Sodium Bicarbonate Industrial Grade: Overlooked Backbone of Modern Manufacturing

Historical Development

Sodium bicarbonate made its leap into industry well before the information age came along. Nicolas Leblanc's late 18th-century process for producing sodium carbonate from salt and sulfuric acid laid the groundwork. Ernest Solvay’s method from 1861 took things further. Factories now churn out tons of sodium bicarbonate using Solvay's approach that reacts ammonia, carbon dioxide, and sodium chloride. This shift mattered—families, workers, small businesses, and big chemical companies suddenly found themselves with cheap, accessible sources of this trusted powder. Economic booms followed wherever glass, soap, and textile industries could secure stable, local supply of these alkalis. Communities living near these plants saw jobs and prosperity grow alongside the white columns of steam.

Product Overview

Most people see sodium bicarbonate as baking soda. In industry, you get a product with more grit and less fuss over culinary purity. Suppliers ship it in bulk, crushed into granules or left as a fine powder depending on what the buyer plans to do with it. Not every shipment smells sweet or looks perfect. What matters are reliability, performance in high-volume chemical reactions, and price per ton that allows competitive production of glass, paper, leather, and even firefighting agents. Industry absorbs vast amounts, relying on consistent output to keep downstream processes humming.

Physical & Chemical Properties

Open a bag of industrial sodium bicarbonate, and you’ll find a powder that clumps easily under humidity and crunches between your fingers. It dissolves in water, giving mildly alkaline solutions that won’t burn your skin like caustic soda. The formula stays simple: NaHCO3. Its ability to break down into sodium carbonate, water, and carbon dioxide under heat or acid gives it a place at the table in laboratories and factories. These chemical quirks keep it useful in pollution control, metal processing, and process cleanup, with a track record that speaks for itself.

Technical Specifications & Labeling

Industrial sodium bicarbonate finds tight tolerances set by buyers. Detailed specification sheets usually spell out limits for sodium carbonate content, moisture, bulk density, and trace metal contaminants. Engineers buying in bulk check for consistent particle size, low insoluble residue, and a clear record of batch testing. Labelling generally must align with hazard regulations, making it easy for plant staff to store, handle, and transport without confusion or safety risks. Every drum or super sack comes marked with manufacturer, lot number, purity grade, and safety warnings as laid out by local and international chemical distribution standards.

Preparation Method

Solvay’s process rarely lets anyone down. Sodium chloride (salt brine), ammonia, and carbon dioxide combine to trigger chemical changes in energy-intensive towers, leading to precipitation of sodium bicarbonate. Workers then filter, wash, and dry the resulting powder. Unlike food-grade baking soda, factories skip extra purification steps—leaving trace minerals behind, which rarely matter for smoke scrubbers, pH regulators, or textile finishing. This approach keeps the environmental footprint manageable for large-scale chemical manufacturing, which faces rising costs from energy prices and stricter emissions rules.

Chemical Reactions & Modifications

Sodium bicarbonate’s versatility comes from its knack for donning different roles in chemical reactions. Add heat, and you produce sodium carbonate, water, and carbon dioxide gas—an action harnessed for leavening and as a gentle fire suppressant in dry powder extinguishers. Pour in acid, and carbon dioxide bubbles up. Factories tweak sodium bicarbonate’s properties through particle modification, spray-drying, blending with flow agents, or even surface treatments so it disperses evenly and delays caking during storage or automated dosing.

Synonyms & Product Names

Industrial sodium bicarbonate parades under several other names depending on geography and sector. Some call it bicarb, baking soda, or soda saleratus. Producers use product codes, reference numbers, and regional trade names depending on regulatory norms, customer requests, or even marketing flair. Across continents, buyers learn to check material data sheets to ensure they’re choosing the same white mineral powder they counted on back in their earliest roles on the factory floor.

Safety & Operational Standards

Most people wouldn’t blink at the risks posed by sodium bicarbonate. Still, workers moving several tons each day, or feeding fine powder into roaring blast furnaces, respect the safety protocols. Operators face risks of dust inhalation, eye or respiratory tract irritation, and slip hazards from powder spills. Safety Data Sheets advise nitrate gloves, eye protection, masks, and strong local ventilation. Regulations for packaging, transport, and disposal reflect a tradition of risk management. Modern plants lean heavily on internal training, regular audits, and clear signage to prevent exposures or dust explosions, which are rare but not impossible.

Application Area

Chemical plants turn to sodium bicarbonate for everything from neutralizing acid wastewater to fine-tuning dye baths for textiles. Power stations depend on it to scrub sulfur dioxide and acid gases from flue stacks, a must since air quality rules tightened. Metal shops clean castings and parts, leveraging its gentle abrasiveness. Bakeries, of course, buy the food-grade version, while industries blend the industrial grade into blends for animal feed, pool chemicals, and personal care products. Firefighters trust it to knock down grease and chemical fires with less environmental follow-up than harsh foams.

Research & Development

Researchers don’t let sodium bicarbonate rest on its laurels. University labs and corporate teams experiment with better production methods, exploring alternatives that use renewable resources or increase yield with less waste. Environmental scientists probe how the compound can aid soil remediation or cut emissions in places with few pollution-cleaning options. Industry pushes to lower the energy bill of Solvay’s process, squeeze out process impurities, and breed new uses for waste stream bicarb—turning disposal problems into fresh revenue sources. This isn’t just tinkering. It’s a push to keep an old standby relevant for new generations of manufacturers and regulators.

Toxicity Research

Decades of research show sodium bicarbonate rarely threatens health except in large, careless exposures. Acute toxicity stays low, meaning accidental dust inhalation or skin contact bothers rather than harms. Swallowing a spoonful won’t cause more than mild stomach upset—for the industrial sector, the main concern involves chronic exposure or sensitive populations. Environmental studies keep an eye on aquatic ecosystems, since huge releases could shift water chemistry and impact plants or fish. Responsible operators weigh these issues with routine monitoring and incident readiness programs, addressing risks head-on instead of dodging accountability.

Future Prospects

Looking forward, sodium bicarbonate seems poised for broader demand as industries strive to cut emissions, recycle more, and replace harsher chemicals. Governments push stricter environmental standards and tighter control on industrial waste. This white powder stands as a cost-effective, well-understood answer for pollution control, water treatment, and new clean-tech sectors eyeing energy storage or green chemistry applications. Companies that innovate on product form, supply chain traceability, and circular economy uses will likely lead the field. People who dismiss sodium bicarbonate as just cheap filler miss the quiet ways it shapes the world’s infrastructure, air quality, public safety, and daily goods.



What are the main industrial uses of Sodium Bicarbonate Industrial Grade?

A Closer Look at Everyday Industry

Sodium bicarbonate, sometimes called baking soda, shapes a wide variety of industrial processes. It pops up everywhere—from managing emissions to supporting safety in harsh environments. My first factory visit years ago opened my eyes to how this non-flashy white powder ends up driving key production steps and environmental safeguards.

Cleaning Up with Flue Gas Treatment

Coal-fired power plants and heavy industries pump out exhaust filled with acidic gases. Operators dose sodium bicarbonate into their flue gas streams. Instead of expensive or hazardous chemical scrubbing, the powder captures sulfur dioxide and hydrogen chloride, transforming them into harmless salts. Data from the U.S. Environmental Protection Agency highlights how this process slashes acid gas emissions before they leave a smokestack. Plants save on maintenance—less corrosion and fewer breakdowns—while keeping air cleaner.

Keeping Food Safe in Processing Plants

Food producers often rely on industrial sodium bicarbonate for more than baking. Factories add it to wash water because it neutralizes acids, helping sanitize equipment and surfaces. This chemical adjustment makes it harder for bacteria like salmonella to survive on production lines. Global food safety guidelines, such as those from Codex Alimentarius, point to this as a practical way to maintain quality and prevent contamination.

Firefighting Solutions in Extreme Conditions

Industrial-grade sodium bicarbonate often shows up in dry chemical fire extinguishers, especially those marked “BC Type.” These devices put out electrical fires and fuel flashes. During lab safety training, I saw how sodium bicarbonate powder interrupts the chemical reactions fueling a fire, cutting off oxygen and keeping flammable materials from reigniting. Warehouses and electrical stations depend on this reaction, proving that basic chemistry can mean the difference between a close call and a disaster.

Boosting Water Treatment and Pool Safety

Sodium bicarbonate stabilizes pH in municipal and industrial water treatment. Without it, water drifts too acidic or too alkaline, corroding pipes or throwing off disinfection. Small towns and cities dissolve it in waterworks to protect residents’ plumbing and ensure disinfection chemicals can do their work. The Centers for Disease Control and Prevention recommends sodium bicarbonate additions to swimming pools, too, as it keeps chlorine working efficiently and safeguards swimmers’ skin and eyes.

Leavening and Chemical Production

In large-scale mills and food plants, sodium bicarbonate’s ability to release carbon dioxide under heat turns dough into bread and crackers. The leavening action is old science, but it saves companies time and money compared to yeast. At the same time, manufacturers of detergents and pharmaceuticals use it as a gentle abrasive, pH buffer, or starting ingredient for producing more complex chemicals. European suppliers regularly report shipping thousands of tons for these applications every year, meeting the never-ending demand for cleaning and healthcare products.

Looking Forward: Reducing Waste, Saving Energy

A simple, abundant mineral like sodium bicarbonate can help industries cut pollution, operate more safely, and protect food and water supplies. Solutions don’t need to be complicated to have a major impact—sometimes a pinch of white powder keeps the wheels of industry turning smoothly.

What is the typical purity level of industrial grade sodium bicarbonate?

Understanding the Numbers and Real-Life Use

Plenty of folks work with sodium bicarbonate without giving much thought to the actual purity numbers stamped on the bag. Most of us remember it as baking soda under the kitchen sink or maybe spot it in a fire extinguisher. In industry, companies use sodium bicarbonate for everything from scrubbing the air in power plants to cleaning up after chemical spills. Out in the field, the details in the specs matter, especially the percentage representing purity.

Walk into a chemical supply warehouse or check the label on industrial bags and you’ll likely see a range: most industrial grade sodium bicarbonate hovers between 99.0% to 99.5% purity. The remaining fraction consists of moisture and a small handful of harmless minerals or compounds picked up during production. At a glance, 99% might sound near-perfect, but technical work has taught me: that last 1% can hold big consequences. It could mean non-dissolving grit, calcium traces, or some leftover sodium carbonate. For a wastewater operator or a manufacturing engineer, those trace materials impact the outcome. For example, in flue gas treatment, stray compounds can reduce efficiency or cause buildup.

Diving into Why Purity Standards Matter

Big industries rely on sodium bicarbonate that meets standardized purity levels. Too many contaminants can wreck equipment or cause surprise reactions. Some plants once learned this lesson the hard way when unexpected minerals in a shipment gummed up spray nozzles, leading to costly cleanings and downtime. Even paper mills and food factories carefully check the fine print to avoid introducing impurities that change the final product. Jobs that seem straightforward, like neutralizing acids, can go sideways if the sodium bicarbonate isn’t clean enough to behave consistently.

Regulatory bodies such as the Food and Drug Administration keep a close eye on grades intended for food or pharmaceuticals. Industrial grade, though not for eating, still falls under scrutiny when used around water supplies, air systems, or places where worker safety is front and center. It all leads to trusted suppliers and a network of regular lab testing to lock purity in place.

Cost, Scale, and Smarter Choices

Industrial buyers often face pressure to control costs. Lower purity sodium bicarbonate seems cheaper, but hidden costs crop up—more filtration, extra cleaning, unexpected downtime. Deciding the sweet spot between price and purity means weighing every use case on its own. In a glass factory, a little grit can pit finished products; in water treatment, impurities could clog valves or gum up sensors. In my own experience managing inventory, switching grades without warning led to headaches across the board, from maintenance teams to folks tracking environmental compliance.

Factories and operators today have better options for checking up on what’s in a bag. Quick in-house tests or third-party labs flag suspicious material before it causes chaos. Conversations with suppliers set expectations: producers can adjust their processes for a slightly higher or lower grade depending on what’s needed.

The Road to Fewer Surprises and Better Outcomes

Experience taught me that skipping purity tests, even out of convenience, leads to equipment woes and chemical surprises no one wants to wrestle with. Investing in quality up front tends to save big down the road. A factory might handle hundreds of tons in tanks, and 0.5% impurity might sound small, but scale turns that into buckets of residue. A locked-in supply chain and ongoing checks help keep those buckets manageable, keeping production rolling without hiccups.

Are there any safety precautions for handling sodium bicarbonate industrial grade?

Why Sodium Bicarbonate Demands Respect in the Workplace

Industrial grade sodium bicarbonate plays a huge role across factories and workshops. It's not just the base for baking powder; it phones in for cleaning jobs, pH balancing in pools, pollution control, and firefighting powders. Yet, ask any crew member who’s unloaded a 50-kilo sack, and you’ll learn this harmless-seeming powder presents its own risks.

What Can Go Wrong

Nobody wants a trip to the emergency room over a substance most folks keep in the fridge. Still, industrial sodium bicarbonate arrives in large quantities, often in fine, airborne dust. The Occupational Safety and Health Administration (OSHA) doesn’t list sodium bicarbonate as particularly hazardous, but that gives some users false confidence. Prolonged or careless exposure leaves people coughing, sneezing, or with skin that feels raw and itchy.

Folks who scoop, pour, or mix up sodium bicarbonate without gloves and masks can get eye irritation, throat dryness, and cracked hands. Dust coats work surfaces, and without regular cleanup, employees breathe it in all shift. At its core, sodium bicarbonate acts as an irritant in big bursts or after repeated contact.

Proven Safety Habits

I’ve worked in maintenance teams where sodium bicarbonate dust turned the air cloudy. One lesson stands out: personal protective equipment sits just as close to the workstation as the materials meant for the job. Safety glasses or a face shield keep dust out of eyes. Gloves—nitrile or rubber—hold the powder back from skin, which really helps during long tasks. Crew members trained to use cartridge respirators or even disposable dust masks stay clear-headed and better protected for hours on the job.

Sharing the material safety data sheet (MSDS) with everyone on the floor beats hoping experience alone will keep accidents away. Every worker, from the new trainee to the foreman, deserves a plain language walkthrough before a single bag gets slit open. Spill kits nearby encourage quick cleanup. Buckets or brooms meant just for sodium bicarbonate cut down on cross-contamination, especially around food processing or wastewater treatment machinery.

Keeping Work Areas Healthy

People sometimes skip ventilation, figuring a powder like sodium bicarbonate couldn’t possibly threaten lung health. In reality, good airflow pulls dust away from workers’ faces and stops it from settling into cracks. After shoveling or mixing, I sweep the floor and wipe down exposed surfaces with a damp rag; this practice limits any buildup that could turn into slippery, hazardous spots.

A responsible storage routine saves headaches later. Tightly sealed containers block out moisture that can clump the powder and grow mold. Marking storage bins and high-traffic areas makes accident prevention second nature. Walk the floor before breaking out new shipments, so everyone knows the plan if a bag splits or a cloud of dust rises. Trust grows on teams when systems are clear and everyone looks out for each other.

The Role of Training and Monitoring

Everyone talks about “best practices,” but real safety comes from steady habits. Regular training sessions stick better than handwritten signs. Management tracks air quality in tight mixing rooms with simple monitors, keeping exposure low before health complaints show up. A culture that values reporting near-misses ends up stronger. Speaking up about a broken glove or dodgy ventilation fan prevents harmful exposures before they start.

Sodium bicarbonate might look innocent, but industrial settings turn up the risks. Direct experience and documented facts agree—equipping workers with the right gear, routines, and training protects both people and production. Simple precautions do more than tick boxes for compliance. They provide peace of mind everyone deserves.

How should sodium bicarbonate industrial grade be stored?

No Room for Corners Cut in Chemical Storage

Anyone who's spent time around factories or chemical storage sites knows that safe material handling comes from basic habits, not just shelf specs or fancy containers. Sodium bicarbonate in its industrial form isn’t a high-risk chemical, but missteps can make it clump, lose effectiveness, or create mess and danger. In my years consulting with manufacturing plants, lessons learned—sometimes the hard way—have always come from simple oversights: a leaky roof, a rip in a sack, pallets stacked too low to the ground. The real cost comes when these little things are ignored.

Keep It Dry, Keep It Clean

Moisture stands as sodium bicarbonate’s biggest enemy. This isn’t just about product loss; clumping and caking make handling tough and can cause blockages in feed systems. Every bag deserves a spot above concrete floors with pallets that don’t let condensation creep up from below. If the storage area has open windows or a leaky ceiling in the rainy season, someone will need to clean a mess or replace ruined material. A dehumidifier in humid zones saves more product and trouble than any fancy label on a sack.

Avoid Cross-Contamination

Industrial chemicals rarely fail because of what’s in the bag—problems come from what creeps in. I’ve seen job sites where sodium bicarbonate sat next to fertilizers or acids, with open sacks side by side. Two weeks later, half of the batch was useless. This white powder picks up smells from the air and reacts if anything acidic breaks loose nearby. Separation matters more than most realize. Create a clear dividing line between different classes of chemicals in the storeroom and mark zones for alkaline powders like sodium bicarbonate. Most accidents and ruined batches come from skipping this basic step.

Safe Handling and Labeling Prevents Future Headaches

Nobody likes accidents, and mistakes usually start with a torn sack or a missing label. Employees deserve more than a quick walk-through or a printout taped to the wall. Simple habits work best: check containers on arrival, fix rips with proper tape, and make use of large, bold labels. Goggles and masks keep powder out of lungs and eyes; safety’s not just regulation, it prevents uncomfortable hospital runs. A visible checklist by the door always helps new team members stay on track.

Ventilation and Temperature Matter—Even If No One Notices

Heat breaks everything down faster. A chemical like sodium bicarbonate holds up fine at room temperature, but direct sunlight destroys the packaging, and a hot storeroom will ruin bags over a few seasons. Ventilated storage keeps air moving and limits dust buildup—nobody wants fine powder settling on every surface. At one site, they kept windows cracked in summer to keep the airflow steady; product life stretched by months, and there were no more crusty lumps in the powder.

Smart Systems Cut Waste

Inventory runs smoothest with “first-in, first-out” rotation. New shipments always go behind older stock, pushing older bags toward the front. I’ve watched warehouses where this simple system meant every bag left in peak condition, without forgotten, expired product under piles of newer stock. This reduces waste and lets teams spot problems early—such as torn sacks, damp corners, or expired materials.

No Secret Formula—Just Consistency

Good storage doesn’t come from fancy tech or expensive upgrades. It comes down to daily effort: keep things dry, label well, separate chemicals, and keep an eye on the basics. Teams with these habits see less waste, fewer accidents, and higher quality results in every task where sodium bicarbonate enters the mix.

Is sodium bicarbonate industrial grade suitable for food or pharmaceutical applications?

Why Grades Matter In Everyday Life

Every bag of sodium bicarbonate doesn’t share the same story. Grocery shelves display baking soda with bright food labels, while factories stack sacks with “industrial grade” printed in plain letters. On the surface, the white powder looks the same—so people sometimes wonder if there’s really a difference. The reality runs much deeper, especially when thinking about what belongs in your food or your medicine.

The Trust Built Into Food And Pharma Products

Food-grade sodium bicarbonate doesn’t just show up in kitchens by accident. Producers put time and resources into preventing impurities—heavy metals, toxins, and extra minerals—from ever reaching your recipes. The U.S. Food and Drug Administration (FDA) and other regulatory bodies across the globe set tough standards for food additives. Manufacturers follow those rules tightly, tracking things like arsenic, lead, and even tiny bits of glass or plastic dust.

Pharmaceutical-grade takes things even further. The standards stretch beyond purity, delving into consistency, particle size, and batch testing. It isn’t only about safety; medications rely on predictable outcomes. When people reach for an antacid or get a prescription that contains sodium bicarbonate, they trust that no unknown compounds lurk inside. Mistakes or accidental contamination simply can’t happen under that system.

Industrial Grade Misses The Mark For Safety

Factories that make industrial-grade sodium bicarbonate have a different checklist. This version lands in fire extinguishers, cleaning agents, textile processing, and even leather tanning. The controls keep the product usable for those jobs, but don’t weed out nasty impurities in the same way. Sometimes, tolerances for heavy metals or other contaminants climb higher than food or pharma rules ever allow. There’s no point in paying extra for clean product if the final use never involves humans eating, drinking, or swallowing it.

Someone might argue that “it’s all just sodium bicarbonate”—but I’ve seen firsthand how even small lapses in ingredient quality can spark big health scares. Back in college, a study group tried to “save a few bucks” for our bio lab by using cheaper chemicals. The difference in appearance and performance was easy to miss at first, but the unexpected reactions and occasional odd smells taught a quick lesson. Impeccable sourcing prevents risk, especially when health sits on the line.

Accountability From Start To Shelf

Trust only works if every piece of the chain does its job. Grocery stores, pharmacies, and food producers must confirm that their sodium bicarbonate supply meets the strictest grade necessary. Warnings about using non-food or non-pharmaceutical grades show up in safety manuals and supplier forms for a reason. Even a single batch slipping through the cracks could trigger recalls, legal action, or worse, someone getting sick.

Education carries weight here. People often don’t realize the role good regulation plays in daily safety. When in doubt, I check for certifications like USP (United States Pharmacopeia), BP (British Pharmacopoeia), or FCC (Food Chemicals Codex) labeling. Suppliers should open up about their processes, share test results, and encourage buyers to ask questions. It’s better to be cautious than careless around products that wind up in our bodies.

Finding The Right Fit For Each Job

Sodium bicarbonate cleans stovetops, calms heartburn, and makes cookies rise. That impressive range works because the industry pays attention to purity and application. Industrial grade powders do their job in factories, not on dinner plates or inside medicine bottles. The best approach is simple—know your source, understand the grade, and value the difference. Health and peace of mind cost far more than a few cents shaved off a bulk supply.

Sodium Bicarbonate Industrial Grade
Sodium Bicarbonate Industrial Grade
Names
Preferred IUPAC name Sodium hydrogen carbonate
Other names Baking Soda
Sodium Hydrogen Carbonate
Bicarbonate of Soda
NaHCO3
Sodarum Bicarbonicum
Pronunciation /ˌsəʊ.di.əm baɪˈkɑː.bə.neɪt ɪnˈdʌs.tri.əl ɡreɪd/
Preferred IUPAC name Sodium hydrogen carbonate
Other names Soda Ash
Baking Soda
Bicarbonate of Soda
Sodium Hydrogen Carbonate
NaHCO3
Pronunciation /ˌsəʊ.di.əm baɪˈkɑː.bə.neɪt ɪnˈdʌs.tri.əl ɡreɪd/
Identifiers
CAS Number 144-55-8
Beilstein Reference 1713881
ChEBI CHEBI:32139
ChEMBL CHEMBL1356
ChemSpider 5758
DrugBank DB01390
ECHA InfoCard 03-2119480136-46-0000
EC Number 011-005-00-2
Gmelin Reference 49733
KEGG C00288
MeSH D017782
PubChem CID 516892
RTECS number VZ0950000
UNII V87YNB19TT
UN number UN2074
CAS Number 144-55-8
Beilstein Reference 13317
ChEBI CHEBI:32139
ChEMBL CHEMBL1359
ChemSpider 5461126
DrugBank DB01390
ECHA InfoCard '03-2119488061-53-0000'
EC Number EC 205-633-8
Gmelin Reference 51147
KEGG C00079
MeSH D017693
PubChem CID 516892
RTECS number VZ0950000
UNII 6UI1K9RY1V
UN number UN3077
CompTox Dashboard (EPA) Sodium bicarbonate (Industrial Grade) CompTox Dashboard (EPA) identifier string is: **DTXSID2022927**
Properties
Chemical formula NaHCO3
Molar mass 84.01 g/mol
Appearance White crystalline powder
Odor Odorless
Density 2.2 g/cm³
Solubility in water Soluble in water
log P -12.7
Vapor pressure Negligible
Acidity (pKa) 8.3
Basicity (pKb) 8.3
Magnetic susceptibility (χ) -19.0·10⁻⁶
Refractive index (nD) 1.378
Dipole moment 0 D
Chemical formula NaHCO3
Molar mass 84.01 g/mol
Appearance White crystalline powder
Odor Odorless
Density 2.20 g/cm³
Solubility in water Soluble in water
log P -7.56
Vapor pressure Negligible
Acidity (pKa) pKa 6.3
Basicity (pKb) 6.35
Magnetic susceptibility (χ) −19.6 × 10⁻⁶ cm³/mol
Refractive index (nD) 1.380
Dipole moment 1.73 D
Thermochemistry
Std molar entropy (S⦵298) 102 J·mol⁻¹·K⁻¹
Std enthalpy of formation (ΔfH⦵298) -947.7 kJ/mol
Std molar entropy (S⦵298) 85.2 J/(mol·K)
Std enthalpy of formation (ΔfH⦵298) -947.7 kJ/mol
Pharmacology
ATC code B05CB02
ATC code B05CB02
Hazards
Main hazards May be harmful if swallowed or inhaled; may cause mild eye or skin irritation.
GHS labelling GHS: Not classified as a hazardous substance or mixture according to the Globally Harmonized System (GHS)
Pictograms GHS07
Signal word No signal word
Hazard statements No hazard statements.
Precautionary statements P264, P270, P305+P351+P338, P337+P313
NFPA 704 (fire diamond) Health: 1, Flammability: 0, Instability: 0, Special: -
Autoignition temperature > 800°C (1,472°F)
Lethal dose or concentration LD50 (oral, rat): 4220 mg/kg
LD50 (median dose) LD50 (oral, rat): 4220 mg/kg
NIOSH VZ0950000
PEL (Permissible) 15 mg/m³
REL (Recommended) 99.0%
IDLH (Immediate danger) Not listed.
Main hazards May cause eye irritation, may cause mild skin irritation, may cause respiratory tract irritation if dust is inhaled
GHS labelling No GHS label required. Not classified as hazardous according to GHS.
Pictograms GHS07
Signal word No signal word
Hazard statements Not a hazardous substance or mixture.
Precautionary statements Keep container tightly closed. Store in a dry place. Avoid contact with acids. Avoid inhalation of dust. Use with adequate ventilation. Wash thoroughly after handling.
NFPA 704 (fire diamond) 0-0-0
Lethal dose or concentration LD50 (oral, rat): 4220 mg/kg
LD50 (median dose) LD50 (oral, rat): 4220 mg/kg
NIOSH VZ0950000
PEL (Permissible) 10 mg/m3 (total dust), 5 mg/m3 (respirable fraction)
REL (Recommended) 30 – 60 mg/Nm³
Related compounds
Related compounds Sodium carbonate
Potassium bicarbonate
Ammonium bicarbonate
Sodium hydroxide
Sodium chloride
Related compounds Sodium carbonate
Sodium hydroxide
Ammonium bicarbonate
Potassium bicarbonate
Sodium chloride