Products

Molecular sieve zeolites are interesting class of micro porous crystalline inorganic compounds. They have molecular dimensional pores/channels and depending on their composition they may have ion exchange properties also. These materials are thermally stable over a wide range of temperatures. Due to unique properties of zeolites, they find applications in catalytic and separation process and act as hosts for many active agents. Depending on the pore size, each zeolite will discrimination towards molecules entering into it. The effective pore size of each zeolite further depends on the labile cations present in its structure

3A Molecular Sieve

Molecular Sieve Type 3A, the potassium form of the type A crystal structure, is an alkali metal alumino-silicate. Available in spherical and pellets for commercial dehydration of various streams such as cracked gas, propylene, butadiene and acetylene. Type 3A is also used for drying polar liquids such as methanol and ethanol

3A Molecular Sieve Datasheet ⇓

Dehydration in

» Natural Gas  Processing
» Petrochemical
» Refining
» Ethanol Dehydration
4A Molecular Sieve

4A molecular sieve is the sodium form of the Type A crystal structure, is an alkali metal alumino-silicate. It’s available in powder, pellets and beads for dehydration and CO2 removal from natural gas, LPG, air sweetening and desulfurizing of natural gas, PSA hydrogen purification, air purification upstream of PSA units and compressors, syngas purification

4A Molecular Sieve Datasheet ⇓

Dehydration & CO2 removal in

» Natural Gas  Processing
» Petrochemical
» Refining
» Ammonia and Syngas
5A Molecular Sieve

Type 5A is the calcium form of molecular sieves. It will absorb those molecules having a critical diameter of less than 5 angstroms such as H2S, light Mercaptans Methanol, Ethane, and Propane, as well as species adsorbed by 3Å and 4Å. This product is also effective for the bulk separation of normal and iso-paraffin hydrocarbons.

5A Molecular Sieve Datasheet ⇓

Dehydration, Sweetening, Oxygenate removal, Iso and normal paraffin separation in

» Natural Gas  Processing
» Petrochemical
» Refining
» PSA Hydrogen Purification
13X Molecular Sieve

13X is a sodium type molecular sieve, with a larger pore diameter than type A. It will adsorb those molecules with a critical diameter of less than 10 angstroms. Such as Chloroform, Carbon Tetrachloride, and Benzene

One of the most common application of 13X molecular sieves is in industrial oxygen concentrators. These machines produce their oxygen by using air compression and valving to pass room air through a 13X molecular sieve comprising a container which holds the sieve material as a sandy type of substance

13X Molecular Sieve Datasheet ⇓

Oxygen Concentrator, Dehydration, Sweetening, Oxygenate removal in

» Industrial PSA Oxygen Concentrator
» Petrochemical
» Refining
» Solvent Drying and Purification
LTX Molecular Sieve

LTX molecular sieve is a specialized 13X molecular sieve for effective oxygen generation in medical and industrial PSA systems. According to exceptional nitrogen capacity, extraordinary kinetics and superior selectivity, molecular sieve LTX can produce oxygen-rich streams with a purity exceeding 95% in stationary and portable oxygen concentrators

LTX Molecular Sieve Datasheet ⇓

High-performance Nitrogen Adsorption in

» Medical Oxygen Generator
» Industrial Oxygen Concentrator
Activated Alumina

Activated alumina is a high surface area and highly porous form of aluminum oxide that can be employed for contaminant species adsorb from gases or liquids without changing its form. It has an exceptionally high volumetric capacity for any liquids that may be present in the feed stream. The most common application of activated alumina is as a protective layer at the inlet of many gas-phase molecular sieve beds

Additionally, it can be used in the drying of various streams when complete dryness is not necessary while high thermal and mechanical resistance is required.

Activated Alumina Datasheet ⇓

Purification & Dehydration in

» Natural Gas  Processing
» Petrochemical
» Refining
» Air Dehydration Units
Mercury Removal Adsorbent

Mercury occurs naturally and is present in many of the world’s natural gas fields. Concentrations have increased from single-digit part-per-billion levels in localized areas of the world, to thousands of parts-per-billion in many of the world’s gas reservoirs. when mercury present in gas processing facilities, it can be a primary cause of corrosion, equipment failure, and downstream catalyst deactivation.

Our high capacity mercury adsorbents are engineered using a metal-based active component finely dispersed across a high pore volume substrate. This high capacity leads to infrequent change-outs and a longer lifespan, minimizing the cost of mercury removal over time.

Mercury Removal Datasheet ⇓

Purification in

» Natural Gas  Processing
» Petrochemical
» Refining
Activated Carbon

activated carbon is used in a wide range of industrial applications, including gas and air cleaning involving traditional reusable substance recovery applications. Heightened environmental awareness and the enactment of strict emissions guidelines have led to the development of new applications, most notably in the area of air pollutant removal. Activated carbon is also being used to an increasing extent in the treatment of water, including drinking water, groundwater, service water, and wastewater. Its primary role in this context is to adsorb dissolved organic impurities and to eliminate substances affecting odor, taste, and color in halogenated hydrocarbons and other organic pollutants

Activated Carbon Datasheet ⇓

Purification & Dehydration in

» Natural Gas  Processing
» Petrochemical
» Refining
» Air Dehydration Units
Carbon Molecular Sieve (CMS)

 Carbon molecular sieves (CMS) are a special class of activated carbons. However, the pore size distribution of these materials is not always strictly discrete and furthermore, molecules are not hard spheres; they can sometimes squeeze into narrow pores. The main distinction is that activated carbons separate molecules through differences in their adsorption equilibrium constants, in contrast, an essential feature of the carbon molecular sieves is that they provide molecular separations based on the rate of adsorption rather than on the differences in adsorption capacity. This behavior is clearly evident in pressure swing adsorbers (PSA) where gas dynamics dominate. The separation of nitrogen from air by PSA is the single most important application of CMS

Carbon Molecular Sieve Datasheet ⇓

Nitrogen Concentrator in

» PSA systems for N2 generation