Ni Catalyst Activated Carbon

Item No.
NI
Nickel catalytic activated carbon

Catalytic Support for Hydrogenation and Chemical Reactions

NI is a functional activated carbon utilizing high-surface-area coconut shell-based material impregnated with nanoscale nickel (Ni) particles. Leveraging the catalytic properties of nickel, it delivers high performance in hydrogenation and various chemical reaction processes involving organic compounds.

Features

High Catalytic Activity
Nickel, as a transition metal, exhibits a reactive electronic structure that enables efficient catalysis, particularly in hydrogenation reactions.
Nanoparticle Dispersion
Uniform loading of nickel at the nanoscale enhances both reaction rate and catalyst durability, improving operational efficiency by approximately 30%.
High-Quality Activated Carbon Base
The large surface area of coconut shell activated carbon maximizes gas–solid contact, improving reaction efficiency and adsorption performance.
Enhanced Durability
Offers excellent structural stability and resistance to heat and chemicals, ensuring long service life under demanding conditions.

Our nickel catalytic activated carbon is activated carbon with nickel impregnated in nanoparticle state into a high-quality coconut shell activated carbon with excellent adsorption action. It possesses transition metal catalytic function.

Application

Gas Purification

Effective in the removal of harmful gases and volatile organic compounds (VOCs).

Hydrogenation Catalyst

Suitable for catalytic hydrogenation processes in industrial chemical synthesis.

Technical data

Ammonia adsorption limit performance comparison test

◆ Test overview

Sample A：Coconut shell activated carbon KD-GW 10g
B：Nickel catalytic activated carbon10g (Ni : KD-GW = 2 : 8)
Gas concentration Ammonia 100ppm/time
Measurement time 10 minutes/time
Detection tube Gas Tech Ammonia No. 3La
  • (1) Place the sample in a polyethylene bag (200 x 300mm), put in air using an air pump, and seal the bag with a sealer.
  • (2) Inject with a syringe the reagent with predetermined concentration.
  • (3) Let stand for 10 minutes, then measure the ammonia concentration in the detection tube.
  • (4) Repeat (1) to (4) to check for break points.

◆ Test results

s
No. of times A：Coconut shell activated carbon KD-GW B：Nickel catalytic activated carbon
Input amount(ppm) Measured value(ppm) Input amount(ppm) Measured value(ppm)
1 100 0 100 0
2 100 0 100 0
3 100 0 100 0
4 100 0 100 0
5 100 0 100 0
6 100 0 100 0
7 100 0 100 0
8 100 0 100 0
9 100 0 100 0
10 100 0 100 0
11 100 0 100 0
12 100 0 100 0
13 100 0 100 0
14 100 0 100 0
15 100 0 100 0
16 100 5 100 0
17 100 7 100 0
18 100 10 100 0
19 100 10 100 0
20 100 12 100 0
21 100 12 100 0
22 100 15 100 0
23 100 18 100 0
24 100 20 100 0
25 100 22 100 2
26 100 25 100 5
27 100 40 100 4
28 100 42 100 5
29 100 38 100 5
30 100 50 100 5

◆ Test result image

A：Coconut shell activated carbon KD-GW B：Nickel catalytic activated carbon
A：Coconut shell activated carbon KD-GW B：Nickel catalytic activated carbon

◆ Test resultsgraph

A：Coconut shell activated carbon KD-GW
A：Coconut shell activated carbon KD-GW
B：Nickel catalytic activated carbon
B：Nickel catalytic activated carbon

Quality specifications(analysis example)

Shape Granular
BET surface area 610.3㎡/g
Hardness 98.5%
Particle size(MESH) 20x50
Packing density 0.65g/㎤
Ash content 2.3%
Catalyst Nickel
Loss on drying 11.4%
Minimum Lot 100㎏〜

Data material(PDF)