TRANSCENDING LIMITATIONS

Modern energy storage systems — Li-ion, Na-ion, supercapacitors and solid-state batteries — are being pushed to deliver higher power, faster charge rates, and longer cycle life. 

Traditional electrode materials face limitations:

Slower Ion and Electron Transport: Bulk materials have long diffusion paths, limiting charge/discharge speed.

Capacity Fade Over Time: Grain boundaries, defects, and particle fracture reduce usable capacity over repeated cycles.

Thermal and Mechanical Instability: Conventional materials often degrade under high-rate operation or elevated temperatures.

Energy Density Constraints: Limited surface area reduces the number of active sites for ion storage.

RESULT: Devices struggle to meet the performance, longevity, and reliability demanded by modern applications, from EVs to grid-scale storage.

THE QUANTUM ADVANTAGE

Quantum nanomaterials are engineered at the scale where atomic structure directly dictates performance. By controlling dimension, surface area, and crystallinity, these materials overcome the limitations of traditional electrodes:

CRITICAL DIMENSIONS (<1–8 nm)

• Shorter ion and electron pathways → ultra-fast charge/discharge.

• Enhanced reaction kinetics improve power density without sacrificing cycle life.

MAXIMISED SURFACE AREA

• More active sites per unit volume → higher energy storage capacity.

• Accelerates ion adsorption/desorption and electron transfer for rapid response.

GRAIN-BOUNDARY-FREE STRUCTURES

• Defect-free flakes, nanotubes, and nanoparticles resist degradation over thousands of cycles.

• Maintains electrode integrity under mechanical stress or high-rate cycling.

DIRECTIONAL CONDUCTIVITY (1D & 2D MATERIALS)

• Nanotubes and ultrathin flakes provide guided electron transport → efficient, high-power performance.

• Reduces energy loss, heat generation, and performance drop during high-current operation.

NANOARC’s advanced nanomaterials are engineered at the quantum scale to deliver unmatched performance in energy storage systems. By carefully controlling dimension, structure, and surface area, our materials provide:

HIGH ENERGY DENSITY: Maximise storage capacity without increasing volume or weight.

EXCEPTIONAL DURABILITY: Grain-boundary-free and defect-free structures maintain performance over thousands of cycles.

REDUCED WEIGHT: Nanomaterials allow lighter electrodes, optimising system-level efficiency.

FAST CHARGE/DISCHARGE: Ultrafine flakes and nanotubes enable rapid ion and electron transport.

RESULT: Energy storage devices that are smaller, lighter, longer-lasting and faster — giving OEMs a clear competitive edge.

APPLICATION SECTORS

ELECTRIC VEHICLES (EVs): Lighter, higher-energy electrodes for faster charging and longer range.

GRID-SCALE STORAGE: High-capacity, durable solutions for renewable integration and peak-shaving.

CONSUMER ELECTRONICS: Compact, high-performance cells with extended cycle life.

SUPERCAPACITORS: Ultrafast charge/discharge for energy recovery systems and hybrid devices.

ADVANCED BATTERIES: Solid-state, Na-ion, and Li-ion systems requiring thermal stability and reliability.

AEROSPACE: High-performance, lightweight energy storage for satellites, UAVs, and aviation applications where weight, reliability, and high energy density are critical.

PERFORMANCE PROFILE

Extremely high theoretical capacity, ultra-thin architecture, high active surface area, enhanced ion accessibility

• Ultra-High Anode Capacity: 1320–2830 mAh g⁻¹, significantly exceeding conventional transition metal oxides such as CoO, NiO, and CuO

• High Supercapacitor Output: ~877 Ah g⁻¹ for rapid energy delivery and high-power operation

• Electrolyte Stability Enhancement: High surface reactivity enables effective HF scavenging in LiPF₆ systems, improving cell durability and cycle life

• 2D Structural Integrity: Atomically-precise architecture supports stable cycling over thousands of charge/discharge cycles

APPLICATIONS

• Lithium-ion battery anodes

• Supercapacitor electrodes

NANO-ENGINEERED FOR ADVANCED ENERGY SYSTEMS

Power Faster. Last Longer. Achieve More.
Zincene Oxide is a 2D, atomically-architectured nanomaterial designed to push the limits of electrochemical energy storage through extreme surface control and rapid charge transport.

Zincene Oxide enables energy storage devices that are lighter, faster and longer-lasting, supporting next-generation EVs, grid storage, and high-performance electronic systems.

View Safety Data Sheet (SDS) HERE

KEY CHARACTERISTICS

High theoretical capacity, ultra-thin architecture, high active surface area, enhanced ion accessibility

• Maximum Surface Reactivity: Ultra-small dimensions provide exceptional interfacial activity for electrochemical systems

• Clean Interfaces: Ligand-free surfaces ensure unobstructed charge transfer and improved material compatibility

• Controlled Nanoscale Behaviour: Uniform ~5 nm architecture supports predictable performance in composite electrodes

• High Dispersibility Potential: Nanoscale geometry enables integration into advanced electrode formulations

APPLICATIONS

• Lithium-ion battery electrodes (additive / active material)

• Supercapacitor systems

• Composite energy storage architectures

• Advanced functional nanocomposites

DESIGNED FOR MATERIAL-LEVEL PERFORMANCE CONTROL

Pure. Precise. Performance-Ready.
0D Zinc Oxide consists of ultra-small, ligand-free ZnO nanoparticles engineered for high reactivity and controlled surface-driven electrochemical performance.

0D Zinc Oxide delivers a pure, high-surface-area building block for next-generation energy storage materials where interface engineering and nanoscale uniformity are critical.

View Safety Data Sheet (SDS) HERE

ATOMICALLY - ARCHITECTURED 0D TIN OXIDE (SnOx)

NANOARCHITECTURE :  ~ 14 Ångstrom  (1.4 nm) spherical particles

SURFACE AREA (BET) : 1,486,388 cm²/g

SURFACE CHEMISTRY: Ligand-free, clean-surface nanostructure

BAND GAP : 2.5 - 3.7 eV

COLOUR : Cream-White / White Nanopowder

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

PRIMARY BATTERY ROLE: High capacity anode additive

BEST USE CASES: High-energy lithium-ion batteries, EVs, aviation, drones

OVERVIEW :  Quantum confinement is a scientifically defined property, not marketing jargon. It is determined by particle size and crystal structure, providing predictable, measurable performance improvements in energy storage systems. 

Our 1.4 nm ligand-free quantum-confined SnOₓ nanoparticles are engineered for high-performance energy storage devices, including lithium-ion batteries, sodium-ion batteries and supercapacitors.

APPLICATIONS

• Anode material for LIBs and SIBs

• Pseudocapacitive electrode for supercapacitors and hybrid devices

BENEFITS:

Higher reversible capacity, fast charge/discharge, high surface area, improved lithium accessibility

• Better dispersion in the electrode

• Faster ion transport and reduced electrode resistance

• Maximal utilisation of quantum-confined surfaces

WHY OUR SYSTEM IS UNIQUE:

• DURABILITY: Grain-boundary-free for ultra-high capacity and long-lasting cycling

• QUANTUM CONFINEMENT: At ~1.4 nm, well below the exciton Bohr radius (~2–3 nm), electrons and holes are confined in all three dimensions. This creates discrete energy levels, widens the band gap by 0.3–0.5 eV, and enhances electron mobility. The result is faster ion diffusion, higher specific capacity and improved cycling stability compared with conventional SnOx nanoparticles.

• LIGAND-FREE SURFACES: With all surface atoms exposed, these nanoparticles provide maximum electrochemical activity and direct contact with conductive carbon and electrolyte. This ensures efficient electron transfer, strong ion interaction and reproducible performance.

• ULTRA-HIGH SURFACE AREA (~1,486,388 cm²/g): Enables lower electrode loadings while delivering superior performance. Approx.  40% less material needed in electrodes, reducing total battery weight by ~5%.

INTEGRATION PROCESS

• Disperse nanoparticles with carbon and binder in solvent to create a uniform slurry

• Coat onto current collector (Cu for anodes, Al or carbon cloth for supercapacitors)

• Dry under controlled conditions and compress to optimise porosity and mechanical stability

• Assemble with separator and electrolyte to complete the device

PERFORMANCE ADVANTAGES

• Up to 40% higher reversible capacity than conventional SnO₂ nanoparticles

• 2–3× faster charge/discharge rates due to nanoscale electron and ion pathways

• Enhanced cycling stability from quantum-confined structure

• Fully exposed surface atoms for maximum electrochemical activity

ATOMICALLY - ARCHITECTURED NIOBIUM OXIDE (NbxOy) 

COLOUR : White Nanopowder

DIELECTRIC CONSTANT : 41

BOHR EXCITON RADIUS : 8.2nm

HEAT RESISTANCE : Up to 1512 °C (2754 °F)

PRIMARY BATTERY ROLE: Fast-charge anode material/protective additive

BEST USE CASES: Fast-charging lithium-ion batteries, hybrid systems, defence power systems

High-Performance Oxide for Fast-Charge, Long-Life Energy Systems

Atomically-architectured niobium oxide is a white nanopowder engineered for advanced electrochemical systems requiring rapid ion transport, structural stability, and sustained high-rate performance.

ELECTROCHEMICAL PERFORMANCE

Rapid ion intercalation, excellent coulombic efficiency, long cycle life, silicon anode protection

• High Theoretical Capacity: ~202 mAh g⁻¹ (Li-ion systems)

• Fast Ion Intercalation: Supports rapid lithium-ion transport for high-power operation

• High-Rate Capability: Achieves ~225 mAh g⁻¹ at 200 mA g⁻¹ over 400+ cycles

• Exceptional Efficiency: Coulombic efficiency of 99.93%

• Cycling Stability: Maintains capacity over extended charge–discharge cycling with minimal degradation

• Strong Reversibility: High reversible capacity in both lithium- and sodium-ion systems

FUNCTIONAL ADVANTAGES

• Fast-Charge Architecture: Enables rapid lithium and sodium ion intercalation with minimal structural strain

• Long-Cycle Stability: Resists capacity fade under repeated high-rate cycling

• Silicon Anode Protection: Effective coating material that mitigates silicon volume expansion and improves structural integrity

High-Power Performance: Supports sustained output under demanding load conditions

APPLICATIONS

• Lithium-ion battery anodes

• Sodium-ion battery anodes

• Silicon-based anode coatings

• High-power electrochemical energy storage systems

ENGINEERED FOR DEMANDING ENERGY SYSTEMS

Niobium Oxide (NbxOy) delivers a rare combination of fast kinetics, high efficiency, and thermal robustness, making it ideal for next-generation batteries requiring both rapid charge and long operational life.

ELECTROCHEMICAL PERFORMANCE

Very high surface area, rapid ion transport, strong cycling stability, high power delivery

• High Lithium Storage Capacity: Supports superior energy density in battery anodes

• Exceptional Rate Capability: Maintains performance even at high charge/discharge currents

• Cycling Stability: Robust structure ensures long-term capacity retention

• High-Current Tolerance: Delivers reliable operation under demanding load conditions

APPLICATIONS

• Lithium-ion battery anodes

• High-rate electrochemical energy storage systems

NANO-ENGINEERED FOR HIGH-PERFORMANCE ENERGY STORAGE

Ultra-Thin. Ultra-Powerful. Ultra-Performant.

Magnetene is a 2D, atomically-engineered magnetite material designed for next-generation lithium-ion batteries. Its ultra-thin sheets and extreme surface area deliver high-capacity, rapid-charge, and long-lasting performance.

Magnetene combines atomically-thin architecture, extreme surface area, and robust electrochemical stability to enable lithium-ion cells that are faster-charging, higher-capacity and longer-lasting.

View Safety Data Sheet  (SDS) HERE 

ELECTROCHEMICAL PERFORMANCE

Short ion diffusion paths, excellent thermal stability, rapid charge/discharge, structural durability

• Short Transport Lengths: Ultra-small nanospheres reduce ion diffusion distances for faster charge/discharge

• Enhanced Structural Stability: Resists degradation over repeated cycling

• Voltage Control: Precise voltage profile governed by lithium adsorption on the nanospheres

• High-Temperature Tolerance: Operates reliably under extreme thermal conditions

APPLICATIONS

• Lithium-ion battery anodes

• High-performance, high-rate energy storage devices

• Advanced electrochemical systems requiring tuneable electronic properties

NANO-ENGINEERED FOR NEXT-GENERATION BATTERIES

Precision. Performance. Durability.
Atomically-architectured 0D Silicene Carbide is engineered as ultra-small nanospheres to deliver rapid ion transport, structural resilience, and tunable electronic properties for advanced energy storage applications.

0D Silicene Carbide delivers faster kinetics, superior cycle stability, and tunable energy properties, enabling electrodes that are lighter, more durable, and faster-charging, ready for cutting-edge EVs, grid storage, and high-performance electronics.

ELECTROCHEMICAL PERFORMANCE

Multiple lithium storage sites, structural resilience, high thermal stability, efficient ion transport

• Short Ion Transport Paths: 1D architecture enables ultra-fast charge/discharge

• Multiple Lithium Storage Sites: Ions are stored on exterior surfaces, interstitial sites, and nanotube interiors

• Voltage Control: Defined voltage profile based on lithium adsorption concentration

• High Structural Stability: Resists degradation over repeated cycles, ensuring long-term capacity retention

• High-Temperature Reliability: Maintains performance under extreme thermal conditions

APPLICATIONS

• Lithium-ion battery anodes

• High-rate energy storage devices

• Advanced electrodes requiring tuneable electronic properties

NANO-ENGINEERED FOR NEXT-GENERATION BATTERIES

Fast. Durable. Tunable.

Atomically-architectured 1D Silicene Carbide forms ultra-fine nanotubes engineered for rapid ion transport, exceptional structural resilience, and tuneable electronic properties — ideal for advanced lithium-ion batteries and high-performance energy storage.

1D Silicene Carbide combines ultra-fast kinetics, tunable energy gaps, and exceptional durability, enabling electrodes that are lighter, faster-charging, and longer-lasting, perfect for EVs, grid-scale storage and high-performance electronics.