|
HS Code |
294480 |
| Chemical Formula | Ca3(PO4)2 |
| Molar Mass | 310.18 g/mol |
| Appearance | white powder or crystalline solid |
| Solubility In Water | slightly soluble |
| Melting Point | 1670 °C |
| Density | 3.14 g/cm³ |
| Cas Number | 7758-87-4 |
| Ph | basic (when suspended in water) |
| Taste | tasteless |
| Odor | odorless |
| Stability | stable under normal conditions |
As an accredited Calcium Phosphate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 25 kg white polyethylene bag, labeled "Calcium Phosphate," features hazard symbols, batch number, manufacturer details, and resealable liner for protection. |
| Shipping | Calcium Phosphate should be shipped in tightly sealed containers to prevent moisture absorption. Store and transport in a cool, dry, well-ventilated area. Avoid contact with incompatible substances. Ensure packaging is secure to prevent leaks or spills. Always comply with local, national, and international regulations regarding the transport of chemicals. |
| Storage | Calcium phosphate should be stored in a tightly closed container, kept in a cool, dry, and well-ventilated area. Ensure the storage location is away from moisture and incompatible substances, such as strong acids. Label containers clearly and protect the chemical from physical damage. Avoid exposing calcium phosphate to excessive heat or humidity to maintain its stability and quality. |
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Purity 98%: Calcium Phosphate with 98% purity is used in pharmaceutical tablet formulations, where it enhances compressibility and ensures uniform tablet integrity. Particle size 75 microns: Calcium Phosphate with 75 microns particle size is used in food fortification, where it provides improved dispersibility and homogeneous mineral distribution. Stability temperature 800°C: Calcium Phosphate with stability temperature of 800°C is used in ceramic manufacturing, where it maintains structural integrity during high-temperature sintering. Molecular weight 310.2 g/mol: Calcium Phosphate with molecular weight 310.2 g/mol is used in dental cement production, where it ensures optimal setting times and consistent mechanical strength. pH 7.0 suspension: Calcium Phosphate in a pH 7.0 suspension is used in injectable bone grafts, where it promotes biocompatibility and minimizes tissue irritation. Loss on ignition less than 0.5%: Calcium Phosphate with loss on ignition less than 0.5% is used in nutritional supplements, where it confirms high product purity and safety for human consumption. Solubility 0.02 g/L at 25°C: Calcium Phosphate with solubility of 0.02 g/L at 25°C is used in biochemical assays, where it prevents unwanted dissolution and maintains assay accuracy. Apparent density 1.1 g/cm³: Calcium Phosphate with apparent density of 1.1 g/cm³ is used in feed premixes, where it enables accurate bulk handling and mixing efficiency. |
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Among the minerals shaping our everyday lives, calcium phosphate stands out both for what it can do and for what it changes in the world around us. When folks look at a bag labeled “Calcium Phosphate—Model CP-101,” what they’re buying is the result of years of research, trial, and often mistakes that led to refined production and tighter safety controls. I have watched this material work its way from the shelves of agricultural supply houses all the way into pharmaceutical labs, creating value wherever someone understands how to use it right.
Take a close look at the production line. Model CP-101 shows a measured Ca/P ratio, sticking close to 1.67. The typical white crystalline powder looks plain, like many basic chemical products. Yet, a simple appearance masks a pile of benefits that reach beyond agriculture or medicine. Each batch passes through careful analysis, checking for heavy metals and contaminants, because health and quality cannot take a backseat. It’s not enough to just meet basic purity standards—reputable suppliers push for better, following the lead of industry groups, scientific consensus, and even farmers who want better harvests and healthier animals.
Anyone who walks the rows of an orchard or listens to a veterinarian knows that feed matters. A lack, or an excess, of calcium and phosphorus can mean the difference between healthy growth and a season lost to stunted crops or slow-growing animals. Calcium phosphate, as I’ve seen on the farm, is easy to distribute and blends well with both feed and fertilizer. It doesn’t clump up like some older forms and stays stable even when it’s stored in less-than-ideal conditions.
It isn’t only about what you put in the ground or feed into livestock. This compound changes the game in medicine as well, especially where bone health and dentistry are concerned. Orthopedic surgeons want hydroxyapatite—a form of calcium phosphate—because the body recognizes it as part of itself. That’s what makes it fit for filling in bone defects, coating implants, or even developing synthetic bone grafts.
Ask anyone in pharma about calcium phosphate and they’ll punch in figures: purity typically around 98 percent or better, moisture content kept below 1 percent, and strict microbiological standards. The world’s best drugmakers choose this mineral when they want a flow agent or excipient that won’t mess with active pharmaceutical ingredients. It holds its own, chemically stable, in the heat and cold.
In animal feed, someone who mixes for a big livestock operation will be after the correct calcium to phosphorus ratio—too much one way or the other can throw off growth rates or bone formation. With human nutrition, good calcium phosphate brings digestible calcium and phosphorus, avoiding stomach trouble and poor absorption. These differences get noticed, not just in price points but in real world results.
People like to compare. It’s human nature and good business. Calcium phosphate finds itself in a lineup with calcium carbonate, dicalcium phosphate, tricalcium phosphate, and sometimes more exotic minerals. My experience, and a decent look at peer-reviewed studies, shows that calcium phosphate behaves differently under a microscope and in the body.
Calcium carbonate brings calcium in bulk, but its absorption rate in acidic or low-acid stomachs doesn’t come close to what you get from certain calcium phosphates. Tricalcium phosphate, for all its uses, has a slightly lower phosphorus hit, so balancing diets can get trickier. Dicalcium phosphate has a similar application footprint but reacts differently in manufacturing—less prone to caking, but sometimes needing tighter humidity controls. Calcium phosphate, especially hydroxyapatite, matches natural bone and dental tissues more closely than rivals. That opens doors for surgeons, dentists, and researchers aiming for products that become part of the body and not just a filler.
Every time I walk down a supermarket aisle, I find foods boosted by this mineral. Bread with added calcium phosphate rises better and stands up to the aging process. Processed cheese relies on it to keep texture from getting gummy. Food manufacturers turn to model CP-101 when they want a calcium fortificant that won’t spoil taste or create chalky mouthfeel. Their food scientists learned these tricks the hard way—lots of ruined test batches, endless taste panels, and constant feedback from the people who matter most: the customers.
You can’t skip human health. Look at infant nutrition, where even a slight miscalculation in mineral content can have long-term consequences. Formula manufacturers chasing bone-strength benefits and the right caloric density rely on calcium phosphate for just that reason. And in dental materials, where the future holds the promise of full tooth regeneration, research teams keep returning to this time-tested mineral.
I trust the companies who publish their batch analysis and let independent labs test for contaminants. Nobody wants to see stories about lead, arsenic, or cadmium sneaking in with an essential mineral. Those who cut corners lose respect—and customers—pretty fast. Food safety agencies, the European Food Safety Authority, the US FDA, and countless national groups all weigh in, setting upper daily limits and outlining safety profiles.
Regular updates to legal thresholds force manufacturers to revisit their processes. If a supplier can’t meet the latest REACH regulations or falls behind on ISO certification, they get pushed aside by those who make safety and quality a guarantee, not a goal. I have sat in on meetings where chemists talk about the anxiety of changing a trusted source, but the frustration with unexplained variances or questionable purity always wins out. Reputation in this market means more than price per kilo.
No supply chain runs perfectly. I have seen container shipments delayed for weeks in port, or a spike in demand for phosphorus-driven crop yield causing price jumps nobody expected. What saves the day isn’t always technology, but open lines of communication, supply contracts built on real relationships, and a willingness to adapt. Peer groups and agricultural co-ops often pool resources to bulk order and lock in better prices, sharing both risk and reward.
In pharmaceuticals, quality assurance managers lose sleep over impurities. Testing protocols have gotten better, but no system is perfect. This is why third-party certification matters; nobody wants to call a product pure just because the label says so. Labs now run their own tests, and more often, customers demand to see those results before signing deals. The collective push for traceability, whether by batch numbers or full audits of raw material origin, ends up protecting the end consumer.
Everyone talks sustainability these days, but for minerals like calcium phosphate, the talk leads to real change. Phosphate mining, a source for many calcium phosphate producers, creates environmental challenges: land disruption, water use, and the problem of waste tailings. Community groups, researchers, and suppliers wrestle with these issues at conferences every year.
Recycling phosphorus from animal waste and municipal biosolids now has support from universities and non-profit groups. Technologies to recover calcium and phosphorus from wastewater move from experimental to practical. Each step toward “closing the loop” means less reliance on mined rock phosphate, which helps ecosystems and local economies. I’ve seen farms turn this waste challenge into a revenue source by partnering with treatment facilities, forming tight local supply cycles.
Producers who can document improved environmental practices don’t just win awards—they win contracts. Companies pay attention when downstream customers demand environmental audits and proof of community benefit. The ones who stick to business as usual risk being squeezed out by new players with better tracking, reporting, and stewardship.
Science moves quickly. Research into “green” synthesis routes for calcium phosphate has led to better routes that cut energy usage, produce less toxic waste, and fit inside small-scale processing. Labs experiment with plant-derived precursors and lower temperatures to get the right crystal forms. Early trials suggest these lower-impact methods could soon hit the broader market.
Labs in Asia and Europe push new product grades—nano-calcium phosphate or specially engineered, low-solubility forms—that might one day displace older products. From what I see, old-school suppliers who ignore these innovators will end up playing catch-up. Investing in R&D, taking some risk on small pilot runs, and letting young chemists have a say, that’s paid off for the forward-looking companies.
Traceability matters. A few years ago the push for blockchain tracking in food and pharma supply chains felt like marketing hype, but there’s real value here. Buyers want to know where the phosphorus and calcium came from, who handled it, and how each stage gets documented. This traceability doesn’t only catch cheaters, it actually gives reputable firms a concrete advantage. Customers, from big baked-goods companies to medical device makers, see their own risk shrink when their suppliers are willing to share this data.
Insisting on audits, running spot checks, demanding up-to-date certification and batch numbers—these strategies don’t just build confidence, they slowly raise standards for everyone. I have seen deals fall apart because a supplier couldn’t produce paperwork down to the mine, even after offering a better price. It’s not just about looking good; it’s about trust that the material does no harm, now and into the future.
Conversations about calcium phosphate always get back to price. It’s true that cheaper versions land on docks every year, but lessons from recalls and lawsuits show that cutting corners comes with a cost nobody wants to pay. Bringing in calcium phosphate that meets all standards, holds up under scrutiny, and works without a hitch still means something to buyers who care about their own brands.
Volume buyers in food, feed, and pharma negotiate hard, but they rarely settle for the bottom of the barrel. Supply contracts now spell out purity percentages, documentation requirements, and what happens if something falls short. Savings sometimes come from smarter logistics, bulk ordering from fewer, more reliable sources, and fostering enough competition to keep everyone honest without driving the market to the brink of collapse.
Choosing between calcium phosphate options doesn’t end with picking a grade from a catalog. Buyers weigh how each product responds to moisture, heat, and handling during manufacturing. One manufacturer might want a finer powder to ease blending, another seeks a coarse granule to prevent dust. Dairy and bakery processors see the effects in texture and shelf life, not just nutrition facts. Differences in solubility and bioavailability sort out where each type fits best.
Medical users focus on how closely the material mimics natural bone or tooth structure. Researchers want precise crystal forms for predictable results. For the average livestock operation, what matters most is performance in the feed trough, how easily it mixes with other micronutrients, and how it impacts animal health. This hands-on, outcome-first approach keeps calcium phosphate relevant across industries—something raw technical specs alone never guarantee.
Failures teach more than sunny outlooks. I have watched feed makers switch brands after a supplier’s material led to inconsistencies in animal weight gains. Pharmaceutical companies have halted releases, sending product back because of slight color changes giving away a purity problem. In all these cases, companies made changes not because of market pressure, but because they saw the cost of lost trust.
Industry-wide learning happens slowly. Every published recall, every industry conference that highlights a contamination scare, adds pressure to get it right the next time. After a string of quality incidents a decade ago, both large and small producers started assigning responsibility across teams and improving their record keeping. Risk managers started mapping out supply contingencies for “what if” moments, and not just in theory. That resilience sets a modern, more reliable supply and builds a bulwark against future problems.
Better technology will not solve every challenge with calcium phosphate, but it makes a difference. Inline monitoring and automated sampling let manufacturers catch issues earlier. Sharing best practices across competitors, once rare, is happening more as everyone faces the same market risks and regulatory hurdles. Incentivizing environmental responsibility gives compliant producers a hard-earned edge.
Education remains a powerful tool. The more nutritionists, farmers, and drugmakers know about what separates a high-grade mineral from a dubious one, the more likely they will press for higher standards. Outreach from independent labs, academic forums, and rural extension offices all contribute to this knowledge base. Training and consistent messaging beat out confusing jargon and old habits.
Sustainable phosphorus sourcing is now a focus for both funders and innovators. Investments flow toward projects that reclaim phosphorus from urban and agricultural waste. Governments and non-profits, looking at both food security and environmental health, need to promote circular solutions, cutting back reliance on extraction. Teams working at this intersection, leveraging public and private funding, can prove that profit and responsibility aren’t opposites.
Calcium phosphate has already earned a place in the fields, factories, and clinics that feed and heal the world. No other mineral excipient or fertilizer brings the same mix of benefits: digestibility, compatibility, safety, and support for new frontiers in medicine and agriculture. Its success doesn’t rest solely on its chemistry. It’s supported by a network built on transparency, committed improvement, and a willingness to learn from every success and setback.
Smart buyers, skilled producers, and a strong regulatory framework keep driving improvements in safety and effectiveness for everyone who relies on calcium phosphate, from the dairy farm to the pediatric ward. The story of calcium phosphate is not just about supply and demand, but about a human commitment to health, growth, and sustaining the land for future generations.