Gelon Sodium Ion Battery Raw Material Cathode Material Na3V2 (PO4) 3 Nvp Powder

• Customization: Available
• Type: Lithium Metal Battery
• Cathode Material: Nvp
• Model NO.: NVP
• Size: Powder
• First Discharge Efficiency %: ≥ 90%
• Particle Size D50 Um: 1.0~2.0
• Tap Density g/cm3: 0.7
• Carbon Content %: 1.5~2.5
• Specific Capacity mAh/G (0.1c): 155
• Anode Material: LFP
• Battery Size: 26500
• Specific Surface Area M2/G: 12.0~22.0
• Weight: 1kg
• Storage Type: Rt 20c
• Compaction Density g/cm3: 2.2
• Application: Electric Vehicles
• Room Temperature Conductivity (S/Cm): 1X10 -4
• Transport Package: CTN
• Specification: NVP
• Trademark: GELON
• Origin: Guangdong, China
• Production Capacity: 1000 Kilogram/Kilograms Per Day

Product Description

Gelon Sodium Ion Battery Raw Material Cathode Material Na3V2(PO4)3 NVP Powder

 

 

Product Description

 

 

Right elevation

Left elevation

Front elevation

 

Brand Name

Gelon

Model Number

GN-NVP

Electric Energy

50 Wh

Place of Origin

Guangdong, China

Weight

20KG

The charging ratio

other

The discharge rate

other

Product name

Sodium Vanadium Phosphate

D10

13± 1um

D50

20± 1um

D90

35± 1um

Chemical formula

Na3V2(PO4)3

Tap density (g/cm3)

0.95

Value of pH

8

Content of Amorphous carbon (%)

3

Item	Technical standard	Classic value
Particle size D50 um	1.0~2.0	1.300
Tap density g/cm3	≥0.7	0.8
Compaction density g/cm3	≥2.2	2.4
Specific surface area m2/g	12.022.0	17.5
carbon content %	1.52.5	1.67
Specific capacity mAh/g (0.1C)	≥ 155	157
First discharge efficiency %	≥ 90%	92.5
Room Temperature Conductivity (S/cm)	1×10-4	2.2×10-4

NVP type 1

Cathode material for sodium ion battery
1) Product introduction The high tap density sodium-ion battery cathode material sodium vanadium phosphate has the advantages of high specific capacity, excellent rate performance, and long cycle life. It has a voltage plateau of 3.4V (relative to the metal Na electrode) and a theoretical capacity of 117.6mAn/g. Mainly used in large-scale sodium ion battery energy storage technology.
2)X-ray diffraction analysis From the XRD diffraction analysis results, it can be seen that this product is sodium vanadium phosphate with a pure phase sodium superion conductor structure, and no other impurity phases are produced

3) Scanning electron microscope The SEM image shows that the product is a uniform sphere, and the EDS result shows that the surface of the sodium vanadium phosphate sphere is coated with a uniform amorphous carbon layer.

4) Charging and discharging curve diagram It can be seen from the 1C charge-discharge curve that sodium vanadium phosphate has a pair of charge-discharge platforms, which are caused by the oxidation-reduction reaction between V3+/V4+

5) Cycle life From the 1C and 10C cycle life diagrams, it can be seen that sodium vanadium phosphate has excellent cycle stability. At 1C charge and discharge current density, after 200 cycles, the capacity does not decrease. At a current density of 10C, the first discharge-specific capacity is higher than 105mAh/g, after 2000 cycles, the discharge capacity is still higher than 85mAhg, and the capacity retention rate is higher than 80%

 

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