The air we breathe is made up of a variety of gases, each with its own set of characteristics that are useful in a variety of industrial processes and medical treatments
The mixture contains a group of gases of nearly constant concentrations and a group with concentrations that are variable in both space and time
Zero air refers to air that has been purified to an extremely high degree. To be classified as zero air, it must contain less than 0.1 parts per million (PPM) of total hydrocarbons. Hydrocarbons are compounds composed solely of hydrogen and carbon atoms. They are the primary components of natural gas and petroleum. For example, methane (CH₄) is a hydrocarbon with one carbon atom and four hydrogen atoms, while propane (C₃H₈) and ethane (C₂H₆) are also hydrocarbons.
High-quality zero air generators can produce a continuous flow of dry, clean air with extremely low hydrocarbon content (less than 0.05 ppm). These generators can extract ultra-clean air from an existing compressed air supply. They are commonly used to supply zero air for gas chromatography (GC-FID, FPD, NPD), liquid chromatography-mass spectrometry (LC/MS), and gas sensing applications.
Zero air is commonly used as a carrier gas in gas chromatography. GC is an analytical technique that separates and analyzes volatile compounds in a sample. The purity of the carrier gas (such as zero air) is crucial for accurate results.
In GC-FID, zero air serves as the makeup gas for the FID. The FID detects hydrocarbons by measuring the ionization of carbon atoms in the sample. Using zero air ensures minimal interference from background hydrocarbons.
Similar to FID, NPD is another type of detector in gas chromatography. It specifically detects nitrogen- and phosphorus-containing compounds. Zero air is essential for maintaining a clean background signal.
In LC/MS, zero air is used to create a clean environment for ionization and mass analysis. Impurities can affect the sensitivity and accuracy of mass spectrometry results.
Zero air is employed in air quality monitoring stations to calibrate instruments and measure pollutant levels. It ensures accurate readings by minimizing interference from hydrocarbons.
Many analytical instruments, such as spectrophotometers and atomic absorption spectrometers, require zero air for calibration. Precise calibration ensures reliable measurements.
Grade | Ultra High Pure |
---|---|
Phase | Gas |
Specifications |
|
Purity | 99.999% |
Moisture | < 1PPM |
Oxygen | < 21% |
Nitrogen | < 79% |
Total Hydocarbon | < 0.5 ppm |
Tolerance | ± 1% |
Packing |
|
The oxidizing gas used for life sustaining and performance optimization applications. Oxygen is a colorless, odorless reactive gas and the life-supporting component of air. It forms just under 21% of the earth's atmosphere, and is the most abundant element in the earth's crust, mainly in the form of oxides, silicates, and carbonates.
Oxygen is the most commonly used respiratory gas in healthcare. It's essential for sustaining life and is often administered to patients who have difficulty breathing or who suffer from conditions such as pneumonia, chronic obstructive pulmonary disease (COPD), or during surgical procedures.
Oxygen is used to react with fuels like coal, natural gas, and oil during combustion processes. This releases energy in the form of heat and light. Applications: Power generation, heating, and lighting.
Oxygen reacts with various chemicals, including metals, organic compounds, and pollutants. Resulting chemical reactions enable the production of products like plastics, pharmaceuticals, and fertilizers.
Oxygen supports the growth and reproduction of microorganisms. These microorganisms convert sugars and other organic compounds into ethanol and other useful products.
Oxygen is critical in metal production. It’s used to remove impurities from iron, steel, and other metals, resulting in high-quality products.
Oxygen enriches the combustion process in glass production. This leads to a more efficient and cost-effective production process.
Oxygen-enhanced combustion technologies have been developed. These technologies improve combustion processes, resulting in lower emissions, improved energy efficiency, and reduced costs. Applications: Power generation, waste incineration, and cement production.
Oxygen is used in wastewater treatment processes. It promotes the growth of microorganisms that break down organic compounds and pollutants. Result: Improved water quality and lower operating costs.
CAS NO. | 7782-44-7 |
---|---|
Molecular Weight | 31.99 |
Phase at STP | Gas |
Apperance | Colourless |
Odour | Odourless |
Taste | Tasteless |
Category | Oxidizer(Supports Combustion) |
Grade | Commercial and Ultra High Pure |
Package | Compressed Gas Cylinders, Dura and Tanker Load |
Grades | Commercial Grade | Ultra High Pure |
---|---|---|
Phase | Gas | Liquid |
Specification | ||
Purity | 99.00% | 99.50% |
Moisture | < 3ppm | |
Total Hydrocarbon | < 0.5ppm | < 0.5ppm |
Nitrogen | < 5ppm | |
Argon | < 3ppm | |
Carbon Monoxide | < 0.5ppm | |
Packing | Compressed Gas | |
Package | Tanker Loads | |
Carbondioxide | < 0.5 ppm |
Nitrogen, with its inert properties, proves to be a critical component across diverse industries, contributing to safety, efficiency, and quality in various applications. Explore how our cutting-edge nitrogen technologies are revolutionizing processes from metals manufacturing to healthcare.
Protection of Flammable Substances: Nitrogen blanketing safeguards flammable or explosive solids and liquids by creating an inert atmosphere, preventing degradation from atmospheric oxygen and moisture.
Nitrogen sparging involves bubbling nitrogen through liquids to remove unwanted volatile components, meeting pollution reduction regulations.
Steel Production: Nitrogen treats the melt in steel manufacturing and acts as a shield gas during the heat treatment of metals.
Flash Removal: Liquid nitrogen is employed to make cast metal brittle, facilitating the removal of unwanted flash or fins by mechanical action.
Shrink Fitting: Liquid nitrogen is used for cooling inner metal parts, enabling tight fits through shrinkage and subsequent expansion.
Concrete Cooling: Liquid nitrogen cools concrete during construction, enhancing cured properties.
Equipment Purging: Nitrogen purges equipment, tanks, and pipelines of dangerous vapors and gases in refineries, petrochemical plants, and marine tankers.
Reactor Cooling: Liquid nitrogen cools reactors during maintenance, allowing better control of side- reactions in complex chemical processes.
Flash Removal: Cryogenic cooling with liquid nitrogen facilitates the removal of flash on cast plastics and rubber.
Cryosurgery: Argon is used for precise cryosurgery, selectively destroying small areas of diseased or abnormal tissue by creating very cold argon at the treatment site through controlled expansion.
Cryoablation: Argon is utilized in treating heart arrhythmia by destroying cells interfering with the normal distribution of electrical impulses.
CAS NO. | 7727-37-9 |
---|---|
Molecular Weight | 28.014 |
Phase at STP | Gas |
Apperance | Colourless |
Odour | Odourless |
Taste | Tasteless |
Category | Compressed Gas (May Explode) |
Grades | Commercial and Ultra High Pure |
Package | Compressed Gas Cylinders, Dura and Tanker Load |
Grades | Commercial Grade | High Pure | Ultra High Pure |
---|---|---|---|
Phase | Gas | Gas | Liquid |
Specification | |||
Purity | 99.50% | 100.00% | 100.00% |
Moisture | < 5 ppm | < 2 ppm | |
Total Hydrocarbon | - | < 0.5ppm | - |
Carbon Dioxide | - | < 0.5ppm | - |
Carbon Monoxide | - | < 0.5ppm | - |
Oxygen | < 4ppm | < 0.2 ppm |
Carbon dioxide (CO2) is a colorless, odorless gas composed of one carbon atom bonded to two oxygen atoms. It is a naturally occurring compound in Earth's atmosphere, but its levels have been increasing due to human activities such as burning fossil fuels, deforestation, and industrial processes.
CO2 is widely used as a shielding gas in welding processes such as MIG (metal inert gas) welding. It creates an inert atmosphere around the weld pool, preventing oxidation and ensuring high-quality welds.
In the food industry, CO2 is used for carbonation of beverages, such as soda and beer, providing effervescence and enhancing flavor. It is used for controlled atmosphere storage of fruits, vegetables, and other perishable items to extend shelf life. CO2 is employed in food processing as a freezing agent, especially in the production of frozen foods.
CO2 serves as a raw material or reactant in various chemical processes. It is used in the production of urea, methanol, and other organic compounds. Carbon dioxide is also utilized in the synthesis of carbonates, bicarbonates, and various polymers.
In water treatment processes, CO2 is used to adjust pH levels, particularly in alkaline water treatment systems. It's employed in the production of carbonated water for drinking water applications.
CO2 is utilized in fire extinguishing systems, particularly in areas where water-based extinguishing agents may cause damage, such as data centers, electrical rooms, and engine compartments.
In enhanced oil recovery (EOR) operations, CO2 is injected into oil reservoirs to increase oil production by lowering the oil viscosity and displacing it towards production wells.
In pharmaceutical manufacturing, CO2 is used as a solvent in the extraction of natural products and as a propellant in inhalers. It's used in medical applications such as cryotherapy and laparoscopic surgeries.
CO2 is increasingly being utilized in carbon capture and storage (CCS) technologies to reduce greenhouse gas emissions from industrial processes and power plants.
CAS NO. | 124-38-9 |
---|---|
Atomic Weight | 44.01 |
Phase at STP | Gas |
Apperance | Colourless |
Odour | Sharp, acidic |
Taste | Faint Acidic |
Category | Compressed Gas (May Explode) |
Grades | Commercial and Ultra High Pure |
Package | Compressed Gas Cylinders, Dura and Tanker Load |
Grades | Argon + Carbon Dioxide | Carbon Dioxide | Carbon Dioxide |
---|---|---|---|
Phase | Gas | Gas | Liquid |
Specification |
|||
Purity |
|
99.70% | 99.90% |
Moisture | < 5 ppm | < 10 ppm | |
Total Hydrocarbon | < 2 ppm | < 20 ppm | |
Sulphur | - | - | < 0.01 ppm |
Oil | - | - | < 5 ppm |
Packing | Compressed Gas Cylinders | Tanker Load Dura | |
Oxygen | < 5ppm | - | |
Argon based mixture can be supplied as per customer requirement |
Argon, the most abundant and cost-effective truly inert gas. Argon's versatility and inert nature make it an indispensable component across various industries. Our cutting-edge bulk gases filter solutions cater to a wide range of applications, ensuring optimal performance and reliability.
TIG Welding (Gas Tungsten Arc Welding): Pure argon or argon mixtures are utilized as shield gases to protect the tungsten electrode and weld pool from the oxidizing effects of air, particularly when working with aluminum.
MIG Welding (Gas Metal Arc Welding): Argon, often mixed with carbon dioxide, serves as a shielding gas for MIG welding of structural steel.
Steel Production: In converter steelmaking, argon is blown into molten metal to reduce chromium losses and achieve the desired carbon content at lower temperatures.
High-Quality Steel Manufacturing: Argon is used as a blowing gas to prevent the formation of nitrides during the manufacture of high-quality steels.
Titanium and Zirconium Production: Argon acts as an inert gas to prevent oxidation and reactions during the manufacturing processes of titanium and zirconium.
Light Bulb Manufacturing: Argon is employed as a filler gas in light bulbs to exclude oxygen and reactive gases, reducing tungsten filament evaporation rates and allowing higher filament temperatures.
Thermo Pane Windows: Argon, used as a filler gas between glass panels, minimizes heat transmission and convective movement, enhancing the efficiency of high-performance thermo pane windows.
Semiconductor Industry: Argon, combined with methane, serves as a filler and high-purity inert shield gas in the production of silicone and germanium crystals for the semiconductor industry.
Winemaking: Argon is employed to displace oxygen in barrels, preventing the formation of vinegar. It is also utilized in wine dispensing units for preserving opened bottles.
Cryosurgery: Argon is used for precise cryosurgery, selectively destroying small areas of diseased or abnormal tissue by creating very cold argon at the treatment site through controlled expansion.
Cryoablation: Argon is utilized in treating heart arrhythmia by destroying cells interfering with the normal distribution of electrical impulses.
CAS NO. | 7440-37-1 |
---|---|
Atomic Weight | 39.95 |
Phase at STP | Gas |
Apperance | Colourless with lilac glow under electric field |
Odour | Odourless |
Taste | Tasteless |
Category | Compressed Gas (May Explode) |
Grades | Commercial and Ultra High Pure |
Grades | Commercial Grade | High Pure | Ultra High Pure |
---|---|---|---|
Phase | Gas | Gas | Liquid |
Specification |
|||
Purity |
|
99.995% | 99.999% |
Moisture | < 5 ppm | < 3 ppm | |
Oxygen | < 5 ppm | < 3 ppm | |
Total Hydrocarbon | < 0.5 ppm | < 0.5 ppm | |
Packing |
|
|
|
This is a colorless, odorless and tasteless inert gas which has no toxic properties, It is present in atmosphere at a very low concentration of 5.2 PPM by volume and second lightest elements after hydrogen. Helium is a noble gas, which means it is inert and generally does not react with other elements under normal conditions. It has the lowest boiling point of all the elements, making it one of the few substances that remain liquid near absolute zero.
Helium is widely used as a cryogenic coolant due to its extremely low boiling point. It is used to cool superconducting magnets in applications such as magnetic resonance imaging (MRI) machines, particle accelerators, and nuclear magnetic resonance (NMR) spectroscopy.
Historically, helium was used as a lifting gas in balloons and airships due to its low density. However, its use in this application has declined due to its high cost and limited availability.
Helium is used as a shielding gas in gas tungsten arc welding (GTAW) and gas metal arc welding (GMAW) processes to prevent oxidation and improve weld quality. It is also used in leak detection systems for its small atomic size, which allows it to escape from small leaks more easily than other gases.
Helium-oxygen gas mixtures, known as heliox, are used in deep-sea diving to reduce the risk of nitrogen narcosis and decompression sickness at high pressures.
Helium is used in respiratory therapies for its low density and high thermal conductivity, allowing patients to breathe more easily and efficiently.It is also used in cryotherapy treatments to cool and numb tissue for medical procedures.
Helium is used as a carrier gas in gas chromatography due to its inertness and low molecular weight, allowing for efficient separation of analytes.
Helium is used as a pressurant and coolant in rocket propulsion systems and spacecraft due to its low boiling point and inertness.
Helium is used in nuclear research as a coolant for reactors and as a medium for detecting and measuring radiation.
CAS NO. | 7440-59-7 |
---|---|
Atomic Weight | 4.002 |
Phase at STP | Gas |
Apperance | Colourless with reddish Orange glow under electric field |
Odour | Odourless |
Taste | Tasteless |
Category | Compressed Gas (May Explode) |
Grades | Commercial and Ultra High Pure |
Packing | Compressed Gas Cylinders |
Grades | Commercial Grade | Ultra High Pure | Ultra High Pure |
---|---|---|---|
Phase | Gas | Gas | Liquid |
Specification |
|||
Purity | 99.995% | 99.7% | 99.9% |
Moisture | < 5ppm | < 2ppm | < 1 ppm |
Oxygen | < 5ppm | < 2ppm | < 1 ppm |
Total Hydrocarbon | < 1 ppm | < 0.5ppm | < 0.5ppm |
CO2 + CO | < 0.5ppm | ||
Nitrogen | < 5ppm | ||
Packing |
|
|
|
Dissolved acetylene, also known as acetylene dissolved in a suitable solvent, is a colorless, highly flammable gas with a faint odor. It is commonly used in various industrial applications due to its versatility and high energy content.
Dissolved acetylene is widely used as a fuel gas in oxy-acetylene welding and cutting processes. When mixed with oxygen in the correct proportions and ignited, acetylene produces a high-temperature flame capable of melting and joining metals. It is commonly used for welding and cutting applications in industries such as construction, automotive, and metal fabrication.
Acetylene is also used in brazing and soldering applications, where it provides a localized heat source for joining metal components with lower melting points than those used in welding.
The high-temperature flame produced by acetylene is utilized for flame heating applications, such as preheating metal surfaces prior to welding or bending. It is also used for flame cleaning to remove rust, scale, and other contaminants from metal surfaces.
Acetylene is used as a fuel gas in thermal spraying processes, where it is combusted with oxygen to generate a high-velocity flame. The flame is directed onto a material (typically a metal or ceramic) in powder or wire form, which melts and forms a coating on the surface of the substrate.
Acetylene serves as a raw material for the synthesis of various organic compounds in the chemical industry. It is used in the production of plastics, synthetic rubber, pharmaceuticals, and other organic chemicals.
Acetylene is utilized in the synthesis of carbon nanotubes, a class of nanomaterials with unique electrical, mechanical, and thermal properties.
Historically, acetylene was used in portable and stationary gas lighting systems, where it was burned in specialized lamps to produce a bright, white light
CAS NO. | 74-86-2 |
---|---|
Atomic Weight | 26.04 |
Phase at STP | Gas |
Apperance | Colourless burning with sooty flame |
Odour | Faint Garlic Like Odour |
Taste | Tasteless |
Category | Inflammable |
Grades | Commercial and Ultra High Pure |
Packing | Compressed Gas Cylinders |
CAS NO. | 74-86-2 |
---|---|
Molecular Weight | 26.04 |
Phase at STP | Gas |
Apperance | Colourless burning with sooty flame |
Odour | Faint garlic-like odour |
Taste | Tasteless |
Category | Inflammable |