Surface Structure
Better bonding with active material - longer life
Performance Data
Proven Results
Validated by ARAI & third-party accredited labs. Proven across 20+ battery manufacturers.
OUR HIGHLIGHTS
Next-Generation Material for Battery Energy Storage
01
Fast Charge Capability (Up to 0.22C):
Stable, efficient charging up to 0.22C without material degradation.
02
Enhanced Capacity Across C-Rates:
10–20% higher discharge capacity from C5 to C1 for better rate performance.
03
98% Ampere-Hour (Ah) Efficiency:
Minimal charge loss ensures strong cycle life and electrochemical stability.
04
85% Watt-Hour (Wh) Efficiency:
Improved usable energy output with enhanced overall system efficiency.
Application – FESEM
Cancrie Nanocarbon in Tubular Batteries Negative Mix
With Cancrie Nanocarbon
With Carbon Black
Conventional Structure
Lesser bonding of active material - shorter life
Differential
Cancrie Higher Carbon vs. Other Battery Carbon
- Higher Volume: Cancrie Higher carbon offers a 3x greater volume than conventional battery carbon, making it an ideal choice for optimized performance in solar and inverter applications.
- Superior Efficiency: With its larger volume, Cancrie Higher provides better conductivity, ensuring more effective energy storage and longer-lasting battery life.
- Reliable Power Supply: This unique carbon structure ensures consistent power performance even under heavy loads, making it a key component in tubular flooded batteries.
Application
Tubular Flooded Batteries In Solars & Inverter
Life cycle performance at 80% DOD and C10 discharge rate improves significantly — increasing from around 900 cycles to roughly 1100 cycles.
| Deep Discharge Cycling Test | Cycles / Months | |
|---|---|---|
| Cancrie Nanocarbon Battery | 1100 | Cycles |
| Regular Carbon Battery | 900 | Cycles |
| Warranty Period Increase with Cancrie Nanocarbon | 3–12* | Months |
*Depending upon application.
25% more number of cycles with Cancrie Nanocarbon
Cancrie negative –
no shedding after 1100 cycles
no shedding after 1100 cycles
Click to view full image
Carbon Black negative –
heavy shedding after 900 cycles
heavy shedding after 900 cycles
Click to view full image
Charging Behaviour
Motor Vehicle Starting Battery
60% Higher Charge Acceptance
Charge acceptance test data as per IEC 60095
| Current after 10 mins (14.4V Constant Voltage) |
Amp hour after 10 mins (14.4V Constant Voltage) |
|
|---|---|---|
| Control Battery | 20.3 A | 3.6 Ah |
| Cancrie Nanocarbon Battery | 32.8 A | 5.76 Ah |
Cancrie Nanocarbon delivers 100% Capacity at each charging rate
Validation
Proof of performance/Fast Charging
| Charging Rate | Battery with Carbon Black | Battery with Cancrie Nanocarbon |
|---|---|---|
| 0.12 C | 100% | 100% |
| 0.14 C | 98% | 100% |
| 0.16 C | 91% | 100% |
| 0.18 C | 84% | 100% |
| 0.25 C | 82% | 100% |
Validation
Proof Of Performance / Efficiency
60% Higher Charge Acceptance
ARAI
Recognized testing & validation partner
99%
Ah Efficiency
85%
Wh Efficiency
Result By Battery Technology
Powering the Future with Green Nanotechnology
Lead Acid
Lead Acid Battery Solutions
Performance data covered in the results above — including lifecycle improvements, charge acceptance, FESEM surface analysis, and ARAI-validated efficiency metrics.
Lithium-Ion
Lithium-ion Battery Solutions
Bridge the gap between sustainability and high performance with Cancrie's patented nanocarbon solutions. Our biomass-derived materials serve as a high-efficiency cathode enhancer, accelerating electrochemical reactions to deliver superior energy density and power performance. We lower the carbon footprint of battery production and reduce the industry's heavy reliance on intensive mining for critical minerals. Our "drop-in" technology integrates seamlessly into existing manufacturing lines, optimizing ion transport and thermal stability. The result is a safer, longer-lasting Lithium-ion battery that supports a truly circular economy and a cleaner supply chain for next-generation energy storage.
Sodium-Ion
Sodium-ion Battery Solutions
Cancrie is unlocking the full potential of Sodium-ion technology by directly addressing the fundamental bottlenecks of slow ion kinetics and electrode degradation. Because sodium ions are larger and heavier, they often struggle with sluggish diffusion and mechanical stress during cycling; our patented nanocarbons provide an engineered, high-surface-area framework that facilitates rapid ion transport and maintains structural integrity. By stabilizing the electrode architecture, Cancrie significantly enhances the power delivery and cycle life of sodium cells — key pain points that have historically limited the technology. Our biomass-derived solution enables a high-performance battery that is entirely free from the supply chain risks and environmental costs of lithium and cobalt mining, delivering a truly sustainable, cost-effective, and robust energy storage alternative that excels in both thermal safety and long-term reliability.
Redox Flow
Overcoming Material Constraints for Scalable Storage
Cancrie overcomes the primary limitations of Redox Flow Batteries (RFB) by addressing sluggish redox kinetics and high internal resistance at the electrode-electrolyte interface. While RFBs are ideal for long-duration grid storage, their performance is often throttled by the low electro-catalytic activity of standard carbon felt electrodes. Our patented nanocarbon serves as a high-performance surface activator, drastically increasing the electrochemically active surface area and accelerating the electron transfer process. This enhancement reduces voltage losses and improves round-trip efficiency, allowing for more compact and cost-effective system designs. By utilizing our biomass-derived materials, manufacturers can also phase out chemically treated or petroleum-based catalysts, reducing the environmental footprint and the need for rare-metal additives.
Supercapacitor
Supercapacitor Solutions — Unlocking Ultra-Fast Energy Delivery
Cancrie overcomes the critical trade-offs in supercapacitor design by optimizing the interface between power density and energy retention. Our patented, biomass-derived nanocarbons feature a meticulously engineered pore architecture that maximizes the electrochemically active surface area while ensuring rapid electrolyte penetration. This advanced framework significantly enhances charge-storage capacity and reduces internal resistance, allowing for near-instantaneous power bursts without the typical thermal stress. By replacing petroleum-based activated carbons with our sustainable, high-purity alternative, manufacturers can deliver more compact, durable, and eco-friendly devices that excel in regenerative braking, grid stabilization, and rapid-response industrial applications.
Fuel Cell
Fuel Cell Solutions — Optimizing Catalyst Efficiency for Clean Power
Cancrie addresses the critical barriers to fuel cell adoption by solving the challenges of sluggish oxygen reduction reactions and the high cost of precious metal catalysts. Our patented nanocarbons provide a highly conductive, corrosion-resistant framework that optimizes the distribution of catalyst particles and improves mass transport. By increasing the electrochemically active surface area, Cancrie enhances the efficiency of the electrochemical conversion, allowing for higher power output and extended system durability. This biomass-derived solution enables manufacturers to significantly reduce precious metal loading and eliminate petroleum-based components, paving the way for more affordable, sustainable, and mining-independent fuel cell systems for heavy-duty transport and stationary power.