Ammonia Cracker Unit

Ammonia cracking is an extremely cost-effective method for producing hydrogen gas on-site for industrial purposes. In this process, the electrically heated furnace is maintained at a temperature of 850°C. The furnace contains a centrifugal cast retort, which is filled with a nickel catalyst. It is at this point that the ammonia undergoes cracking in the presence of the nickel catalyst. As a result, the process separates the vital element into 75% hydrogen gas and 25% nitrogen gas, with a dew point of (-)30°C.

It is worth noting that nitrogen gas is typically inert. Therefore, this mixture is considered to be pure hydrogen gas. It has become the most economical, reliable, and widely used source for on-site hydrogen generation in both small and large industries. Following the ammonia cracking unit, a molecular sieve purifier is employed to reduce residual ammonia content and obtain a highly dry gas. This purifier reduces ammonia levels to 1 part per million (ppm) and lowers the dew point of the gas to (-)80°C.

PSG Engineering Company, located in Hapur, Ghaziabad, Uttar Pradesh, is a renowned manufacturer, supplier, and exporter of high-quality ammonia cracker units. Specializing in cutting-edge engineering solutions, PSG Engineering Company has established itself as a trusted name in the industry. Their ammonia cracker units are designed to efficiently decompose ammonia into hydrogen and nitrogen through catalytic cracking, making them ideal for a variety of industrial applications, including heat treatment, metal processing, and chemical synthesis.

PSG Engineering Company’s dedication to customer satisfaction is evident in its comprehensive after-sales support and service. By continuously innovating and improving their product offerings, they have successfully built a strong reputation both domestically and internationally. Whether you are looking for a reliable ammonia cracker unit for industrial use or seeking a trusted partner for engineering solutions, PSG Engineering Company is the name to trust.