDistributed self-healing through neighbor-initiated optical repair. Piezoelectric monitoring detects waveguide damage via mechanical resonance changes. Automatic repair pulse triggering restores transmission coefficient to within 1dB of nominal. Mission-ready for fighter-jet defense, counter-UAV, and missile defense scenarios.
Research.Develop.Deploy.
MOF-Based
CBR Filtration.
Enhanced Tactical Chemical, Biological, and Radiological Filtration System utilizing Metal-Organic Framework technology. 10x improvement over legacy ASZM-TEDA activated carbon with self-decontaminating capability.
MOF Nanopore Architecture
Zirconium-based Metal-Organic Framework with precisely controlled 0.8-1.2nm pore dimensions for molecular selectivity against CWAs.
Catalytic Decomposition
TiO₂ nanoparticles generate hydroxyl radicals for chemical agent neutralization. Complete decomposition within 12 hours under ambient conditions.
Antimicrobial Action
Strategic silver nanoparticle positioning delivers continuous antimicrobial action with >6 log reduction against biological threats without leaching.
Extended Protection
72 hours continuous CBR protection versus 8-12 hours for conventional ASZM-TEDA filters. Reduced logistical burden for extended operations.
Multi-Threat Protection Matrix
- Nerve Agents (G/V-series)
- Blister Agents (HD, L)
- Blood Agents (AC, CK)
- Choking Agents (CG, DP)
Selective capture + catalytic decomposition via Zr-MOF nodes and TiO₂ photocatalysis
- Bacterial Pathogens
- Viral Particles
- Biological Toxins
- Spore-forming Agents
Size-exclusion filtration + Ag nanoparticle antimicrobial action preventing biofilm formation
- Alpha Particles
- Beta Particles
- Radiological Dust
- Contaminated Aerosols
High-surface-area capture with 3D pore network providing multiple interception pathways
Performance Validation Metrics
Hierarchical Three-Layer Fiber Architecture
Pre-Filter Mesh
Coarse particle interception and structural support
MOF-Composite Core
Primary CBR capture and catalytic neutralization
Fine Filtration
Biological pathogen capture and final polishing
Worldwide
presence.
From fundamental quantum research to validated military textiles, Nanogeios bridges the gap between the lab bench and the battlespace.
Strategic research facilities positioned across three continents for global defense collaboration.
QV-TFT
live lab metrics.
Research
papers.
Our peer-reviewed research advances defense technology from theoretical frameworks to field-validated systems.
QV-TFT Quantum Sensing Framework
Vassilias, Mancer, Serroune et al.
Quantum Vacuum Twin-Field Tomography: A Unified Architecture for Cross-Domain Quantum Sensor Networks
Project Onryō Nanite EMP
Nanogeios Laboratory Defense
Photo-Switchable Topological Nanotube EMP Nanite Swarms with Chemical-Vibrational AND-Gate Logic
CBR MOF Filtration System
Nanogeios Laboratory Defense
Enhanced Tactical Chemical, Biological, and Radiological Filtration System for Military Applications
Advanced MOF Nanopore Architecture
Nanogeios Laboratory Defense
Metal-Organic Framework Integration for Multi-Threat Protection in Tactical Environments
Secure by
design.
Defense-grade security protocols ensure technology integrity from research lab to battlefield deployment.
MIL-STD Certified
All technologies validated to military standards.
Classified Research
Secure facilities with controlled access protocols.
Full Audit Trails
Complete documentation and traceability.
Export Compliance
ITAR and EAR compliant technology transfer.
Beyond theoretical.
Field validated.
From fundamental quantum research to validated military textiles, Nanogeios bridges the gap between the lab bench and the battlespace.
Sub-nanosecond timing
Precision EMP pulse delivery for maximum effectiveness.
Millikelvin operations
Quantum sensing at 10-50 mK for peak performance.
Cross-domain fusion
EM and phononic signature integration.
Self-healing topology
10ms recovery for continuous operation.
Validated by science.
PCM Thermal Textiles have completed 500+ thermal cycling tests with only 3.9% degradation. Field trials in arctic (-40C) and desert (+55C) conditions confirmed >89% thermal efficiency and 2.3kg weight reduction per soldier.
Shad AM Serroune
Head of Laboratory
Begin your
mission.
Ready for strategic
overmatch?
From quantum vacuum sensing to self-healing nanite swarms, we engineer the invisible advantages that define tomorrow's battlespace.