|
HS Code |
562134 |
| Name | Nitrogen |
| Symbol | N |
| Molecular Formula | N2 |
| Molar Mass | 28.0134 g/mol |
| State At Room Temperature | Gas |
| Appearance | Colorless, odorless |
| Boiling Point | -195.8°C |
| Melting Point | -210.0°C |
| Density | 1.2506 g/L (at 0°C, 1 atm) |
| Solubility In Water | 23.2 mg/L at 20°C |
| Critical Temperature | -146.95°C |
| Cas Number | 7727-37-9 |
| Electronegativity | 3.04 (Pauling scale) |
| Common Uses | Fertilizer, cryogenics, food preservation |
As an accredited Nitrogen factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
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Purity 99.999%: Nitrogen with 99.999% purity is used in semiconductor manufacturing, where it ensures a contaminant-free environment for high device yield. Pressure 150 bar: Nitrogen at 150 bar pressure is used in pipeline purging, where it displaces flammable gases and prevents oxidation. Liquid phase -196°C: Nitrogen in liquid phase at -196°C is used in biological sample preservation, where it allows for long-term cryogenic storage without cellular degradation. Flow rate 50 Nm³/hr: Nitrogen delivered at a flow rate of 50 Nm³/hr is used in chemical reactor inerting, where it minimizes explosion risks during sensitive reactions. Dew point -70°C: Nitrogen with a dew point of -70°C is used in pharmaceutical packaging, where it inhibits moisture-induced product degradation. Stability temperature up to 300°C: Nitrogen stable up to 300°C is used in heat treating of metals, where it prevents surface oxidation and maintains alloy integrity. Particle size <1 micron: Nitrogen gas with particle contaminants below 1 micron is used in laser cutting, where it produces cleaner cuts and minimizes residue. Density 1.25 kg/m³: Nitrogen at standard density of 1.25 kg/m³ is used in food packaging, where it creates an inert atmosphere to extend shelf life by reducing spoilage. Purity 98%: Nitrogen with 98% purity is used in oil and gas reservoir blanketing, where it decreases fire risks by reducing oxygen concentration. Moisture content <5 ppm: Nitrogen with moisture content less than 5 ppm is used in lithium battery cell manufacturing, where it prevents moisture-sensitive component degradation. |
| Packing | Nitrogen gas is packaged in a high-pressure steel cylinder, labeled “Nitrogen, Compressed,” containing 50 liters at 200 bar pressure. |
| Container Loading (20′ FCL) | A 20′ FCL (Full Container Load) typically transports Nitrogen cylinders, securely loaded, complying with safety and regulatory guidelines. |
| Shipping | Nitrogen is shipped as a compressed, liquefied, or refrigerated liquid gas in specialized, high-pressure cylinders or insulated tankers. Containers are clearly labeled with hazard warnings. Strict regulations ensure secure handling to prevent leaks or exposure, as nitrogen is an asphyxiant. Temperature and pressure are carefully monitored during transit. |
| Storage | Nitrogen is typically stored as a compressed gas in high-pressure steel cylinders or as a cryogenic liquid in insulated, vacuum-sealed tanks. For gaseous storage, cylinders are fitted with pressure regulators to ensure safety. Liquid nitrogen is kept at temperatures below -196°C and is often used with dewars to minimize evaporation. Proper ventilation and handling procedures are essential to prevent asphyxiation risks. |
| Shelf Life | Nitrogen gas has an unlimited shelf life when stored in properly sealed, high-pressure cylinders, as it is chemically inert. |
Competitive Nitrogen prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615651039172 or mail to sales9@bouling-chem.com.
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Tel: +8615651039172
Email: sales9@bouling-chem.com
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Walking through our production facility and watching liquid nitrogen swirl in insulated tanks or seeing cylinders being filled, you get a real appreciation for what goes into producing nitrogen you can trust. In our daily work, the goal remains consistent—stable supply, unwavering purity, and reliability for industries that depend on getting the details right every single delivery.
Our nitrogen doesn’t begin as just a gas for shipping; it’s the product of tested processes, hands-on adjustments, and careful monitoring. No shortcuts replace methodical fractionation, where we extract nitrogen from air using cryogenic separation. Watching that system in motion isn’t glamorous: compressors humming, distillation columns hissing, and skilled operators logging every shift. Weekly calibration of purity detectors matters as much as any single piece of equipment in our hall.
Over years of working with end users in labs, electronics, pharmaceuticals, and food packaging, we’ve seen details of purity standards spelled out in contracts and—sometimes—discovered why they’re needed in the first place. Our standard model delivers 99.999% pure nitrogen, measured and certified before shipment. For some chemical syntheses, impurities as small as 10 ppm of oxygen or moisture can spoil the batch or force a costly restart—costs that nobody wants.
Walking alongside clients, we’ve learned that one-size-fits-all specs leave certain customers shortchanged. Semiconductor manufacturers want ultra-high purity gas with oxygen and hydrocarbons down below 1 ppm; laboratories might accept 99.99% as long as dew point and hydrocarbon load are consistently measured. We keep sample records dating back years, and when a client calls to trace a number from an old batch, we can give it with confidence.
At its core, our nitrogen supports so many downstream activities that it’s easy to lose track of the ripple effect. Our bulk liquid nitrogen ends up in food freezing tunnels, giving chicken or vegetables a rapid chill that keeps bacteria in check. Cylinders supply laser cutting facilities, providing the inert atmosphere steel and aluminum need for smooth edges. In oil and gas, our trucks deliver nitrogen where it fills pipeline voids, wards off moisture, and displaces flammable gases during maintenance.
Pharmaceutical companies count on us to keep bioreactor atmospheres free from oxygen spikes. The pressure is high during new product launches or when timelines are tight, and supply interruptions aren’t acceptable. We’ve found close communication—sometimes daily—with engineers on those projects prevents small issues from snowballing. Sometimes, their needs change mid-campaign, and we send mini-tankers at odd hours. It’s not glamorous, but this problem-solving keeps people’s trust.
It’s easy to look at stainless steel cylinders or insulated tanks and think of packaging as simple storage. But much can go wrong if attention slips. We prepare each vessel by vacuum drying, checking for seal integrity, and clearing old gaskets. Labels list batch numbers, test criteria, and fill dates because clear records protect customers and ourselves. Our drivers train not just for safe transport, but to check for frost build-up or over-pressurization before unloading.
In the realm of bulk or on-site nitrogen, we often set up and maintain customer-owned dewars or storage tanks. Sometimes, clients ask for help designing the layout or selecting vaporizer size—we do it based on weather, anticipated demand, refill frequency, and historical consumption. Our engineers know the cost of running out of nitrogen isn’t limited to wasted product; it hits production schedules and, by extension, jobs.
Nitrogen stands apart from oxygen, carbon dioxide, or argon in both use and behavior. We’ve experienced plenty of debates with plant managers over which gas fits an application best. For most inert blanketing, where the mission is to block oxygen and its tendency to corrode or react, nitrogen is both effective and affordable. Argon outperforms nitrogen for specialty welding but stands at a steep price premium. Oxygen brings life to furnaces or fermentation, but it’s no substitute where flammability or reactivity is a concern.
Looking back, the food industry finds no replacement for nitrogen in modified atmosphere packaging. Carbon dioxide works for some perishables but can alter taste and texture. Our clients appreciate that nitrogen does not react or leave residue; its role is to provide time—delaying spoilage, oxidation, or microbial growth—without changing the underlying product. This neutrality earns us long-term repeat business, as trust builds batch by batch.
Our nitrogen leaves the facility as either compressed gas, bulk liquid, or occasionally as on-site generated supply. Bottled cylinders fill niche or portable uses, especially in research and instrument calibration. Food manufacturers and metal processors receive bulk or microbulk shipments, often piped directly into their lines. In regions with consistent, high demand, we help design and install nitrogen generators using membrane or pressure swing adsorption (PSA) systems, giving businesses control over their own supply and reducing delivery truck traffic.
Some buyers come assuming on-site generation covers every scenario. Our experience shows certain precision applications—like pharmaceuticals or microelectronics—need higher purity than most generators deliver without substantial added system complexity. Cryogenic plant output wins for 99.999%+ grade, but comes at higher installation and maintenance costs. We don’t steer everyone to the same model; we listen to the problem and supply what solves it.
Nitrogen is asphyxiating and almost invisible, so our operational protocols focus on education and vigilance. We’ve seen near misses from poor ventilation in small labs or during tank swaps in tight spaces. Our safety training drills stress that oxygen sensors and exhaust fans aren’t luxuries—they’re requirements. We warn clients, especially those new to bulk liquid systems, that nitrogen frost burns skin and the dense vapor sinks into low spaces.
Regulations may not always spell out the level of warning we provide, but we prefer covering the risks up front. We work with plant safety officers and maintenance crews to rehearse response actions, install alarms, and share real stories from the field. These steps often prevent tragedies and keep workers confident around the equipment. Experience shows that thoughtful safety beats paperwork.
Producing nitrogen doesn’t draw as much attention as carbon-based fuels, but we live with the reality that air liquefaction and compression need significant electricity. Our energy use fluctuates with demand spikes, and we invest in high-efficiency compressors and process optimization to keep both costs and emissions in check. Waste heat recovery projects, system insulation upgrades, and shift scheduling help us run leaner every year. Each improvement reflects suggestions shared by technicians, night shift supervisors, or plant engineers who see inefficiencies in real time.
Every once in a while, a client asks about the carbon footprint of their nitrogen. Our data shows that local delivery, bulk shipments, and on-site generation each carry different impacts. We recommend new facilities consider on-site systems where feasible, and we actively maintain a fleet that includes alternative-fueled or high-efficiency delivery vehicles. Real reductions come from weaving small gains together every year, not from one headline-grabbing change.
Manufacturing isn’t a static business. Changing trends in technology, logistics, and compliance keep us on our toes. We’ve weathered times when semiconductor expansion wiped out surplus nitrogen, squeezing supply and driving up prices. During public health emergencies, pharmaceutical and medical gas needs, including nitrogen, surged overnight. Our flexibility comes from close relationships with vendors, backup systems for peak loads, and a team geared toward solving unexpected problems without fanfare.
Beyond managing flows and schedules, legal requirements change by region and by year. Certification, labeling, and transport regulations evolve, particularly for food and pharmaceutical grades. Staying ahead means direct investment in continuous training for both field and office staff. We keep copies of all changing standards in easy reach, and we participate in industry working groups to stay connected to trends not yet law. We’ve found that direct lines to regulators—built on trust and facts, not lobbying—help clarify gray areas long before they reach the stage of enforcement or fines.
Some of the most rewarding projects involve pairing our product knowledge with a customer’s novel use case. Whether a craft brewery wants to experiment with nitrogen-dosed canned ales or a researcher aims to simulate Mars-like conditions for a biology study, we work through challenges side by side. Sometimes, innovations come from unexpected places: a new valve design pitched by our maintenance techs cut wastage across a client’s whole receiving system.
We see ourselves not just as suppliers but as partners—helping troubleshoot, scale up, and refine uses that stretch what nitrogen can do. In the field, our application engineers don’t treat unique setups as a nuisance; they see each problem as a puzzle. Some commercial nitrogen providers shy from these small-scale or unusual requests, but our hands-on knowledge means fewer surprises for our partners.
Our years in direct manufacturing illustrate that most challenges surface after the truck leaves, not during the sale. Sudden leaks, flow drops, or gauge oddities in the customer’s system always find their way back to our operations desk. We don’t just sell replacement cylinders or suggest a new flowmeter; we often make site visits, review pipe runs, and train staff in troubleshooting. Our decades of experience teach us to look for problems that might get missed: a kinked line behind a wall, a regulator with debris, or insulation that gave out after a hot summer.
Long-term customers sometimes come to us asking about adjusting contract supply or temporary redundancy for seasonal peaks. Our production schedules flex to accommodate these realities, because relationship longevity beats penny-pinching on every order. We’ve weathered winter blizzards and summer heat waves parked outside facilities with mobile delivery tanks, and our drivers know the faces of customers well enough to spot if something seems strange or off during a routine stop. This care strengthens trust on both sides of every exchange.
Looking ahead, nitrogen’s profile is changing as biotechnology, electric vehicles, hydrogen fuel cells, and advanced electronics demand new grades or volumes. We stay close to research developments and adjust product pipelines as needs shift over months or years. Yesterday, steelworks and industrial freezers dominated the order book; today, surge markets may crop up around battery manufacturing or medical cryopreservation.
Some hurdles will persist through every boom and bust: finding skilled operators, investing in infrastructure that lasts, and balancing expansion with stability. We train new hires extensively, pairing them with veterans so real-life lessons get passed along—not just read about in manuals. Investments in automated batch monitoring and digital records absorb much of the routine workload, but no software replaces a technician who hears a compressor cycling oddly or smells a leak before any sensor flashes an alarm.
Reflecting on years inside the manufacturing gates teaches a simple lesson: nitrogen’s value comes from both reliable molecules and dependable people. Machines fill tanks, but humans check samples, fix leaks, and talk with clients who need more than a tracking number or purity certificate. With every batch, we’re aware that our gas blends into fuel tanks, food rows, manufacturing lines, and scientific equipment all across the region.
Experience shows that partnership—not just transaction—builds trust. Our history, data, and personal connections inside the factory let us back up every shipment with knowledge and pride. The next time you see a nitrogen cylinder or tanker, remember every operator, engineer, and driver who keeps those silent molecules moving. For us, nitrogen is more than inventory; it’s a craft.