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Simple Installation: Our nitrogen plants are designed for easy installation. |
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Fully Automated Operation: Our plants feature fully automated operation, with a programmable logic controller (PLC) at the center of control. |
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Precise Pressure Control: The pressure of our liquid nitrogen plants is adjustable, ensuring optimal performance. |
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Efficient Production: Our plants facilitate swift production with minimal human interaction, enhancing efficiency. |
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Low Noise Emission: Designed for quiet operation, our nitrogen plants are not noisy. |
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Robust Design: Our plants are engineered to withstand harsh climatic conditions, ensuring reliable operation. |
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Versatile Power Supply: They can efficient utilize electricity from all three phases, ensuring flexibility in installation. |
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Dedicated Customer Support: We provide efficient customer service and after- sales support to ensure customer satisfaction. |
Features-
1 Single cubicle design
2 Safe dispense system
3 Air cooled option - no need for water cooling
4 On wheels for ease of installation
5 Oil free air compressor
6 Built in nitrogen PSA
7 Built in oxygen analyser with alarm
8 Vacuum prevention system on liquid dewar
9 Pressure boost for liquid dispense
Features-
1 Twin cubicle design
2 On wheels for ease of installation
3 Water chilled nitrogen gas
4 Oil free air compressor
5 Built in nitrogen PSA
6 Built in oxygen analyser with alarm
7 Vacuum prevention system on liquid dewar
8 Pressure boost for liquid dispense
LN20 Air Cooled Compact Version - View PDF
LN30B Air Cooled Version - View PDF
LN65B Air Cooled Version - View PDF
Features-
1 Skid mounted design
2 Water chilled nitrogen gas
3 Built in psa nitrogen generator
4 Control panel with interlock for safe operation
5 Build in oxygen analyser with alarm
6 Vacuum prevention system on liquid dewar
7 Pressure boost for liquid dispense
8 Manual cold head to reduce power
9 Optional air compressor skid
LN130B-WC - PDF LN130B-AC - PDF
In animal husbandry, maintaining a steady supply of liquid nitrogen is essential to ensure the viability and longevity of stored genetic material. Without it, the genetic material could degrade, rendering it unusable for breeding purposes or research. Thus, proper storage and management of liquid nitrogen are critical components of animal husbandry practices aimed at preserving valuable genetic resources.
Indeed, a wide range of biological samples require storage and preservation at cryogenic temperatures to maintain their viability and integrity over extended periods. Liquid nitrogen plants play a vital role in providing the necessary ultra-low temperatures for this purpose. These plants produce and store liquid nitrogen, which is then used for cryogenic storage of various biological materials like blood, ovum, semen, seeds, viruses, and more.
Liquid nitrogen plants provide a convenient and reliable source of cryogenic temperatures for these tests, allowing researchers to subject materials and components to temperatures similar to those encountered in space. This helps ensure the success and safety of space missions by identifying and addressing potential issues with materials and components before they are deployed in space.
Liquid nitrogen is commonly used for cooling various instruments in healthcare, research institutes, and other industries. MRI magnets, in particular, require extremely low temperatures to operate effectively. Liquid nitrogen is ideal for this purpose because it has a very low boiling point of -196°C (-321°F), making it suitable for maintaining the superconducting state of the magnets in MRI machines.
A centralized liquid nitrogen system can indeed provide a reliable source of cryogenic coolant for various departments within a university or research institute. By installing a single large system, the institution can ensure a consistent and sufficient supply of liquid nitrogen to meet the needs of multiple research labs, departments, and facilities.
Superconducting magnets, such as those used in MRI machines, particle accelerators, and magnetic resonance spectroscopy, rely on cryogenic temperatures to achieve and maintain their superconducting state. Liquid nitrogen is commonly used as a coolant to keep these magnets at the required low temperatures, typically around -196°C (-321°F) or below.