Carbon Molecular Sieves

Name: Carbon Molecular Sieves
Brand: BADNAJI & SONS
Price: 850 INR
Availability: InStock

Price 850 INR/ Kilograms

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MOQ : 50 Kilograms

Carbon Molecular Sieves Specification

Product Type
Carbon Molecular Sieves

Form
Spherical / Beads / Ball

Color
Black

Grade Standard
Industrial Grade

Usage
Industrial

Pack Size
25/50 Kg HDPE Bag

Carbon Molecular Sieves Trade Information

Minimum Order Quantity
50 Kilograms

Payment Terms
Cash in Advance (CID)

Supply Ability
1000 Kilograms Per Month

Delivery Time
7 Days

Main Domestic Market
All India

About Carbon Molecular Sieves

Carbon Molecular Sieves (CMS) are a type of material used in gas separation processes. They are made from a form of activated carbon with a high surface area and a uniform pore size distribution. CMS is commonly used in Pressure Swing Adsorption (PSA) systems to separate gases such as nitrogen, oxygen, and hydrogen. Carbon Molecular Sieves works by selectively adsorbing gas molecules based on their size and polarity. The pores in the CMS are sized to allow small gas molecules, such as nitrogen or hydrogen, to pass through while retaining larger molecules, such as oxygen or carbon dioxide.

High-Performance Gas Separation

Carbon Molecular Sieves are engineered to selectively adsorb oxygen from compressed air, allowing efficient and high-purity nitrogen generation. Their industrial-grade formulation in spherical and bead forms provides optimal performance for critical gas separation applications. This makes them integral for businesses seeking reliable and efficient nitrogen production solutions within their manufacturing processes.

Versatility and Secure Packaging

Available in 25 kg and 50 kg HDPE bags, our Carbon Molecular Sieves are handled with care to prevent contamination and ensure convenience in transportation. Their uniform black beads and balls are versatile, fitting into various gas separation systems across industries, from pharmaceuticals to specialty chemicals. Each bag is sealed to retain adsorptive quality and extend shelf life.

FAQ's of Carbon Molecular Sieves:

Q: How are carbon molecular sieves typically used in industrial processes?

A: Carbon molecular sieves are commonly employed for separating nitrogen from air in industrial gas generation systems. Their unique pore structure enables them to adsorb oxygen molecules selectively under pressure swing adsorption (PSA) processes, which results in the production of high-purity nitrogen.

Q: What benefits do spherical/bead forms of carbon molecular sieves offer?

A: The spherical or bead-shaped carbon molecular sieves provide a larger surface area and uniform packing in industrial columns, which leads to improved efficiency, better flow distribution, and reduced pressure drop during gas separation applications.

Q: When should carbon molecular sieves be replaced in an industrial setup?

A: Replacement depends on operational hours and the specific process, but generally, carbon molecular sieves should be monitored for capacity reduction. When nitrogen purity decreases or cycle times are extended, it typically indicates the need for replacement to maintain the process efficiency.

Q: Where can your carbon molecular sieves be supplied from?

A: We operate from India and serve as a distributor, exporter, importer, manufacturer, supplier, and trader. Our distribution network ensures reliable and timely delivery both within India and to international markets according to customer requirements.

Q: What is the typical process for installing carbon molecular sieves in an industrial application?

A: Installation involves loading the sieves into PSA units or gas separation columns, ensuring even distribution for optimal performance, and then connecting the system for required gas flow and pressure parameters specified by the equipment guidelines.

Q: What is the main advantage of using carbon molecular sieves for nitrogen generation compared to other methods?

A: Carbon molecular sieves offer high selectivity and efficiency for nitrogen generation, producing nitrogen with purities often exceeding 99.9%. This makes them more cost-effective and consistent than many alternative nitrogen separation technologies.

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