|
HS Code |
391758 |
| Chemical Formula | H2 |
| Molecular Weight | 2.016 g/mol |
| Appearance | colorless gas |
| Odor | odorless |
| Density | 0.08988 g/L at 0°C and 1 atm |
| Melting Point | -259.16°C |
| Boiling Point | -252.87°C |
| Flammability | highly flammable |
| Solubility In Water | very low (0.00162 g/L at 20°C) |
| Critical Temperature | -239.96°C |
| Critical Pressure | 12.97 atm |
| Autoignition Temperature | 500°C |
| Cas Number | 1333-74-0 |
As an accredited Hydrogen Gas factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Hydrogen Gas is packaged in high-pressure steel cylinders, labeled "Hydrogen," containing 40 liters, with safety valve and hazard warnings. |
| Container Loading (20′ FCL) | Hydrogen Gas is shipped in 20′ FCLs using high-pressure gas cylinders securely loaded and compliant with international safety regulations. |
| Shipping | Hydrogen gas is shipped as a compressed gas in high-pressure cylinders or specialized tankers. It is flammable and requires strict safety measures, including proper labeling and secure storage away from heat, sparks, or flames. Shipping containers must comply with regulatory standards, and ventilation is essential to prevent accumulation and reduce explosion risk. |
| Storage | Hydrogen gas is typically stored in high-pressure cylinders or tanks made of robust materials like steel or composite fibers. These containers are designed to withstand pressures up to 700 bar (10,000 psi). Storage areas must be well-ventilated, away from heat sources, and equipped with safety measures to prevent leaks, as hydrogen is highly flammable and poses explosion risks. |
| Shelf Life | Hydrogen gas has an indefinite shelf life when stored in proper high-pressure, sealed cylinders, as it does not degrade over time. |
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Purity 99.999%: Hydrogen Gas Purity 99.999% is used in semiconductor manufacturing, where it ensures contaminant-free processing for defect reduction. Molecular weight 2.016 g/mol: Hydrogen Gas molecular weight 2.016 g/mol is used in fuel cells, where it optimizes energy conversion efficiency. Flammability range 4–75%: Hydrogen Gas flammability range 4–75% is used in controlled combustion processes, where it enables stable and adjustable flame characteristics. Delivery pressure 200 bar: Hydrogen Gas delivery pressure 200 bar is used in metal annealing, where it provides rapid and uniform heat treatment. Odorless property: Hydrogen Gas odorless property is used in food hydrogenation, where it prevents off-flavors and maintains product purity. Dew point -70°C: Hydrogen Gas dew point -70°C is used in electronics manufacturing, where it prevents moisture-induced corrosion of sensitive components. Stability temperature up to 300°C: Hydrogen Gas stability temperature up to 300°C is used in chemical vapor deposition, where it supports high-temperature reactions without decomposition. Low density 0.0899 g/L: Hydrogen Gas low density 0.0899 g/L is used in leak testing applications, where it enhances detection sensitivity for system integrity verification. Thermal conductivity 0.168 W/m·K: Hydrogen Gas thermal conductivity 0.168 W/m·K is used in cooling generators, where it improves heat dissipation efficiency. High diffusivity: Hydrogen Gas high diffusivity is used in refining processes, where it accelerates desulfurization reactions for cleaner fuel production. |
Competitive Hydrogen Gas prices that fit your budget—flexible terms and customized quotes for every order.
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Our years in gas production teach us something simple – hydrogen stands out, no matter how you look at it. Hydrogen gas supports countless processes where purity and reliability carry weight far beyond a number on a spec sheet. Take Model HG99, for instance. We produce this variant through steam methane reforming, a method refined over decades and subject to rigorous controls at every stage. Why fixate on the basics? Because hydrogen never just “does the job.” In our workshop, equipment demands the gas meet tight thresholds – moisture below 2 ppm, oxygen trimmed to single digits, hydrocarbons removed until only trace levels remain. On the line, curious looks from plant inspectors keep us grounded. That’s why we use on-site mass spectrometry for every batch.
Fuel cell makers need hydrogen to behave consistently. Small mistakes can kill an entire run, clog a catalyst, or force shutdowns. We’ve lost count of times an automotive partner visited mostly to double-check our storage tanks for leaks or trace ammonia. Purity matters for more than numbers. Factory operators rely on smooth, uncontaminated burns inside burners or turbines. Metals processors want to strip oxides from their steel or copper at high throughput and see nothing but yellow-white flames, consistent every shift. Hydrogen gas forms the backbone for clean electronics manufacturing lines. Any slip in water content, or a hint of sulfur, invites problems downstream in wafer baking or surface finishing. That never changes year to year.
It takes heavy vigilance to keep supply tight, especially when industries double up on demand – powering forklifts, mixing in amine gas treaters, or pressing to launch another solar panel run. Our role isn’t just bulk delivery. We change cylinder packs and refine pressure-rated vessel design, tracking every refill with digital tags that show our clients exactly where and when the gas left the gate. These kinds of details keep partnerships grounded. Regulatory audits become less stressful because we keep our records transparent. All hydrogen cylinders carry real batch numbers with access to a digital cert. You could call this thorough or over-built. In reality, customers want to know who filled the cylinder, what it contains, and how we can guarantee origin. We commit to real answers for anyone who asks.
Experience teaches us how hydrogen isn’t just “another industrial gas.” Nitrogen, oxygen, and argon all have their place, but hydrogen draws a certain standard. Other gases arrive at purities north of 99.5%, but only hydrogen faces immediate long-term storage issues. Our pipelines, compressors, and vessels have to fight embrittlement head-on. We learned the hard way how sealing compounds shed particles or break down when exposed to high-pressure hydrogen. Each flange, O-ring, or pressure gauge on the line earned a review. Our engineers recall the lab tests where slight changes in container metallurgy led to safety risks over time, something rarely seen with bulk argon or nitrogen.
Compare any inert gas with hydrogen, and you face explosive risk at every stage. Vent management becomes a priority. Unlike heavier gases, hydrogen floats upward and vanishes faster in open air, yet that’s little comfort indoors. Gas leaks, even at low rates, pose more danger because hydrogen’s flammability window is wide. Safety practices force us to double up on detection – not out of fear, but out of respect for our own crews. The simple fact: hydrogen demands better training and more robust containment. We run regular in-house drills with every tech, from filling station to truck driver, because there is just no room for compromise. Each new hire gets hands-on briefings on pressure swings and leak protocols before setting foot in the plant.
On the application side, hydrogen sticks out because it reacts rapidly and drives chemical change where inert gases do not. Methanol production, for instance, pulls directly from our high-purity hydrogen lines. In semiconductor manufacturing, only hydrogen can reduce wafers at speed, stripping unwanted oxygen far more effectively than nitrogen or helium. In glasswork and metal sintering, hydrogen produces a distinctive clean, reducing flame, impossible to replicate with other options. That efficiency sometimes pushes cost, especially in tight markets where hydrogen production costs track energy prices or local gas contract fluctuations. We keep our procurement rooted in long-term deals to keep volatility under control, but passing savings forward isn’t an abstract commitment – it is something we settle yearly after full audits.
On the practical side, models like HG99 and HG60 pattern our hydrogen inventory. Both rely on similar base refinement, but small tweaks matter. Model HG99 suits lab work, where trace contaminants create big headaches over time. Here, we guarantee moisture down to 1.5 ppm and certify batches for every application, whether someone is feeding a platinum catalyst or firing up a prototype. Model HG60 answers the call from heavier industry. Process engineers using this grade appreciate pragmatic value: clean gas with robust removal of carbon monoxide and oxygen but at a scale fitting larger reactors or high-volume burners. We refuse to cut corners by mixing grades or swapping out gas from different suppliers, simply because long-term partners expect consistency above all. We sell what we make, period.
What always strikes us is the way users rely on these specs not just for legal reasons, but practical ones. No one wants downtime from a contaminated delivery. Every production halt stems from real consequences: lost batches, replacement orders, nights spent checking filter housings or recalibrating mass flow controllers. Our cylinder tracking avoids these pitfalls. Each batch and delivery comes with real-time purity logs pulled from the analyzer records attached to that run. If a question arises months down the line, we have the history on file. We’re not just shipping inert cylinders; we’re protecting customer time and investment, because reputation grows in these quiet, often unremarkable decisions.
In transportation, hydrogen no longer plays a novelty role. Fuel cell buses and trucks depend on 99.999% purity. It only takes a single tank of subpar hydrogen to kill a membrane. These clogs cut lifetime in vehicles by thousands of operational hours. Over the years, we’ve seen the strain placed on logistics as hydrogen hubs inch closer to mainstream use. Compressed hydrogen, cooled at -40°C, rides shotgun in reinforced tanks, constantly monitored by GPS. Our truck routes and delivery points reflect years of small improvements – faster cylinder changeovers, automated pressure checks, and remote alarms on every trailer to catch leaks or thermal surges before a problem reaches a city street.
We outfit local fleets with modular cylinder cascading, smart pressure regulation, and direct telemetry, so site supervisors see exactly what inventory remains at every step of the route. Local hydrogen delivery to fueling stations means careful buffer management. Any drop below designated purity, or a single out-of-spec odorant, stops a full day’s fueling. We keep backup tanks on hand and install rapid-switch valves at every facility, learning from early shortages where downtime stretched for hours while waiting for a new shipment. Within industrial campuses, hydrogen helps tie together CHP systems, marrying waste heat and distributed generation. Smelting, glasswork, and chip fabrication plants rely on hot hydrogen to unlock higher throughput. Nothing synthetic matches its output quality or controllability.
The current shift toward greener hydrogen production leaves us answering deeper questions from our customers. Many industrial buyers want more than technical guarantees. They want origin stories. Our pipeline now draws on renewable-powered reformers as well as biomass conversion projects. Electrolysis-based hydrogen, made from wind and solar, has climbed from niche option to regularly requested stock, even if prices still run higher than fossil-based hydrogen. We invest in tracing every production route to meet downstream expectations and regulatory requirements. This attention now comes tied to firm contracts: buyers for automotive or electronics applications want every delivery to include proof of environmental impact. Our digital tracking links each cylinder back to its energy source, giving transparency that goes beyond specification sheets.
We continue to overhaul our equipment fleet. Compressors, pressure swing adsorption plants, and storage vessels must perform reliably for both “conventional” and green hydrogen. Adding electrolyzer capacity means retraining operators and revising QC checks. For instance, electrolytic hydrogen sometimes introduces distinct contaminants rarely seen in reformer gas. We’ve found ways to tune post-processing scrubbers and change dryer media, drawing on firsthand process data rather than lab assumptions. The learning curve runs long, but our years in continuous production let us test, fail, and fix in real time. Many solutions aren’t found in textbooks. They follow from hands-on fixes, such as reinforcing valve seats to limit wear from rapid cycling, or rotating through inert purge sequences on fill stations that see different grades in quick succession.
Hydrogen pushes us to keep safety front and center. Every fill station and trailer bulkhead hosts dual-redundant leak detection – infrared and electrochemical, tested often enough that techs groan about it. This routine prevents accidents stemming from aging seals or unseen hairline cracks, which develop faster inside high-pressure hydrogen environments. We install open vent stacks and forced-draft hoods, and we run evacuation drills at each major site. No substitute exists for vigilance – every staffer, from junior loader to shift supervisor, knows how to react if a detector chirps, and how to pull emergency cutoffs without hesitating. From years of practice, we know hydrogen mishaps grow if ignored even for a short time.
Truck drivers, depot hands, and customer facility techs all attend the same in-person safety sessions. We use real-world examples from field incidents, not theory. Our data pushes us into regular audits and maintenance, because some of the worst failures result not from one big event, but from slow drift in quality or overlooked secondary seals. Our inspection team swaps out O-rings and gaskets proactively – long before leak testers flag a problem. Even the best batch of hydrogen becomes a risk after a few months in storage if vessel integrity drops. That truth keeps us humble. We treat every cylinder and pipeline run as temporary, subject to review, change, or replacement as needs shift.
Emergency response plans get updated with input from every layer of the organization. It isn’t enough to simply post evacuation maps. We listen to delivery drivers as often as we meet with engineers around the design table. Problems usually show up first on the edge: the terminal where a weather event delays unloading, the dock where temperatures hit unexpected lows and an older valve freezes. People’s instincts and feedback keep our system sharp. That interaction forms the backbone of plant safety, cutting through overly complicated procedures in favor of real, working knowledge shared across company lines.
Every step in hydrogen manufacture and delivery invites tradeoffs. Years back, requests for higher throughput had us evaluating new compressor configurations. Before switching, we ran extended pilot batches, pulling real product through different grades of pipeline steel and monitoring wear, heat, and micro-contaminant levels every hour. The time it took paid off – our production line improved without sacrificing purity. We stay ready to tweak parameters, often mid-run, to account for a customer’s new purity bump or flow rate shift. Often that means adding another stage to our purification skids, or dialing in gas analyzers sooner than the market expects.
Customers rarely experience the full complexity behind each delivery. We see it in small wins – a week saved on semiconductor startup because our hydrogen analysis certified zero sulfur in the batch, or a glass kiln running at 99.999% uptime due to the reliability of our gas feed. We extend credit for technical mishaps on our side, covering replacement costs if a missed impurity briefly skips a filter and impacts a line. These aren’t theoretical risks – they show up as delayed production, quality complaints, and, at worst, rework on finished parts. Our role doesn’t end at the invoice. We keep open channels to resolve issues quickly, often stationing a tech on-site for large-scale clients or guiding smaller shops by phone or video walkthrough until the source gets fixed.
Once quarterly, we meet buyers and process engineers to examine feedback, both positive and negative. These reviews drive change. When a major chip fabricator requested bulk hydrogen with tighter ammonia controls, we retooled an entire dryer subsection and involved front-line staff in trial runs. The solution came from first-hand operator notes, not just engineering design. There’s value in treating every query or complaint as a foothold for long-term improvement.
We work inside a web of changing regulations. From the moment a ton of hydrogen leaves our plant to the second it arrives at the customer site, compliance never sleeps. Our batch numbers, purity logs, and real-time system tracking answer questions during certification audits. We keep pace with both international guidelines and tighter domestic codes – these change fast, especially as hydrogen emerges as a backbone for clean energy transition. Compliance isn’t box-ticking. The lessons from decades of compliance reviews show that being proactive makes for fewer headaches later, giving customers and inspectors alike peace of mind.
Trained technicians walk each new regulatory step with clarity and humility. No rhetorical dances, just frank detail. New emission caps force us to reconfigure flare systems. Routine quality checks, embedded in plant control software, prompt managers to pull records on demand. Our system remains rooted in years of dealing with both local buy-ins and sudden government shifts. We track every cascade, reformer site, and electrolyzer as a distinct channel, making recall or traceability fast if a regulator steps in. Accountability grows through shared responsibility. No single department pulls the load alone. The mix of lab staff, field operators, and compliance auditors gives our whole operation a real shot at improvement instead of grudging compliance.
Industry standards keep evolving. We join regional workgroups, sharing what we’ve learned and listening to others in the field – mistakes, workarounds, and simple solutions. This world rarely rewards those who coast on legacy know-how. We push every year for tighter specs, more efficient testing, and new tech in pipeline design and truck transport. These interactions help us improve not just regulatory standing, but also customer satisfaction and operational safety in practical, measurable ways.
Price volatility sits at the forefront of real-world hydrogen production. Every shift in electricity cost, every gas wholesale contract fluctuation, squeezes margins. We keep our procurement tied to long-term energy deals, staying ahead of sudden spikes that ripple across the supply chain. Transparent pricing allows process engineers and plant managers to forecast with greater certainty, rather than bouncing from one quarter to the next. Shortages do strain the industry – an unscheduled plant shutdown leaves us with a tight timeline to reroute supply. Fast-reacting dispatch and inventory planning smooth over most hiccups. We pull from cross-docked stocks, stagger deliveries, or call in backup drivers, depending on the scale of any delay.
While some issues run deep – such as tight helium markets or regional refiner outages – our experience shows that staying local wherever possible pays long-term dividends. Investing in on-site production for large users insulates against the worst logistics shocks. Some clients now opt for dedicated hydrogen reformer units or on-premises electrolyzers, with our plant stepping in for peak demands or system failures. This flexibility helps facilities run uninterrupted, even when logistics bottlenecks threaten regional or national delivery streams.
Long-term, we commit to scaling up new hydrogen models aligned with low-carbon goals. This means direct investment in additional electrolyzer banks, pushing into pilot projects with partners seeking green hydrogen for specialty chemical production. As customers transition, we’ll continue upgrading both plant and distribution fleets, refining digital tracking and flexible delivery. All upgrades rest on lived events: lessons from weather disruptions, lessons from rapid scale jumps, and continued feedback from end users’ daily operational demands.
Manufacturing hydrogen gas isn’t a matter of following a handbook. Reliability comes from decades spent tuning equipment, learning from field setbacks, and collaborating directly with every link in the chain – from engineers and operators to safety teams and regulators. Every filled cylinder, every tube trailer rolling off the lot represents a living commitment to traceability, safety, rigorous purity standards, and technical problem solving. Our hydrogen models adapt as industries change. Clients in power, automotive, semiconductor, and base metals rely on a sustained, honest partnership – and we engineer every aspect of our process to deliver. Every tank that leaves our yard carries more than a product. It carries our reputation, built on hands-on experience and a long history of learning what works, what fails, and what clients truly need out in the real world.