NANOARC UNIQUENESS

NANOARC is redefining industrial nanotechnology by moving beyond composition-driven materials. Our sub-20 nm ligand-free nanoparticles deliver unmatched performance through a unique three-part approach:

1. Atomic-Lattice Engineering – precise control of bonds, electron density and defect structures at the atomic scale

2. Geometry Optimisation – spherical, hollow and fullerene shapes maximise surface area, mechanical resilience and accessibility

3. Quantum Confinement – sub-20 nm dimensions unlock superior optical, electronic and catalytic properties

The Result: Materials with 30–300% higher functional efficiency per gram, more active atoms, lower material use, and ready for direct industrial integration.

BREAKTHROUGH MATERIALS AND KEY BENEFITS

1. FULLERENE ZnO & SiC (<10 nm)

• ZINC FULLERITE: Enhanced photocatalytic, antimicrobial and UV-blocking performance

• SILICENE CARBIDE: High-temperature, radiation-resistant and wear-resistant applications

• INDUSTRIAL BENEFITS: Multi-functional, ligand-free nanoparticles for coatings, composites and electronics with superior efficiency

2. HEMISPHERICAL HOLLOW CaO (<20 nm)

• Hollow structure maximises surface reactivity and thermal stability

• INDUSTRIAL BENEFIT: Faster reactions, efficient carbon capture, biodiesel catalysis and reduced material use

3. SOLID-SPHERE GOLD (<10 nm, Violet–Pink)

• Strong plasmonic response enhanced by lattice engineering and quantum confinement

• INDUSTRIAL BENEFIT: Ultra-sensitive sensors, photo-thermal therapies and advanced coatings with direct functionalisation

WHY CHOOSE NANOARC

• REPRODUCIBLE QUALITY: Sub-10 nm and sub-20 nm uniformity ensures consistent lattice structures

• VERSATILE PROCESSING: Compatible with sol–gel, vapour-phase and template-assisted techniques

• MATERIAL SAVINGS: Shape and lattice control reduces loading requirements

• PLUG-AND-PLAY: Direct integration into coatings, composites, catalysts and sensors

STRATEGIC ADVANTAGES

• Boost performance without changing chemistry – faster adoption, lower risk

• Accelerate regulatory approval – using proven chemistries

• Modular integration – fits existing production lines

• IP opportunities – proprietary lattice-engineered structures

• Enhanced surface functionality – quantum- and lattice-driven activity for catalysis, sensing and functionalisation

THE NANOARC Advantage

Ligand-free, lattice-engineered, sub-20 nm nanoparticles delivering:

• Higher efficiency per gram

• Expanded industrial functionality

• Reduced material use and operational cost

• Direct applicability in industrial processes

NANOARC represents the next generation of nanotechnology, where geometry, lattice and quantum effects combine to deliver measurable, high-impact solutions.

ATOMICALLY - ARCHITECTURED 0D PALLADIUM (Pd)

NANOARCHITECTURE: ~ 5 nm spherical nanoparticles ligand-free

SURFACE AREA (BET): ~520,000 cm²/g

COLOUR: Dark Grey to Black Nanopowder

PURITY: ≥99.9% Pd

HEAT RESISTANCE: Up to 1,554 °C (2,829 °F)

SURFACE ACCESSIBILITY: 100% active surface with no ligands or stabilisers

PARTICLE DISPERSION: Well-dispersed primary particles with minimal aggregation under inert storage. Maintains dispersion under reaction conditions with no sintering observed, preserving active surface area and catalytic performance

APPLICATIONS:

• Hydrogenation and fine chemical synthesis

• Carbon–carbon coupling reactions (Suzuki, Heck, Sonogashira)

• Electrocatalysis and fuel cell reactions

• Hydrogen sensing and storage materials

• Supported catalysts for industrial and laboratory processes

• Additive for advanced nanomaterials and catalytic composites

CATALYTIC PERFORMANCE:

• Typical Turnover Frequency (TOF): 1.5×–3× higher than conventional Pd nanopowders (up to ~5× depending on reaction conditions)

• Faster reaction kinetics with improved selectivity in hydrogenation and carbon–carbon coupling reactions

• Enables 30–60% reduction in Pd loading while maintaining equivalent or superior catalytic performance

STABILITY: 

• Resistant to sintering under standard reaction conditions

• Delivers 2×–10× longer catalyst lifetime compared to conventional Pd nanopowders

• Ensures high reproducibility across multiple reaction cycles

PERFORMANCE ADVANTAGE:

• ~2× higher usable surface area

• 1.5×–3× higher catalytic activity (TOF)

• 2×–10× longer operational stability

• Reduced noble metal consumption and improved cost efficiency

SAFETY & HANDLING: Handle under fume hood or inert conditions. Avoid inhalation or contact with skin or eyes. 

ATOMICALLY - ARCHITECTURED 0D PLATINUM (Pt)

NANOARCHITECTURE: ~ 5 nm spherical nanoparticles, ligand-free

SURFACE AREA (BET): ~550,000 cm²/g

COLOUR: Dark Gray to Black Nanopowder

PURITY: ≥99.9% Pt

HEAT RESISTANCE: Up to 1,768 °C (3,214 °F)

SURFACE ACCESSIBILITY: 100% active surface, no ligands or stabilisers

APPLICATIONS:

• High-performance fuel cell catalysts (PEMFC, DMFC)

• Electro-catalysis: hydrogen evolution reaction (HER), oxygen reduction reaction (ORR)

• Supported catalysts for fine chemical synthesis

• Sensors and electrochemical devices

• Fundamental nanomaterials research requiring direct Pt surface interactions

• Additive for advanced catalysis materials and nanocomposites

PARTICLE DISPERSION: Well-dispersed primary particles with minimal aggregation under inert storage. Can be further dispersed on supports such as carbon, silica or alumina for optimal catalytic performance

CATALYTIC PERFORMANCE:

• Typical Turnover Frequency (TOF): 0.5–2 s⁻¹ for oxygen reduction reaction (ORR) under laboratory conditions. This is 2–3× higher than typical Pt nanopowders with stabilising ligands or larger particle sizes.

• Highly active for hydrogen evolution reaction (HER) and other electro-catalytic processes due to maximal surface exposure.

ATOMICALLY - ARCHITECTURED 0D TIN OXIDE (SnOx)

NANOARCHITECTURE :  ~ 1.4 nm spherical nanoparticles

SURFACE AREA (BET) : 1,486,388 cm²/g

COLOUR : CREAM-White / WHITE Nanopowder

BAND GAP : 2.5 - 3.7 eV

BOHR EXCITON RADIUS : ~ 2.7 nm

HEAT RESISTANCE : Up to 1630 °C (2970°F)

SURFACE ACCESSIBILITY: 100% active surface, no ligands or stabilisers

APPLICATIONS : With a Bohr exciton radius of ~ 2.7 nm, these nanoparticles with a diameter of ~ 1.4 nm, are well within the quantum-confinement range and heightened functionality for Tin Oxide.

As an extrinsic semiconductor exhibiting a wide band range, Tin Oxide is suitable for thin film nano-engineering for liquid crystal displays, transparent heating elements, resistors. It has a high gas sensing ability. It's an active component of functional energy-conservation and anti-static coatings. conductive inks, magnetic, electrodes and antireflection coatings in solar cells. 

It serves as an electron transport and hole blocking layers in printed electronics. It also performs as electron injection and charge recombination functions in thin film systems such as: organic photovoltaics (OPVs), organic light emitting diodes (OLEDs) and printed photodetectors.

Tin oxide nanoparticles have magnetic properties that allow their use in magnetic data storage and magnetic resonance. 

Other applications include catalysis and opacifier in ceramic glazes in ceramics. With its ultra-high surface area, it is an efficient mordant for dyeing processes.

ATOMICALLY - ARCHITECTURED Q-AURUM

NANOARCHITECTURE: ~10 nm spherical nanocrystals

SURFACE AREA (BET): ~120,000 cm²/g

OPTICAL ABSORPTION / QUANTUM CONFINEMENT: ~2.53 eV

BOHR EXCITON RADIUS: ~1.8 nm

COLOUR: Mauve nanopowder

HEAT RESISTANCE:  Up to ~1,000 °C

SURFACE ACCESSIBILITY: 100% active surface, no ligands or stabilisers

BENEFITS:

• High catalytic efficiency: Ligand-free surface exposes maximum active sites, enabling faster reactions and higher turnover in heterogeneous and electrocatalytic processes

• Superior optical performance: Stable LSPR at ~490 nm ensures reproducible sensing, photonics and plasmonic outcomes

• Excellent dispersion and stability: Uniform 10 nm size reduces aggregation, maximising functional performance in colloidal or composite systems

• Versatile functionalisation : Readily surface-modifiable for biomolecules, polymers or catalysts without compromising activity

• Robust under practical conditions: Maintains shape and performance under thermal and chemical stress similar to bulk gold

APPLICATIONS: Catalysis (oxidation, selective hydrogenation, carbon–carbon coupling), Electrocatalysis, Fuel cell electrodes, Energy storage materials, Photo-thermal therapy, Drug delivery, Biosensing, Nanocomposites, Coatings, Electronics, Plasmonic applications

PERFORMANCE METRICS :

• Particle dispersion: High uniformity with minimal aggregation

• Catalytic efficiency: Optimised for high turnover in lab and industrial reactions

• Optical consistency: Stable absorption at ~490 nm for reproducible results

View Safety Data Sheet  (SDS) HERE