Powering Batteries with Graphite
Morphology of graphite allowed us to create anodes materials with a higher rate capability and energy density.
“Lowering battery costs is crucial in making electric
cars more
affordable
since the battery pack accounts for half of the purchase
expense, with the
cells making up 70% of the cost, the graphite
anode 15%.”
Vikram Handa
Founder & Managing Director
Graphite Anode Materials
Synthetic, Natural, Blended & Agglomerated Graphite
High Perfomance
Unleashing the full potential with our optimized anode materials, amplifying battery efficiency and performance.
High Capacity
Out battery Material Offers High Capacity in the range of 350-360 mAh/g with respect to minimum EV grade anode requirements of 345-350 mAh/g.
High Quality
Extensive testing is conducted on our anode material to guarantee its excellent quality for reliable, durable, and safe batteries.
Longer Life Cycle
Our battery material which will be used in LIB are designed to last longer and low self discharge.
Fast Charging
Powering up devices with our material’s fast-charging capabilities, maximum output with minimum input.
Value Driven
Proprietary, advanced, and sustainable processes, sourcing locally while supplying globally, ensures exceptional value.
Greenest Materials
Powering industry with our greenest materials, making a substantial ~78% reduction in global warming potential (GWP) compared to competitors.
Graphite Anode For Power & Energy Storage Applications
Graphitic Carbon Coating
Amorphous Carbon Coating
| Properties | Natural Graphite Series | |||||
|---|---|---|---|---|---|---|
| Powder Properties |
D50 | μm | 9-13 | 13-17 | 9-13 | 13-17 |
| BET | m²/g | <3.0 | <3.0 | <3.0 | <3.0 | |
| Tap Density | g/cc | >1.0 | >1.0 | >1.0 | >1.0 | |
| EC Data | Capacity | % | >362 | >362 | >362 | >362 |
| FCE | mAh/g | >92.0 | >92.0 | >92.0 | >92.0 | |
| Remarks |
Graphitic Carbon Coating |
Amorphous Carbon Coating |
||||
| Grade and Application-type |
Energy Density High temp. application |
Quick Charge Low temp. application |
||||
EGNG10
- Discharge capacity: 366±2 mAh/g
- FCE: >92 %
- Particle size (D50): 10±2 µm
ESNG10
- Discharge capacity: 359±3 mAh/g
- FCE: >93%
- Particle size (D50): 10±2 µm
EMAG15
- Discharge capacity: 353±2 mAh/g
- FCE: >93%
- Particle size (D50): 14±2 µm
Primary
Primary
Secondary
Blended
| Parameter | Unit | Synthetic Graphite | |||
|---|---|---|---|---|---|
| Primary Particle | Secondary Particle | ||||
| Blended | |||||
| Particle size (D50) | μm | 9-12 | 13-17 | 13-17 | 11-17 |
| Tap density | g/cc | >1.10 | >1.2 | >1.0 | >1.0 |
| Surface area | m²/g | <2.5 | <2.0 | <1.7 | <2.0 |
| Ash | % | <0.03 | <0.03 | <0.03 | <0.03 |
| Electrode density | g/cc | 1.55-1.65 | 1.57-1.63 | 1.55-1.65 | 1.55-1.65 |
| Discharge capacity | mAh/g | >352 | >353 | >350 | >350 |
| CE | % | >93 | >93 | >93 | >93 |
| Grade-type | - | Quick Charge | Energy Density | Quick Charge | Quick charge & Energy Density |
| Application | ESS | EV/Power Tools | |||
EGNG15
- Discharge capacity: 366±2 mAh/g
- FCE: >92%
- Particle size (D50): 15±2 µm
ESNG15
- Discharge capacity: 360±3 mAh/g
- FCE: >93%
- Particle size (D50): 15±2 µm
Graphite Anode Manufacturing Process
Case Study
Building without emissions and manufacturing with by-products
