High Temperature Shift Catalyst with High Performance for Ammonia Plant

group name: High Temperature Shift Catalyst

Min Order: 1 ton

brand name: Syamcat Ammonia Catalyst Manufacturer

model: SYAMCAT B117/SYAMCAT B117X

Nearest port for product export: qingdao

Delivery clauses under the trade mode: FOB, CFR, CIF, EXW, FCA

Acceptable payment methods: T/T, L/C

update time: Thu, 21 Nov 2024 14:48:30 GMT

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Paramtents

Active Component Iron Oxide
Catalyst Carrier Gamma Alumina
Color Tan
Side crush strength/(N.cm-1) ≥220/≥180

Packging & Delivery

Min Order1 ton

Briefing

High temperature shift catalyst is taking iron oxide as active component, chromic oxide as structure modifier.

Detailed

Description of High Temperature Shift Catalyst

High Temperature Shift Catalyst with High Performance for Ammonia Plant

SYAMCAT high temperature shift catalyst is a highly efficient and energy-saving product.

It’s suitable for large and medium-sized ammonia synthesis or hydrogen production units using coal, light oil, natural gas, oil field gas, etc. as feedstock. It’s especially suitable for use under low steam-to-gas ratio conditions of energy-saving ammonia synthesis units.

Application of High Temperature Shift Catalyst

Synthesis ammonia or hydrogen plant：

Used in the high or medium temperature shift reaction of CO and steam to form H₂ and CO₂ in synthesis ammonia or hydrogen plant.

Operating Conditions of High Temperature Shift Catalyst

Item	SYAMCAT B117/B117X
Inlet temperature/℃	280-360
Maximum temperature/℃	530
Pressure/MPa	0.1-0.5
Dry gas space velocity/h^-1	50-4000
Steam/dry gas ratio/(v.v^-1）	≥0.35

Specification of High Temperature Shift Catalyst

Physical-chemical properties

Item	SYAMCAT B117	SYAMCAT B117X
Shape	Tablets	Tablets
Size/mm	9*9	_6*6
Active component	Ni	Ni
Bulk density/(kg.L-1)	1.35±0.15	1.30±0.15

Features of High Temperature Shift Catalyst

High-Performance Catalyst: Our catalyst is engineered for peak performance, utilizing iron oxide as an active component and chromic oxide as a structural modifier. This optimal combination delivers exceptional results that enhance your business's overall efficiency and profitability.

Efficiency in Challenging Conditions: Designed to excel in high-velocity and low steam-to-dry gas ratio operating conditions, our catalyst exhibits impressive low-temperature activity. This capability not only boosts your production capacity but also leads to significant energy savings, positively impacting your bottom line.

Exceptional Selectivity: Our catalyst stands out with its excellent selectivity, effectively suppressing the generation of undesirable by-products, including hydrocarbons and alcohols. This refined selectivity streamlines your processes and reduces waste, translating into cost savings.

Durability and Longevity: Built with robust mechanical strength, our catalyst ensures uninterrupted operations by avoiding breaking during usage. Its extended service life guarantees consistent performance and minimizes downtime, further optimizing your production.

Efficient Use of Resources: Thanks to its low bulk density, our catalyst allows for reduced dosage without compromising effectiveness. This efficient resource utilization results in cost savings, as you require less catalyst for the same charge volume.

Sulfur Resistance: Our catalyst demonstrates excellent sulfur resistance, further enhancing its reliability and lifespan. Its resilience in the presence of sulfur ensures your operations remain efficient and uninterrupted.

Adaptable and Flexible: Boasting strong adaptability and operational flexibility, our catalyst smoothly integrates into various processes, helping you adjust to dynamic industry demands with ease.

Cost Reduction: With its low bulk density and reduced weight, our catalyst offers significant cost reductions. These qualities enable you to fill the same charge volume with less catalyst, ultimately lowering operational expenses.

Enhanced Productivity and Energy Efficiency: Notably, our catalyst features low-temperature activity, promoting increased production and energy savings. Its ability to operate optimally at lower temperatures boosts your overall output and reduces energy consumption.