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HS Code |
283627 |
| Name | Carbon Dioxide |
| Chemical Formula | CO2 |
| Molar Mass | 44.01 g/mol |
| Appearance | Colorless gas |
| Odor | Odorless |
| Melting Point | -56.6°C |
| Boiling Point | -78.5°C (sublimes) |
| Density | 1.977 g/L (at 0°C, 1 atm) |
| Solubility In Water | 1.45 g/L (at 25°C) |
| Phase At Room Temperature | Gas |
| Cas Number | 124-38-9 |
| Toxicity | Non-toxic but can cause suffocation at high concentrations |
| Ph In Solution | Acidic |
| Critical Temperature | 31.0°C |
| Critical Pressure | 7.39 MPa |
As an accredited Carbon Dioxide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Carbon Dioxide is supplied in a 10 kg steel cylinder, painted grey, with safety valve, product label, and hazard warnings clearly marked. |
| Shipping | Carbon dioxide is shipped as a compressed, liquefied gas in high-pressure cylinders or tanks. Containers must be properly labeled and equipped with pressure-regulating devices. It is classified as a non-flammable gas (UN 1013). Storage and transport should avoid extreme heat and secure containers upright to prevent leakage or rupture. |
| Storage | Carbon dioxide is typically stored as a compressed liquefied gas in high-pressure steel cylinders or bulk storage tanks. These containers are kept in cool, ventilated areas, away from heat sources, direct sunlight, and combustible materials. Storage areas should be clearly labeled, secure, and equipped with leak detection and ventilation systems to prevent the build-up of gas, as CO₂ can displace oxygen and pose asphyxiation hazards. |
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Purity 99.9%: Carbon Dioxide with 99.9% purity is used in beverage carbonation, where it ensures optimal fizz and taste consistency. Supercritical State: Carbon Dioxide in a supercritical state is used in botanical extraction, where it achieves high-efficiency compound separation with minimal thermal degradation. Low Temperature (-78.5°C): Carbon Dioxide at low temperature is used in cold chain logistics, where it provides effective temperature control for perishable goods shipping. Compressed Gas: Carbon Dioxide as compressed gas is used in welding shielding, where it stabilizes the arc and reduces weld oxidation. Food Grade: Carbon Dioxide meeting food-grade standards is used in modified atmosphere packaging, where it extends the shelf life of fresh produce by inhibiting microbial growth. Molecular Weight 44.01 g/mol: Carbon Dioxide with a molecular weight of 44.01 g/mol is used in calibration of gas detection instruments, where it delivers precise measurement standards. Particle Size Micronized: Carbon Dioxide in micronized particle size is used in fire suppression systems, where it achieves rapid and uniform extinguishing of flames. High-Pressure (800 psi): Carbon Dioxide at 800 psi is used in enhanced oil recovery, where it improves crude oil displacement and yields. Stability Temperature below 31°C: Carbon Dioxide with stability below 31°C is used in greenhouses for fertilization, where it maximizes plant photosynthesis efficiency. Food-Grade Liquefied: Carbon Dioxide in food-grade liquefied form is used in soft drink bottling, where it supports consistent filling and beverage preservation. |
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Most folks picture Carbon Dioxide as little more than the gas that fizzes up drinks or the villain in climate change headlines. In reality, its commercial form is a workhorse in dozens of industries—each one making use of its different models and specifications to serve a clear purpose. As someone who’s spent a good chunk of time around both laboratories and manufacturing floors, I've seen first-hand how important it is to look past the stereotypes and see how this gas quietly supports almost every aspect of daily life.
The product sold as Carbon Dioxide looks simple enough, but beneath that simplicity lies an impressive range. You’ll find it available as gas, liquid, and solid (dry ice), each form calibrated for the job ahead. Most commercial Carbon Dioxide hits the market at high-purity standards, often 99.9% or higher, because impurities can ruin both industrial processes and finished products. Atmospheres controlled with Carbon Dioxide in pharmaceuticals, food, electronics, and metal fabrication demand that reliability.
What sets the bottled or bulk Carbon Dioxide apart from the generic idea is this consistency. Cylinders come specified by volume and grade, with common models like food-grade, industrial-grade, or beverage-grade referring to the intended use and allowed impurity limits. Small cylinders cater to labs and medical clinics, where even trace elements make a difference in patient care or chemical reactions. High-volume tanks or custom distribution networks fit factories, breweries, and agriculture.
Ask anybody in food processing—Carbon Dioxide doesn’t just put the bubbles in soda. Food-grade Carbon Dioxide meets tight specifications because a hint of contamination will spoil flavor, shelf life, or safety. In breweries, the gas presses the yeast out, sweeps out oxygen, and brings the sparkle to beer. Tiny ice crystals sweep through food plants for blast freezing and chilling, quickly locking in quality before spoilage takes the first bite. Modified atmosphere packaging takes center stage on supermarket shelves: here, Carbon Dioxide repels bacteria so that meats and salads stay fresh longer, shrinking spoilage numbers in a world that wastes far too much.
You’ll see Carbon Dioxide sidestepping traditional chemicals in washdowns or chilling processes, which means fewer residues and less risk to workers. Unlike more reactive gases, it doesn’t leave odd tastes or residues behind, so chocolate factories to dairy plants use it without a second thought.
In medicine, Carbon Dioxide goes far beyond anesthesia or resuscitation. Used in laparoscopic surgeries, it inflates the patient’s abdomen so surgeons have space to navigate, cutting down on recovery times. Labs across the biological sciences use the gas in incubators, creating a cozy, exact mimic of the body’s environment so tissue cultures thrive. The demand for medical-grade purity makes the supply chain traceable and reflects the stakes riding on every cylinder.
When testing fire safety equipment, medical researchers trust Carbon Dioxide as a clean, quickly dispersing test gas—never leaving behind the mess of burning powders or colored smoke. I remember watching teams use it to calibrate detectors, knowing that if the gauge read true on Carbon Dioxide, it could be counted on in a crisis.
If you picture welding, you’ll picture hot metal. Most don’t realize that Carbon Dioxide, when blended with other gases, sharpens the weld, bringing a tighter arc and smoother finish. As a shielding gas, it stops reactive elements in the air from corrupting the seams. I’ve stood over chrome fixtures and stamped steel frames, watching the difference between a rough, bubbly weld and a glossy seam made under the right Carbon Dioxide mix.
Greenhouses pump in Carbon Dioxide to give plants an extra shot of energy, especially in low-light conditions or in dense urban areas where sunlight is weaker. Experienced growers know that a tight control over levels can boost growth rates and yield without straying into wasteful, costly excess. It’s not a chemical shortcut—it’s just taking advantage of a natural ingredient at the right moment.
In water treatment, Carbon Dioxide steps in as an alternative to stronger acids. Lowering pH with Carbon Dioxide means dissolving it into water, skipping the risks that can come from hydrochloric acid or sulfuric acid, and making the treatment process safer for maintenance teams.
Commercial Carbon Dioxide isn’t always the first gas on a buyer’s mind. Oxygen plays a role in steelmaking, Nitrogen in packaging, Argon in specialized welding, but Carbon Dioxide strikes a balance between price, safety, and versatility. It doesn’t support combustion the way Oxygen does, so it comes into play as a fire suppressant—banishing flames without corroding sensitive electronics or choking the air with dust.
Nitrogen has its own place in food packaging, but its cost and behavior don't always suit the same processes. Carbon Dioxide can dissolve into products, actively stymieing bacterial activity, while Nitrogen is content to just replace the air. In welding, Argon guards the join with a heavier shield, but at a far steeper price. Carbon Dioxide’s lower cost and reliable performance keep it at the core of operations where results need to meet the bottom line.
Even the most reliable Carbon Dioxide feed can run short. Industrial sources, usually rerouted from ammonia or ethanol plants, hinge on manufacturing trends that sometimes shift without warning. In my time watching supply disruptions, the early warning always came from food plants or breweries suddenly unable to restock whole pallets of cylinders.
The purity struggle is real, especially as regulators push for tighter standards in food and health. Older equipment along supply routes can introduce trace contaminants, and nobody at the end of the line wants to recall hundreds of ice cream tubs because of an off-flavor. Storage tanks need regular checks. Bulk deliveries have to be logged, tagged, and tracked. That old assumption—“gas is gas”—just doesn’t hold up when one bad batch could put machinery, inventories, or reputations at risk.
No honest discussion about Carbon Dioxide skips over its impact on climate. Industrial use, thankfully, only makes a small dent compared to the billions of tons entering the atmosphere from energy and transport. Still, markets care. Companies push for circular reuse, scrubbing Carbon Dioxide from exhaust stacks and pressurizing it for another life—helping slow the build-up driving global warming.
Capture and reuse tech picks up steam in breweries and bottling works, trapping the Carbon Dioxide given off during fermentation and using it to carbonate another batch or chill tanks. For small businesses, the upfront investment in this equipment can feel steep, but reduced purchasing and environmental fees help balance the books. My time consulting for startups convinced me that, once subsidies or cooperative models come online, more shops will join the cement plants and petrochemical giants already capturing their own emissions.
Strong E-E-A-T principles mean experience, expertise, authority, and trust. In the world of Carbon Dioxide, credentials alone don’t make safe operations. Tight regulation and independent audits keep everyone honest, especially in food or medical use, and regular training cuts down on mix-ups or shorts caused by misunderstanding the difference between grades.
Communities around distribution plants sometimes raise alarms about leaks. Left unchecked, Carbon Dioxide can displace oxygen in the air. Monitoring systems and well-drilled emergency plans aren’t optional extras—they’re must-haves, protecting everyone from warehouse workers to end users. Local laws and voluntary certifications like ISO 22000 or FSSC 22000 offer added security to buyers, especially those exporting branded goods. Knowing exactly where each batch came from, and whether it’s cleared every test, matters more today than it ever did.
Recent years see Carbon Dioxide playing a surprising role in advanced technologies. Supercritical Carbon Dioxide finds a science fiction-like use in extraction processes, replacing harsh solvents in decaffeinating coffee or purifying essential oils for cosmetics. The process squeezes the gas until it behaves both like a liquid and a gas, picking up delicate flavors or nutrients without risk of chemical residue. For me, watching botanists compare extracts side-by-side, the difference isn’t just theoretical; consumers taste the results.
Fire suppression relies on the non-flammable nature of Carbon Dioxide. Server farms and electrical substations choose it to choke fires instantly, with no water damage and no clean-up headaches. Older warehouses and cold-chain depots turn to dry ice, converting solid Carbon Dioxide into cold vapor for portable, clean refrigeration—especially helpful where the power grid runs unreliable or spotty.
Here’s the key: responsible use and better technology. Government efforts to finance Carbon Dioxide recovery don’t just benefit the planet—they answer the constant, cyclical demand from food, health, and industrial users. Pushes to standardize purity checks, improve cylinder integrity, and promote supply chain transparency make sure that nobody winds up selling or using contaminated batches.
In education, more programs dive into what it takes to source, store, and handle specialty gases. My visits to technical colleges and industry expos underline the appetite for skilled workers who understand the little differences that make or break safe, effective use. That’s not only a career opportunity, it’s insurance for everyone relying on Carbon Dioxide—know-how supporting health, flavor, product quality, safety, and sustainability all at once.
Building a more resilient, transparent supply chain starts with more shared data. Industry groups can help bulk buyers and regulators spot sourcing problems before shortages ripple into plant shutdowns. Investment in local purification and capture facilities shrinks waste, lowers logistics costs, and shores up supplies—especially for markets prone to global shocks.
Recycling isn’t magic, but tighter controls and better incentives push even the biggest polluters to view Carbon Dioxide as a resource, not a burden. I’ve seen promising partnerships between breweries and agricultural co-ops, letting each side cut costs and shrink their footprints. Nonprofits and industry consortia can speed up these collaborations, filling gaps where governments or big business see too little return.
Buying smarter matters too. Companies that care about environmental impact and brand trust can demand certifications, track every delivery, and keep a closer watch on storage and use. In turn, they help drive up baseline standards, forcing complacent suppliers to catch up or fade out.
At its core, Carbon Dioxide looks straightforward—until you spend time behind the scenes. Its value lies in details: how each batch gets made, cleaned, delivered, and put to work—factoring in purity, pressure, and the final destination. Transparency means peace of mind for people using it to tend crops, keep surgeries safe, or put food on millions of tables.
People looking for the right Carbon Dioxide product have to think about more than price. Ask where it comes from. Check for purity certifications. Weigh long-term safety, both environmental and personal. Vendors with real track records earn repeat business not just because they tick boxes, but because experience suggests they’ll keep doing so, year after year.
I’ve watched Carbon Dioxide slip in and out of the spotlight for decades. It shows up in classrooms, in complex machinery, on assembly lines, and in kitchens. Its story is one of constant adaptation: both the challenges it helps solve and the new demands it faces from an evolving economy. The lessons learned here go beyond this one product—they set the tone for countless specialty gases and chemicals.
To ignore the humble black and green tanks in the back room is to miss the quiet backbone of modern manufacturing, food safety, and medical progress. Asking the right questions, following up with smart policies, and building a more accountable supply chain will make sure Carbon Dioxide continues to pull its weight without adding to the planet’s burdens.