|
HS Code |
248287 |
| Chemical Name | Sodium Chloride |
| Common Name | Table Salt |
| Chemical Formula | NaCl |
| Molar Mass | 58.44 g/mol |
| Appearance | White crystalline solid |
| Melting Point | 801 °C |
| Boiling Point | 1465 °C |
| Solubility In Water | 35.9 g/100 mL (25 °C) |
| Density | 2.165 g/cm³ |
| Taste | Salty |
| Odor | Odorless |
| Cas Number | 7647-14-5 |
As an accredited Sodium Chloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A tightly sealed, white plastic container labeled "Sodium Chloride, 500g," featuring hazard icons, batch number, and manufacturer details. |
| Shipping | Sodium Chloride is typically shipped in sealed, moisture-resistant bags or drums to prevent contamination and caking. It is classified as a non-hazardous substance for transport and can be shipped via road, rail, air, or sea. Proper labeling and storage in a dry environment are essential to maintain product quality. |
| Storage | Sodium chloride should be stored in a cool, dry, well-ventilated area away from moisture and incompatible substances, such as strong acids. It should be kept in tightly sealed containers made of materials resistant to corrosion. Proper labeling is essential to avoid mix-ups. Storage areas should be protected from water and humidity to prevent clumping or dissolution of the chemical. |
|
Purity 99.5%: Sodium Chloride with 99.5% purity is used in pharmaceutical saline solutions, where it ensures isotonic compatibility and reduces risk of contamination. Particle Size 200 µm: Sodium Chloride with 200 µm particle size is used in food processing, where it provides uniform salt distribution and consistent flavor enhancement. Melting Point 801°C: Sodium Chloride with a melting point of 801°C is used in metallurgical flux applications, where it enables effective slag formation and improves metal purity. Moisture Content <0.1%: Sodium Chloride with moisture content below 0.1% is used in chemical synthesis, where it minimizes undesirable side reactions and increases product yield. Stability Temperature up to 1,200°C: Sodium Chloride stable at temperatures up to 1,200°C is used in thermal energy storage systems, where it provides high thermal conductivity and reliable heat transfer. Granular Form: Sodium Chloride in granular form is used in water softening systems, where it ensures efficient ion exchange and prolongs resin lifespan. Food Grade Specification: Sodium Chloride meeting food grade specification is used in canned food preservation, where it inhibits microbial growth and extends shelf life. Pharmaceutical Grade: Sodium Chloride of pharmaceutical grade is used in intravenous infusion manufacturing, where it guarantees sterility and physiological compatibility. Industrial Grade: Sodium Chloride of industrial grade is used in de-icing applications, where it lowers the freezing point of water and improves road safety. High Solubility (>35 g/100 mL at 20°C): Sodium Chloride with solubility over 35 g/100 mL at 20°C is used in brine preparation, where it enables rapid solution formation and efficient extraction processes. |
Competitive Sodium Chloride prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
Sodium chloride offers far more value than most folks realize. Some see it as table salt, but its worth stretches through medicine, food safety, industry, and scientific research. Product model NaCl-700 graces plenty of labs and factories through its impressive reliability and consistent performance. In everyday kitchens, yes, sodium chloride lifts flavor and preserves food, but its presence in pharmaceuticals and chemical processes deserves the same spotlight. The granule size, purity, and absence of additives in NaCl-700 make it a standout—these details stand behind solid, safe results where precision matters.
Working in the healthcare field, I’ve watched sodium chloride make a direct difference. In hospitals, NaCl-700 meets strict standards. Purity isn’t just a promise—contaminants or inconsistent grain sizes throw off solutions in IV drips, potentially endangering patients. Researchers working with sodium chloride need certainty in every batch. Trace metals, moisture, or color changes jam up scientific experiments. Labs stick with models like NaCl-700 for good reason. The product consistently tests at over 99.9% purity and remains stable during storage—a quiet testament to rigorous quality control. These traits, so vital in medicine, ripple out into agriculture (pesticide production and animal feed), food processing, water treatment, and even snow removal.
Food producers rely on sodium chloride for more than just seasoning. Without reliable salt, bread molds too fast, cheese won’t develop its character, and cured meats lose their shelf life. Sodium chloride halts bacterial spoilage, keeps food appetizing, and ensures product consistency. Companies face stiff regulations around purity, so they often pick specialized grades meant for food production. NaCl-700 assures them that nothing unwanted sneaks in, giving regulators and customers peace of mind. For anyone crafting cheese, brining fish, or making a humble pickle barrel, good salt isn’t negotiable. It roots tradition while meeting modern quality expectations.
I’ve always found the grain size debate interesting. Sodium chloride with larger granules dissolves slower, making it useful for applications that demand gradual release—like water softening or fermentation. Finer grades scatter more evenly, facing intense demand in snack food dustings or broth mixes. NaCl-700 comes in several grain cuts, with crystals sized from fine powder to rock salt. Each format matters; a baker and a water engineer both count on matching the right size to their needs. Poor particle consistency introduces measurement errors in pharmaceuticals, whips up flavor imbalances in food, and leaves sediment in chemical processes. Sodium chloride’s grain shape isn’t a small detail—it determines the outcome.
Purity stands shoulder to shoulder with grain size. Industrial users, especially those involved in electrochemical production or glass manufacturing, require sodium chloride uncontaminated by heavy metals or magnesium. Even trace contamination can lead to flawed products or equipment wear. I once spoke with a technician who tracked down millions in losses to just a few ppm (parts per million) of calcium in recycled salt. Since then, many plants source sodium chloride only from suppliers who can validate their purity claims with third-party lab reports. That means models like NaCl-700 become mainstays in high-stakes processes. The standard for “clean” product isn’t negotiable.
We hear about sodium’s effect on health all the time, but context matters. Table salt remains critical for nerve function, muscle contraction, and hydration. Too little, and people risk muscle cramps or imbalanced body chemistry. Too much, and blood pressure soars, dragging along risk for heart disease and stroke. Food manufacturing faces a balancing act: limit sodium but still meet safety and flavor needs. Companies have experimented with partial sodium replacements, blending potassium chloride or magnesium-based salts into sodium chloride. That said, true substitutes leave aftertastes or cause stomach problems for sensitive folks. NaCl-700, for example, stays in use because efforts to find a perfect match haven’t succeeded yet. My years in food safety highlight that most breakthroughs happen through careful blend adjustments, not through sudden swerves away from sodium chloride.
Sourcing sodium chloride traces back to ancient salt mines or seawater evaporation ponds. Each carries environmental and economic baggage. Traditional mines disturb land and local water tables; seawater evaporation consumes sprawling real estate and leaves behind brine waste that stresses marine ecosystems. As global demand rises for clean sodium chloride, suppliers and regulators face mounting pressure to reduce pollution, reclaim land, and cut waste. Plant managers I know invest heavily in closed-loop systems that reuse brine or capture trace minerals for sale. Sodium chloride might seem simple, but each ton that reaches NaCl-700 specification requires clever engineering and robust practices.
Not everyone knows that sustainable salt production supports far more than manufacturing profits. In fragile coastal regions, poor brine management can kill off fisheries and wipe out small towns depending on mangroves or tidal flats. Community leaders now organize citizen science teams, inspecting brine runoff and urging companies to adopt best practices. They share real-time photos, organize school visits to salt works, and demand stronger accountability. Sodium chloride in its pure form should promise no hidden costs to neighbors or future generations. I’ve sat in community halls where company managers answer tough questions about land restoration or fish populations. These conversations push industry and government together, encouraging policies rooted in science and local experience.
People often assume all salts share the same properties. That’s not the case. Potassium chloride, magnesium sulfate, and calcium chloride carry different flavors, perform unique chemical roles, and pose their own handling challenges. Potassium chloride tastes metallic to many and doesn’t preserve food as well as sodium chloride. Its use on icy roads can damage concrete, while sodium chloride’s primary risk there lies with soil salinization or corrosion. Magnesium sulfate works wonders in bath salts and agriculture, but lacks sodium chloride’s ability to cure meats or control microbial growth in packaged food. Calcium chloride shines as a de-icer and desiccant but can make foods taste bitter and sometimes reacts with packaging.
Model NaCl-700 stands out because it doesn’t come with those unwelcome quirks. In the laboratory, it dissolves predictably, stays inert in most chemical reactions, and won’t introduce unexpected flavors or textures. In medicine, consistency saves time and prevents dosing mistakes. Many pharmacists and chemists explain that even the slight mineral extras in sea salt or lower grade salts disrupt delicate balances during titrations, chromatography, or drug formulation. For home use, sodium chloride keeps costs down. Despite trendy alternatives, most professional chefs and food scientists stick to plain, pure sodium chloride for the basics. Quality and predictability cut down on waste and deliver better results every time.
Getting sodium chloride right every time isn’t just luck. The best manufacturers double down on testing. Each batch passes through spectrometers to screen for contaminants and sometimes through microscopes to ensure granule shape stays in range. Finished goods get stored in sealed, climate-controlled bins to guard against humidity pick-up or accidental mixing. The people I’ve met at these facilities keep obsessive records, tracing a single bag of NaCl-700 back to its mine or evaporation pond. Regulatory inspectors drop in for surprise checks. Third-party auditors, armed with checklists and standards from places like pharmacopeias or food safety agencies, back up every claim with data. This relentless pursuit of quality separates reputable sodium chloride from bulk commodity salt.
In the worst-case scenarios, cheap or untested salts have led to product recalls, costly lawsuits, or foodborne illness outbreaks. One recall I followed involved a food processor who sourced untested salt; the batch contained unexpected nitrites that left hundreds ill. That processor switched to certified suppliers offering clear laboratory reports after the incident, because trust, once lost, isn’t easily rebuilt. Smart buyers know that paying a little more for assured quality saves more than it costs in the end.
Innovation around sodium chloride hasn’t stopped. In recent years, researchers have looked at nano-sized sodium chloride particles for medical delivery systems, wound care, and advanced water purification. These ultra-fine crystals improve absorption, reduce irritation, or make filtration easier. In the electronics industry, sodium chloride sometimes unlocks new pathways to produce modern materials or manage heat flow in manufacturing. Several teams are exploring sodium chloride’s dense lattice as a template for growing synthetic crystals or improving battery materials.
Another intriguing direction links sodium chloride to energy storage. Some energy storage cells harness the chemistry of sodium salts to store and release power at lower cost than lithium-ion batteries. Sodium chloride doesn’t star in most of these projects, but research teams keep an eye on its potential as both a safety agent and a process ingredient as sodium batteries mature. The old workhorse of the periodic table continues to prove its worth, generation after generation, in new and sometimes surprising fields.
Every water treatment system, from municipal plants to home softeners, leans on sodium chloride. Without dependable salt, ion exchange resins clog, bacteria risk blooms, and pipes accumulate scale. Friends working in utilities explain that rejected salt, either too moist or too contaminated, leaves behind chemical waste streams or raises operating costs. NaCl-700 wins business from these sectors because batch consistency and test results trim downtime. Monitoring salt use and recycling process brine helps plants control costs and cut waste. Back in my college internship, I watched the water plant team fine-tune dosing pumps, always counting on lab-grade sodium chloride to deliver accurate, repeatable performance. Problems fade when the ingredients stay steady.
Snow and ice control in cities runs on rock salt. But getting the right grade matters. Low-purity products can track heavy metals onto roads, threatening groundwater and corroding bridges. High-purity models like NaCl-700 cost more up front, but city maintenance teams find longer-term savings and reduced cleanup bills. They also report fewer citizen complaints about stained shoes, dead plants, or pets with sore paws. Decisions about salt use can’t ignore the ripple effects on city life and budgets.
For all its benefits, sodium chloride calls for smart handling. It attracts water from the air, clumping up and sometimes turning hard as a brick in humid rooms. Warehouses often line pallets with polyethylene or keep stock in rain-proof sheds. Workers rotating bags or breaking up caked salt reduce losses. In medical and lab settings, vials and packets must stay tightly sealed, labeled, and stored clear of direct sunlight. Any contamination introduces uncertainty, ruining months of research or weakening drug formulations. I’ve seen newly shipped tons of salt ruined just by a busted shipping tarp in a summer storm.
Responsible handling doesn’t end with storage. Fishermen, bakers, and food plant workers all train on safe salt use. They avoid breathing dust, keep granules off open wounds, and clean spills promptly to stop floors from turning slick. Even at home, strong advice never to store salt in damp basements or near chemicals protects family health. My own kitchen keeps salt high up and sealed tight, a habit born from seeing what goes wrong in larger facilities.
Sodium chloride shapes economies and cultures. Salt taxes funded empires; salt trade routes powered towns from Morocco to China. The story continues today, as some regions still depend on local salt jobs or unique artisanal salt forges. Gathering salt by hand, teaching apprentices the rhythms of evaporation, or refining pure crystals in modern plants all tie communities together. Every so often, you find a specialty salt with pink, gray, or black flecks—these offer a taste of geology, not just flavor. Even so, most of the world counts on high-purity sodium chloride models for daily use, leaving niche salts for gourmet menus or body scrubs.
Salt brings people together in another sense. In countries with extreme heat or hard labor traditions, offering someone a pinch of salt mixes hospitality and health. Science meets culture when soccer teams pack salt packets for practice, or hospitals include saline in every emergency room kit. When sodium chloride works as it should, nobody notices. Life simply runs more smoothly.
The demand for high-grade sodium chloride grows. As pharmaceutical, food, and tech industries head toward even tougher purity benchmarks, suppliers like those of NaCl-700 will need new methods. Turning to greener mining, closed-loop water systems, or solar-powered evaporation cuts emissions and helps protect fragile environments. Regulators and communities grow louder in advocating for salt with lower footprints, fewer waste streams, and clearer records. In the end, sodium chloride stands as a reminder: even simple substances require complex care to get right, from mine or sea, through labs and kitchens, all the way to the kitchen table.
The story of sodium chloride keeps evolving. Less a background player, it continues shaping meals, medicines, research breakthroughs, and public works. Its high-purity models provide solutions to modern challenges, proving that substance matters more than name. Every pinch counts—for safety, health, and the smooth running of daily life.