|
HS Code |
106647 |
| Chemical Name | Sodium Carbonate |
| Chemical Formula | Na2CO3 |
| Molecular Weight | 105.99 g/mol |
| Appearance | White, odorless powder or granular |
| Solubility In Water | Readily soluble |
| Ph Of 1 Solution | Around 11.5 |
| Melting Point | 851°C (anhydrous) |
| Density | 2.54 g/cm³ (anhydrous) |
| Common Uses | Glass manufacturing, detergents, water treatment |
| Cas Number | 497-19-8 |
As an accredited Soda Ash factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Soda Ash is packaged in a 25 kg white woven polypropylene bag, labeled with product name, manufacturer, and safety instructions. |
| Container Loading (20′ FCL) | Soda Ash is loaded in 25kg or 50kg bags into a 20′ FCL, maximizing weight and volume for safe transport. |
| Shipping | Soda Ash (Sodium Carbonate) should be shipped in tightly sealed, moisture-resistant packaging, such as polyethylene-lined bags or drums, to prevent absorption of moisture and contamination. It is classified as non-hazardous but should be handled carefully to avoid dust generation. Store and transport in a cool, dry, well-ventilated area. |
| Storage | Soda ash should be stored in a cool, dry, and well-ventilated area, away from moisture and incompatible substances like acids. Use tightly sealed containers made of material resistant to alkaline substances. Ensure the storage area is free from water leaks to prevent clumping or chemical reactions. Clearly label containers, and avoid exposure to direct sunlight and strong heat sources. |
| Shelf Life | Soda Ash typically has an indefinite shelf life if stored properly in a cool, dry, and well-sealed container, away from moisture. |
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Purity 99.2%: Soda Ash with purity 99.2% is used in the glass manufacturing industry, where it ensures optimal transparency and structural integrity of finished glass products. Particle Size 200 mesh: Soda Ash with particle size 200 mesh is used in powdered detergent formulations, where it delivers rapid dissolution and uniform alkalinity distribution. Bulk Density 1.07 g/cm³: Soda Ash with bulk density 1.07 g/cm³ is used in chemical processing, where it facilitates accurate dosing and efficient handling during batch production. Stability Temperature 850°C: Soda Ash with stability temperature 850°C is used in metallurgical processes, where it maintains chemical consistency under high heat conditions. Moisture Content ≤ 0.5%: Soda Ash with moisture content ≤ 0.5% is used in pulp and paper bleaching, where it minimizes unwanted dilution and maintains effective reactant concentration. Sodium Content 58.0%: Soda Ash with sodium content 58.0% is used in municipal water treatment, where it reliably adjusts pH levels and improves water softness. Solubility 215 g/L (at 20°C): Soda Ash with solubility 215 g/L at 20°C is used in brine preparation for textile dyeing, where it guarantees rapid and complete dissolution to optimize dye uptake. Low Iron Content 0.003%: Soda Ash with low iron content 0.003% is used in specialty glass production, where it prevents discoloration for high optical clarity. Granular Form: Soda Ash in granular form is used in swimming pool maintenance, where it provides controlled alkalinity adjustment and reduces dusting during application. Molecular Weight 105.99 g/mol: Soda Ash with molecular weight 105.99 g/mol is used in laboratory buffer production, where it delivers precise chemical reactivity for solution standardization. |
Competitive Soda Ash prices that fit your budget—flexible terms and customized quotes for every order.
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For decades, we have run our kilns hot, watched the dust drift at the bagging lines, and had countless conversations with plant engineers about the best way to load trucks with this reliable chemical. Soda ash, or sodium carbonate, happens to be one of those familiar white powders that keeps a broad range of industries running, and few people outside our business realize how much turns on a simple, alkaline salt.
Out on the shop floor, our workers know soda ash best by its physical form. In our facility, we produce two grades that see daily demand. One is the dense variety, smoothed out to grab less moisture in transit and easier to move in bulk for glass plants and water softener producers. Our other main product, light soda ash, turns out closer to powdered sugar in look and feel. It flows with more dust and is easier to dissolve into solutions for industries that don’t need the heavier granules. Every shift, these two staples shape shipments that leave our warehouse by rail and truck, heading off to jobs they’ve performed for generations.
Operators care about the technical specs, but those boil down to practical concerns in the end. Our dense grade runs a bulk density of about 1.0-1.15 g/cm³, which makes it the first choice when space and weight make a difference for shipping or feeding continuous processes. Light soda ash, with its density closer to 0.50-0.60 g/cm³, works best in slurry systems and mixes into water more quickly. Our quality control team runs handfuls of samples daily, checking for purity over 99% and making sure levels of insolubles and iron stay well below accepted thresholds. Glass makers in particular pay close attention to these numbers — streaks or specks in a finished pane can set back a whole production run.
For us, purity begs more than just a number on a test sheet. Throughout the line, there’s a direct link to energy usage and yield. Every extra bit of soluble iron or lime in a batch drains efficiency from a glass furnace or can force detergent producers to tweak formulas to get the same cleaning effect. We have learned over the years to keep our processes tight — from refining sodium chloride to scrubbing the final product — to make our soda ash run lean and clean.
Much of our output ends up in glass manufacturing. The soda ash changes the melting point of silica and helps shape everything from windows and bottles to windshields and architectural panels. Watching workers offload railcars full of the product at a float glass plant, you get a sense of its scale — big hoppers, conveyor belts, and a hiss of dust as tons move by the hour.
Outside of glass, laundries and chemical plants rely on our shipments to soften water, brighten clothes, or act as a pH buffer in everything from pool chemicals to paper production. Water treatment operators have told us that good soda ash can mean the difference between smooth filtration and scale buildup that gums up their lines and throws off dosing control. Ceramics, metallurgy, even small-scale operations like bakeries and brewing tanks — each finds its own use. That’s why steady output and consistent quality form the backbone of our operation.
At our plant, we also handle caustic soda, potassium carbonate, and several related alkalis. The key difference with soda ash comes down to how aggressively it reacts and where it fits in a process. Caustic soda, for example, cuts through grease and scale with far more intensity, but brings storage risks and higher handling requirements. Soda ash, thanks to its milder effect, slips into food-grade and household applications without the same hazard warnings. The difference strikes home on the plant floor, where unloading a railcar of caustic needs full PPE and rigid controls, while handling soda ash just means dust management and routine cleaning.
We’ve had customers remark on the price difference compared to similar chemicals, and that comes down to both raw material costs and energy usage during production. Our process — mainly the Solvay method along with some natural deposit refinement — lines up to deliver a good cost profile as long as we keep the inputs and waste streams managed tightly. Caustic soda runs up power bills and tends to price out higher from both us and other factories.
Potassium carbonate, another close relative, runs higher in cost and open up a slightly different set of industrial uses. For those making specialty glass or some liquid detergents, potassium carbonate handles the case, but at higher price points and with more niche usage. We have customers who have tried to sub in one product for another, only to find that recipe tweaks and downstream waste quash the effort. After enough trial and error, most come back to soda ash for situations where alkalinity needs to be raised without side reactions or regulatory headaches.
Running a soda ash plant looks easy from outside, but changes in standards, environmental rules, and customer needs force us to adapt all the time. Gone are the days of simply shipping a gray powder and calling it good. Now, high-purity requirements press us to knock sulfates, iron, and calcite below ever-lower limits.
The demand for sustainable sourcing and waste reduction changed how we operate. Where our process used to vent CO₂ straight to the stack, now we re-route much of it back and make sure our emissions tracking keeps up with local regulations. During hot summers or power cuts, plant managers face production cuts and tight turnaround times that ripple through the entire supply chain. We field calls from glass plants looking for guaranteed restocks and talk late into the night with buyers about how to maximize storage without the product absorbing too much humidity.
As recycled glass becomes more common in container plants, the type of soda ash required also shifts. Old glass can up the impurity load or bring in elements that alter melt behavior. To meet this need, we adjust screening and filtration processes, and sometimes rerun batches to achieve consistent purity. Striking this balance demands constant attention from both quality staff and equipment operators, but keeping end users happy drives the improvements that keep our plant in the running.
It helps to admit the rough side of moving soda ash from a plant to a factory floor. While the chemistry seems simple, transport brings its own headaches. Soda ash absorbs moisture quickly once exposed. Our storage silos use sealed hatches and humidity monitoring, but loading trucks during summer storms or unloading at coastal plants risks caking and bridging. When product cakes, downstream equipment jams, forcing shutdowns and manual clearing.
Certain grades demand different packaging methods. Dense soda ash ships best in bulk hoppers and silo truckers, while light soda ash often requires double-layered bags to keep dust inside and moisture out. We have battled through days when lines clog, forcing maintainers to scramble during the night to keep plant operations on schedule. Good relationships with drivers help most — they know the quirks of each delivery site and phone ahead if something looks off about the product or site conditions.
International shipments call for extra care. Whether loaded in containers or handled at port, soda ash gets checked for contamination, and paper liners inside containers take on extra importance. Humidity swings during ocean transit can clump the powder or melt the bags, which means we sometimes get photos from ports asking for advice on salvage or reprocessing. Every year brings a few lessons in global logistics, reminding us that chemical production happens as much at the loading dock as the kiln.
No year passes now without fresh sustainability demands. Energy use stays at the center of any conversation with our own auditors and with clients — from glassmakers calculating their total carbon footprint to water treatment companies answering to new federal rules. Every efficiency gain we carve out, from upgraded heat exchangers to tighter brine filtration, means fewer emissions per ton. We take feedback from downstream users seriously, as their buyers look for life-cycle data and ways to earn green certifications.
Waste management presents another core concern. We once dumped some byproducts or sent less-pure batches to landfill. Today, nearly every side stream gets screened for value. Some leftover calcium salts now feed into local cement works, and low-quality soda ash sometimes lands in applications that do not demand as high of a spec — like certain pH control jobs or small livestock supplements. Every year, we chase new ways to recover efficiency and extract value to stay ahead of both cost and regulation curves.
The market for soda ash feels stable from a distance, but price spikes and dips haunt manufacturers. About ten years ago, a supply crunch brought on by mine closures across several regions doubled prices and forced many buyers to scramble. Our long-term customers called to line up contracts months in advance, and we streamlined our production and packaging to keep up. In leaner times, market entry from new producers, especially as natural soda ash discoveries come online, can erode prices. It’s always a juggling act to balance plant investment with anticipated demand.
Specific customer requests lead to product tweaks. We’ve fielded demands for extra-fine powder for specialty soaps, requests for tighter control on chlorides for high-spec glass, and runs of lighter packaging to reduce shipping weight charges. Investing in line flexibility pays off, as it lets us turn over the plant to job-specific runs, serving both legacy clients and emerging market segments with equal attention. In each case, sitting down with technical teams and walking through their process challenges shapes both how we make soda ash and how we support customers after shipment.
Field support isn’t just a slogan for us. Out in the real world, plant operators run into everything from persistent dusting at unloading points to complaints about residue in mixing tanks. Our in-house technical staff spends time on the road, visiting plants, diagnosing clumping or bridging issues, and recommending tweaks on everything from feed rates to air humidity controls at customer sites. Communication cuts down on returns and keeps our batch-to-batch consistency in check.
Sometimes, a product complaint uncovers an upgrade for everyone — a misbehaving batch of dense soda ash, for example, led us to install better screens and adjust cooling cycles years back. Customer feedback changes how we label packaging, track weights, or improve traceability with better batch records and shipment tracking.
Production improvement never really ends. New furnace refractories, sensor-based flux monitoring, and better recipe management each take a turn in our investment pipeline. Right now, tighter integration with process automation allows us to squeeze out higher yield from the same energy input, creating cleaner soda ash that handles better in both the dense and light varieties.
We’re watching trends across downstream industries. As glass shifts to accommodate more post-consumer recycled content and as regulations tighten for water softening and detergent chemicals, we expect calls for ultra-clean soda ash to rise. New chemical routes, perhaps outside the classic Solvay cycle, offer opportunities but require proof at scale. We keep lab pilots running and collaborate with universities and technology companies to spot the next value stream.
For now, our mission keeps us close to our roots — listening to industry needs, responding with practical changes, and thinking ahead so that our soda ash stays a steady, reliable feedstock for the manufacturers who trust our name.
All of this traces back to long days and nights in the plant. The best lessons come from hands-on involvement. Whether shoveling a failed batch after a power dip, taking apart bagging lines after a humid thunderstorm, or fielding calls from maintenance teams at the receiving end, our team learns by doing. That experience goes back into every improvement, from more secure bulk loading to safer dockside handling. The stakes may appear small — just a white powder in a bag or hopper — but in our eyes, every shipment carries years of skill and careful effort to deliver exactly what industry needs to keep moving forward.