QUANTUM
NANOCOMPOSITE MATERIALS
Embedded Files
ADVANCED COMPOSITE DESIGN
ADVANCED COMPOSITE DESIGN
FAILURE-MODE-DRIVEN PRECISION REINFORCEMENT
NANOARC quantum materials are advanced nanocomposites engineered to reinforce composite systems precisely at the point where failure begins. By operating at the nanoscale, these materials deliver disproportionate improvements in strength, durability and reliability at ultra-low loading levels, without increasing mass, altering geometry or disrupting established manufacturing processes.
Designed for space, aerospace, defence and other high-reliability applications, NANOARC materials enable lighter, longer-lasting, and more damage-tolerant composite systems.
PREVENT FAILURE FROM STARTING
PREVENT FAILURE FROM STARTING
Most structural design approaches focus on making components strong enough to survive damage after it has already formed. This typically requires added material, higher safety factors and increased complexity.
NANOARC takes a different approach.
In advanced composites, failure rarely begins at the scale of the structure. It initiates at the nano- to micro-scale, through mechanisms such as matrix micro-cracking, fibre–matrix debonding, interlaminar delamination, grain boundary degradation, or surface wear. Once initiated, this damage propagates rapidly into macroscopic failure.
NANOARC quantum materials intervene at this earliest stage. By reinforcing matrices, interfaces, grain boundaries, and near-surface regions, they suppress damage initiation before it becomes structurally relevant. The result is a system that resists failure from the outset rather than relying on damage tolerance after the fact.
This shift from survivability to prevention enables substantial performance gains without mass or design penalties.
WHAT NANOARC QUANTUM MATERIALS DELIVER
WHAT NANOARC QUANTUM MATERIALS DELIVER
Reinforcement at the scale where failure originates
Non-linear performance gains at ultra-low material loadings
Improved fracture toughness, fatigue initiation life, and wear resistance
High thermal stability for extreme environments
Seamless integration with existing composite manufacturing processes
NANOARC materials act as performance amplifiers, not primary load-bearing reinforcements.
SOLUTIONS
SOLUTIONS
QUANTUM NANOCOMPOSITE TECHNOLOGY
QUANTUM NANOCOMPOSITE TECHNOLOGY
NANOARC quantum materials are ligand-free, precision-engineered nanomaterials with characteristic dimensions typically below 20 nm. Controlled nanoarchitectures include atomically thin sheets, spherical nanoparticles, hollow hemispherical particles and nanotubes.
These architectures are designed to interact directly with polymer chains, metal grain boundaries, ceramic matrices and surface layers, modifying stress transfer and energy dissipation at the nanoscale. This enables failure prevention rather than post-damage tolerance.
FAILURE-MODE-DRIVEN COMPOSITE DESIGN
FAILURE-MODE-DRIVEN COMPOSITE DESIGN
Most advanced composite systems fail not because they are insufficiently strong, but because damage initiates early at localised micro- and nanoscale features.
NANOARC materials enable a failure-mode-driven design methodology by reinforcing the mechanism of failure, not the load path. By suppressing crack nucleation, interfacial separation, and wear at their origin, overall structural durability and service life are significantly extended without redesign of the primary structure.
NANOADDITIVES & SURGICAL REINFORCEMENT
NANOADDITIVES & SURGICAL REINFORCEMENT
LOW-LOADING NANOADDITIVES
As nano-additives, NANOARC materials modify matrix behaviour at the molecular and atomic scale. They strengthen local bonding, increase resistance to crack initiation and improve fatigue and environmental durability.
This role is most effective where matrix-dominated damage governs performance.
SURGICAL STRUCTURAL REINFORCEMENT
As surgical reinforcements, NANOARC materials are applied locally to known failure initiation zones, including:
Fibre–matrix interfaces
Interlaminar resin-rich regions
Grain boundaries in metals
Surface and near-surface layers
The objective is to arrest damage before propagation, without altering fibre architecture, component geometry or tooling.
APPLICATIONS
APPLICATIONS
AEROSPACE COMPOSITES
AEROSPACE COMPOSITES
In aerospace structures, fibres typically carry load while failure initiates in the matrix or interface. NANOARC quantum materials reinforce these weak points, reducing delamination, improving fatigue initiation life and increasing damage tolerance.
Applications include primary and secondary CFRP structures, engine-adjacent composite components and erosion- and wear-resistant aerospace coatings.
SPACE SYSTEMS & STRUCTURES
SPACE SYSTEMS & STRUCTURES
Space systems demand extreme reliability under strict mass constraints. NANOARC materials prevent failure initiation in polymer and metal systems, improving fatigue resistance, thermal stability and radiation tolerance without adding weight.
This enables extended service life and increased mission reliability without structural redesign.
DEFENCE APPLICATIONS
DEFENCE APPLICATIONS
Defence platforms benefit from materials that resist damage accumulation under sustained operational stress.
NANOARC quantum materials enhance wear resistance, durability and damage tolerance while enabling incremental upgrades to legacy platforms. Their low-loading, localised reinforcement approach aligns well with retrofit and life-extension programmes.
INDUSTRIAL & ENERGY SYSTEMS
INDUSTRIAL & ENERGY SYSTEMS
In industrial and energy environments, NANOARC materials prevent wear- and fatigue-driven failure by reinforcing surfaces, matrices and interfaces at the point of damage initiation. This improves long-term reliability in tooling, coatings, and mechanically or thermally cycled components.
CORE INSIGHT
CORE INSIGHT
Prevent failure from starting rather than making failure harder to survive.
By engineering resilience at the nanoscale—where damage is born rather than where it is observed—NANOARC quantum materials enable lighter, more reliable and longer-lasting composite systems.
PRODUCTS
PRODUCTS
Payments can be made directly through our website via bank transfer, credit card, cryptocurrency, invoice issuance for a bank transfer.
The Higher the surface area (BET) of the nanoparticles, the more effective the nanomaterial and the lower the required dose.
**Doses can be varied depending on the designated application and functional need.
Products are sold exclusively on our website
SUBSCRIPTION MODEL : Get special rates and free shipping with pre-order purchase subscriptions
QUARTERLY ( 5 % ) | BI-ANNUALLY ( 10 % ) | ANNUALLY ( 15 % )
WE SHIP WORLDWIDE
QM-ALLOY
QM-ALLOY
NANOARCHITECTURE : Atomically Thin Sheets/Flakes ( < 1 nm Thickness)
SURFACE AREA (BET) : 635200 cm²/g
MOHS HARDNESS : 4.5
THERMAL STABILITY : Up to 1975 ° C (3587 ° F)
COLOUR : White Nanopowder
DOSAGE : ~ 0.001 - 0.01 wt % (depending on desired performance)
APPLICATIONS : For the enhanced reinforcement of metal alloys e.g. nickel (Ni), iron (Fe), steel, magnesium (Mg), Copper (Cu) and Aluminium (Al) alloys ; reduces porosity, enhances mechanical strength and thermal creep resistance, impact energy, offset yield strength, micro-hardness, and provides superior ultimate tensile strength.
Helps prevent degradation from corrosive agents and oxidation, confers antimicrobial, anti-fungal and antiviral properties.
It reduces the coefficient of thermal expansion so as to provide a more dimensionally stable nanocomposite system and simultaneously serves as a halogen-free flame retardant.
EPOXY S-FILLER
EPOXY S-FILLER
NANOARCHITECTURE : ~ 1.4 nm spherical nanoparticles
SURFACE AREA (BET) : 1,486,388 cm²/g
MOHS HARDNESS : 6 - 7
COLOUR : CREAM-White / WHITE Nanopowder
HEAT RESISTANCE : Up to 1630 °C (2970°F)
DOSAGE : ~ 0.001 - 0.01 wt %
APPLICATIONS : Nano-filler for Resin Reinforcement and enhanced mechanical strength, Achieves good dispersion within a polymer to improve the elongation distance, tensile stress, and tensile force of e.g. silicon rubber composites, Acts as an Adhesive and Anti-Static Agent for composit coatings.
EPOXY Q-FILLER
EPOXY Q-FILLER
NANOARCHITECTURE : < 10 nm spherical particles
SURFACE AREA (BET) : 415300 cm²/g
MOHS HARDNESS : 4.5
THERMAL STABILITY : Up to 1975 ° C (3587 ° F)
COLOUR : White Nanopowder
DOSAGE : ~ 0.003 - 0.03 wt %
APPLICATIONS : UV blocking, Antibacterial, Anticorrosion, Antifouling agent, Essential Additive for Resin Reinforcement, Halogen-Free Flame retardant. Photoinitiator for photo-curable coatings and adhesives.
EPOXY C-FILLER
EPOXY C-FILLER
NANOARCHITECTURE : < 25 nm Spherical hollow nanoparticles
SURFACE AREA (BET) : 388000 cm²/g
MOHS HARDNESS : 3
THERMAL STABILITY : Up to 825 ° C (1098.15 ° F)
COLOUR : White Nanopowder
DOSAGE : ~ 0.005 - 0.05 wt %
APPLICATIONS : Adhesive, resin filler, sealant, acidity regulator, non-abrasive, improves stiffness and mechanical strength of polymers, reduces shrinkage, increased thermal conductivity, improved creep resistance, increases impact strength.
It increases crystallization temperature and shorter cycle times for injection molding. The nanopowder can be dispersed directly into plastic materials while in the extruder or injection molding machine.
EPOXY Q-FLEX
EPOXY Q-FLEX
NANOARCHITECTURE : Atomically Thin Sheets/Flakes ( < 1 nm Thickness)
SURFACE AREA (BET) : 635200 cm²/g
MOHS HARDNESS : 4.5
THERMAL STABILITY : Up to 1975 ° C (3587 ° F)
COLOUR : White Nanopowder
DOSAGE : ~ 0.001 - 0.01 wt %
APPLICATIONS : Enhanced UV blocking, Antibacterial, Anticorrosion, Antifouling agent, Essential Additive for Resin Reinforcement, Superior Flexural & Tensile Strength Enhancement than Epoxy Q-Filler , non-abrasive, Halogen-Free Flame retardant. Photoinitiator for photo-curable coatings and adhesives.
QS-SHIELD I
QS-SHIELD I
NANOARCHITECTURE : Nanospheres
DIMENSION : ~ 8 nm diameter
MOHS HARDNESS : 9 - 10
COLOUR : Bluish-Black/Midnight Blue Nanopowder
THERMAL STABILITY : Up to 2830 °C (5130 °F)
BAND GAP : ~ 1.8 eV
DOSAGE : ~ 0.003 - 0.03 wt % (depending on desired performance)
APPLICATIONS : High-grade refractory material, high stress/strain tolerance, high abrasion resistance, high performance ceramic brake discs, lightening arrester, semiconductor, mirror material for astronomical telescopes, nuclear fuel particle ( Tristructural-isotropic - TRISO fuel) cladding material to retain fission products at elevated temperatures confer more structural integrity to TRISO particles, fuel for steel production, nanocatalyst, high wear-resistance fishing rod guides.
High infrared absorption, helps serve as a stealth layer or infrared camouflage coatings/composites :
APPROX. 30 - 50 % absorption between 800 - 1000 nm
APPROX. 45 - 55% absorption between 1100 - 1500 nm
APPROX. 55 - 75% absorption between 1750 - 2000 nm
APPROX. 80 - 87% absorption between 2000 - 2500 nm
VIEW PRICING
VIEW PRICING
QUANTITY | PRICE
50 grams (1.76 oz.) | £ 18,000
500 grams (17.6 oz.) | £ 179,000
1kg (2.2 lb) | £ 357,000
BULK ORDER RATES : From 1 Tonne | CONTACT trade@nanoarc.org
QS-SHIELD II
QS-SHIELD II
NANOARCHITECTURE : Nanotubes
DIMENSION : < 3 nm diameter, up to 10 µm in length
MOHS HARDNESS : 9 - 10
COLOUR : Grey/Whitish-Grey Nanopowder
THERMAL STABILITY : Up to 2830 °C (5130 °F)
BAND GAP : 2.1 - 3.0 eV
DOSAGE : ~ 0.001 - 0.01 wt % (depending on desired performance)
APPLICATIONS : High-grade refractory material, higher stress/strain tolerance, higher abrasion resistance, high performance ceramic brake discs, lightening arrester, semiconductor, mirror material for astronomical telescopes, nuclear fuel particle ( Tristructural-isotropic - TRISO fuel) cladding material to retain fission products at elevated temperatures confer more structural integrity to TRISO particles, fuel for steel production, nanocatalyst, higher wear-resistance fishing rod guides.
High infrared absorption, helps serve as a stealth layer or infrared camouflage coatings/composites :
APPROX. 40% absorption between 800 - 1000 nm
APPROX. 50 - 60% absorption between 1100 - 1500 nm
APPROX. 80% absorption between 1750 - 2000 nm
APPROX. 90% absorption between 2000 - 2500 nm
VIEW PRICING
VIEW PRICING
QUANTITY | PRICE
50 grams (1.76 oz.) | £ 20,000
500 grams (17.6 oz.) | £ 199,000
1kg (2.2 lb) | £ 397,000
BULK ORDER RATES : From 1 Tonne | CONTACT trade@nanoarc.org
QB-SHIELD II
QB-SHIELD II
NANOARCHITECTURE : Nanotubes
DIMENSION : < 25 nm diameter
MOHS HARDNESS : 9.5 - 10
THERMAL STABILITY : Up to 2973 °C (5383 °F)
COLOUR : Beige/Whitish Nanopowder
DOSE : 0.003 - 0.03 wt % Or as needed for the nature of radiation exposure
APPLICATIONS : Neutron absorber, heat shielding material, rocket engine component, Abrasion resistant - High-speed cutting coating, plastic resin sealing desiccant polymer additives, high temperature lubricant, insulation, high-voltage high frequency electricity, plasma arc's insulators, high-frequency induction furnace material, cooling components, composite ceramic.
VIEW PRICING
VIEW PRICING
QUANTITY | PRICE
5 grams (0.17 oz.) | £ 7,000
50 grams (1.76 oz.) | £ 69,000
250 grams (8.81oz.) | £ 345,000
BULK ORDER RATES : From 1 Tonne | CONTACT trade@nanoarc.org
QM-SHIELD
QM-SHIELD
NANOARCHITECTURE : Atomically Thin Sheets/Flakes ( < 1 nm Thickness)
SURFACE AREA (BET) : 495500 cm²/g
THERMAL STABILITY : Up to 1597 °C (2907 °F)
COLOUR : Black/Blackish-Brown Nanopowder
MOHS HARDNESS : 5 - 6
DOSAGE : ~ 0.001 - 0.1 wt % for the nature of radiation exposure and environment of application
APPLICATIONS : Photoinitiator, Gamma radiation shielding, magnetorheological fluids, electromagnetic wave absorption, increases epoxy glass transition temperature, increased thermal transport.
Page updated
Report abuse