|
HS Code |
362222 |
| Chemical Name | Tripotassium Citrate Monohydrate |
| Formula | K3C6H5O7·H2O |
| Molecular Weight | 324.41 g/mol |
| Appearance | White crystalline powder |
| Solubility In Water | Very soluble |
| Melting Point | Approximately 180°C (decomposes) |
| Odor | Odorless |
| Taste | Saline, cooling |
| Ph Of 1 Solution | Around 8-9 |
| Storage Conditions | Keep in tightly closed container; store in a cool, dry place |
| Cas Number | 6100-05-6 |
| Ec Number | 208-750-2 |
As an accredited Tripotassium Citrate Monohydrate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White, food-grade plastic bag labeled "Tripotassium Citrate Monohydrate"; net weight 25 kg; tightly sealed with product details and safety information. |
| Container Loading (20′ FCL) | A 20′ FCL container can typically load about 23 metric tons of Tripotassium Citrate Monohydrate, packed in 25 kg bags. |
| Shipping | Tripotassium Citrate Monohydrate is shipped in tightly sealed, moisture-resistant containers such as fiber drums, plastic drums, or bags, each clearly labeled. It should be stored in a cool, dry, and well-ventilated area, away from incompatible materials. Ensure protected transit, handling with care to prevent contamination and ensure product integrity. |
| Storage | Tripotassium Citrate Monohydrate should be stored in a tightly closed container, in a cool, dry, and well-ventilated area. Protect it from moisture, heat, and direct sunlight. Keep away from incompatible substances such as strong acids and oxidizers. Proper labeling and secure placement help prevent contamination and accidental exposure. Follow all relevant safety regulations for storage. |
| Shelf Life | Tripotassium Citrate Monohydrate typically has a shelf life of 2-3 years when stored in cool, dry, and well-sealed conditions. |
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Purity 99%: Tripotassium Citrate Monohydrate with purity 99% is used in pharmaceutical formulations, where it ensures consistent potency and therapeutic efficacy. Particle size ≤ 100 µm: Tripotassium Citrate Monohydrate with particle size ≤ 100 µm is used in effervescent tablets, where it promotes rapid dissolution and homogeneous mixing. Stable at 25°C: Tripotassium Citrate Monohydrate stable at 25°C is used in food processing, where it guarantees shelf-life stability and maintains product quality during storage. Moisture content ≤ 5%: Tripotassium Citrate Monohydrate with moisture content ≤ 5% is used in beverage manufacturing, where it prevents clumping and ensures smooth blending. Heavy metals ≤ 10 ppm: Tripotassium Citrate Monohydrate with heavy metals ≤ 10 ppm is used in dialysis solutions, where it provides high safety and minimizes toxicological risks. Molecular weight 324.41 g/mol: Tripotassium Citrate Monohydrate with molecular weight 324.41 g/mol is used in laboratory reagent preparations, where it provides precise stoichiometric calculations. Melting point > 180°C: Tripotassium Citrate Monohydrate with melting point > 180°C is used in baking powder formulations, where it enhances heat stability and maintains leavening performance. pH (1% solution) 8.5–9.5: Tripotassium Citrate Monohydrate with a pH of 8.5–9.5 in a 1% solution is used in dairy product processing, where it buffers acidity and preserves taste profile. Solubility in water 200 g/L: Tripotassium Citrate Monohydrate with solubility in water 200 g/L is used in liquid nutritional supplements, where it supports high-concentration formulations and clear solutions. |
Competitive Tripotassium Citrate Monohydrate prices that fit your budget—flexible terms and customized quotes for every order.
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Manufacturing chemicals means paying close attention to the details that make a difference in real use—not just on paper. Tripotassium citrate monohydrate stands as a clear example. From the mixing tank to the final package, every step shapes the finished product. Our team has spent years working out how raw potassium carbonate and citric acid behave under different temperatures, how batch quality fluctuates with water content, and how the drying process affects the texture of the final powder. Over time, we have adjusted production—sometimes in ways that feel minor, such as a slower feed rate or a different stirring sequence—and seen major shifts in solubility and flow. These lessons come from hundreds of production cycles, observation, and feedback from customers who use the product in high-stress situations, not just in routine lab tests.
Many people come looking for potassium as a supplement, a buffering salt, or as an ingredient for water treatment—each user looks for something specific. Our tripotassium citrate monohydrate gives a clean, virtually dust-free powder with consistent color and particle size, important when automated dosing and precise measurement matter. We use a batch process designed to minimize the caking tendency that can sometimes throw off feeding in automated dosing equipment. This attention comes from watching customers struggle with bridging and blockages in silos, then iterating the drying cycle and cooling system. Competing products sold as “tripotassium citrate” sometimes land on the loading dock as grainy, clumpy, or slightly yellow—outcomes that may seem trivial but waste time on screening or regrinding. We focus on avoiding those headaches.
The “monohydrate” in the name isn’t a technicality. Even a subtle shift in water content changes the product’s feel and its chemistry in certain recipes. Our staff tracks the water percentage in every outgoing lot because someone downstream will depend on that accuracy—bakers boost their potassium levels without changing dough texture, dialysis clinics rely on the balance in each batch, sports drinks blend their minerals for taste and clarity. Our product’s water of hydration helps control solubility and gives better control in formulas. We have seen users try anhydrous grades, only to end up with powders that clump quickly due to static or draw in too much moisture after a bit of exposure to air.
Through years of fulfilling diverse specifications, we’ve gotten used to questions from laboratory staff and engineers who don’t want surprises in their process. Our main production line yields a powder with a potassium content typically around 36%, and total citric acid calculated as about 75%, with a pH in solution falling in a consistent, slightly alkaline range. These numbers matter for anyone doing controlled formulations or process validation. People sometimes ask if we can make a “higher purity” version. The truth is, the chemistry limits what can be pushed—raising potassium content farther shrinks the shelf life or yields a product with too little flowability for bulk handling systems. On the other hand, running the reaction too cold or too fast lets through more unreacted acid, which changes the pH and can disrupt blending in sensitive blends, including personal care or food mixes.
The monohydrate’s particle size fits most industrial needs. Granular forms can be produced by adjusting the crystallizer, but with drawbacks: larger particles dissolve slower and may not work for quick-release drink mixes or pharmaceutical tablets. Some customers try to substitute tripotassium citrate with trisodium citrate, expecting similar effect, but the resulting sodium load creates issues for people monitoring dietary sodium, and the pH buffer shifts, sometimes enough to change the shelf life of food products or the effect in lab applications. Blending potassium citrate with other forms—such as the dihydrate—brings its own headaches, mostly around inconsistent solubility and visible speckling in some food blends. Over time, our monohydrate version earned a preference among buyers who value not just purity, but stability and repeatable texture batch to batch.
Each production cycle starts with clean raw materials, thoroughly checked for heavy metals and odd flavors. Some suppliers cut corners, hoping to catch up with blending and filtering later. We learned early that skipping proper sieving and initial test dissolutions means problems show up farther down the line—like off-odors or gritty particles. Our citrate line-up uses a closed reaction vessel to prevent environmental contamination and product loss. Team members track temperature and stirring rates in real time, knowing that a few degrees too warm or cool changes the crystal structure.
In the final stages, drying and grinding become the focus. Drying slowly under vacuum instead of blasting hot air through the product keeps the hydration at a more reliable level. Rushing this process often leaves excess free moisture or creates hot spots that start to caramelize traces of organic content, leading to a slightly tan or off-color product. Granulation is monitored for consistency—not to make pretty pictures or to market a “unique granule,” but because equipment downstream depends on it: poor flow costs end users significant downtime.
Packing is more than just an afterthought. Cases where a powder looks fine at the plant but picks up moisture or absorbs off-odors from cardboard or wood pallets during shipping have taught us to use lined poly drums, sealed at controlled humidity levels. We test for caking and dusting after storing samples for weeks under varying warehouse conditions. Regular user feedback drives further tweaks—bakers complain if even a tiny shift in water content throws off dough texture, and pharmaceutical formulators want a neutral taste profile batch after batch.
Analytical testing in our facility goes beyond just certificate-of-analysis numbers. We look for both chemical purity and signs of cross-contamination, especially because neighboring production lines in multi-use plants can introduce impurities not caught by routine checks. Staff run titration and chromatography to catch unexpected ions. Sometimes a batch fails for reasons that surprise even seasoned workers, such as trace leaching from hoses or mixers left idle between runs. Good manufacturing practice means catching these at source, not explaining away results after customer complaints.
We run solubility tests beyond the lab using both hard and soft water, knowing that municipal water chemistries vary from user to user. Our experience with large-volume beverage companies showed that inconsistent dissolution, visible haze, or “floaters” lead to more returns than flavor or packaging problems. Each lot faces a dissolution test in both cold and warm water, at different agitation speeds, to mimic conditions in real-life production settings—from giant kettles to tabletop mixers. Sometimes removing a single blending step or holding time can save hundreds of man-hours for a client, a detail that doesn’t always show up in chemical sales brochures.
Odor and taste checks also matter. Especially in food and beverage production, even slight organic contaminants create bitter or metallic off-notes. Over the years, we have caught problems by having a dedicated panel test product taste and aroma, in addition to lab instruments. One lot that passed all purity standards once came back from a customer because of a faint “musty” aftertaste—eventually traced back to a change in the supplier for a filter used mid-process. These stories make up the ground-level knowledge that keeps us vigilant in every batch we send out.
Tripotassium citrate monohydrate finds steady use across food, pharmaceutical, and industrial sectors, not by coincidence but by working through customer challenges and product trials. In the food sector, processors use it to manage pH and add potassium without bumping up sodium content—especially in low-sodium cheeses, processed meats, and ready-mix bakery recipes. We noticed that texture and shelf life respond better with the monohydrate compared to anhydrous or dihydrate forms, leading to more predictable final products with less off-taste risk.
In beverages, it serves not just as a source of potassium but as a reliable buffering agent, balancing tart flavors from citric acid and keeping taste mild even with fortification. We have worked with drink producers who found differences in haze and shelf stability depending on the consistency of the potassium citrate used. In some sports drinks, minor changes in hydration level alter the settling of particles—issues we observed first in customer complaints before fine-tuning our finishing process. Every lot produced gets checked for solubility and taste in both distilled and tap water, as real-world conditions bring out flaws faster than tightly controlled lab batches.
For pharmaceutical and nutraceutical products, consistent particle size and hydration become make-or-break factors in tablet pressing or capsule filling. Powders with poor flow slow down packing lines or lead to uneven dosing, forcing recalls or rework. Through feedback and tracking which lots created problems for customers, we found an optimal compromise between dryness and particle cohesion that passes both content uniformity and dissolution tests, reducing customer headaches and keeping their lines running longer between cleanouts.
Industrial customers—such as water softener manufacturers and laboratories relying on buffer solutions—have demanded reliable pH control and easy storage. The monohydrate keeps long-term stability without prematurely caking or absorbing ambient moisture. A key lesson from the field comes from users reporting trouble with older drums: we now seal every drum under nitrogen and spot-check every batch for caking in sample storage before shipping out larger lots.
Many buyers ask for “any” potassium citrate, expecting that all forms work equally. Reality sets in quickly. Anhydrous potassium citrate has appeal thanks to its higher active content per gram, but the trade-off involves shelf life and flow problems—clumping appears faster in humid conditions, and handling fine powders can create inhalation risks or cleanup headaches on the production floor.
Dihydrate grades are even rarer and tend to absorb more atmospheric moisture, especially in open storage or high-humidity areas. Over time, we found monohydrate remains the only practical compromise: enough water content to stabilize the powder, not enough to risk rapid clumping or spoilage. Customer tests back this up—the more “hydrated” versions cost more to ship and store, given their bulk and moisture, without clear benefit over the monohydrate's performance.
Some opt for sodium citrate, drawn by cost or easier sourcing. For those in dialysis, cardiovascular health, or low-sodium diets, that switch carries real health risks. Our medical clients highlighted regular sodium loads as a significant concern. Formulations that work at bench scale sometimes fall short in scaled-up real-world use due to pH drift, delayed solubility, or negative taste impact—leading formulators back to tripotassium citrate monohydrate for its reliability.
From a handling perspective, the consistent fine-to-medium particle size in our monohydrate reduces dust and settles quickly in mixing tanks. Experience tells us that for most bulk handlers, a powder that doesn’t puff up into the air, settle in corners, or clump irreversibly after a week of exposure saves more time and money than abstract purity increases.
With each year, we review how finished product leaves the facility and enters real-world processes. Partnering with both small-scale operators and global brands, we track where mishaps occur—not only in our own production but in the hands of users who may handle powders less gently or who store open drums in humid or hot warehouses. Every time a customer comes back with a clogging issue, or a strange taste appears in a new food blend, we pull samples and check upstream steps. The process sometimes feels slow, but these checks foster trust with customers who have built their brands on consistency.
Many of these lessons don’t appear in the textbooks or chemical references. They grow out of troubleshooting one-off problems: seeing caked product in old inventory, or poor flow in winter, or off-flavors after a truck ride in summer heat. These real-world details make up the difference between a nice specification sheet and a product that delivers for end users job after job, batch after batch.
Feedback from customers keeps our processes moving forward. Improvements often come from solving small but meaningful headaches: changing a valve or switching a filter, retraining an operator, or rethinking packaging materials. The user who runs the packing line or stirs up a drink mix catches flaws quickly, and that input loops back to us to improve the next run. This partnership means the tripotassium citrate monohydrate we produce now works for real-world production—reliable quality without fuss, flexible enough for complex blends and tough enough to ship worldwide.
Years spent at the intersection of production floor, lab, and customer facility taught us there are no shortcuts. Before anything leaves our gates, each lot gets checked with both chemical testing and practical use. Tripotassium citrate monohydrate, which has grown in demand from food fortification to technical buffer applications, depends on tight control, not just precision in the formula but also close monitoring of every stage of the process.
Dealing with end users—not just distributors—brings the benefit of firsthand feedback. Issues with drum lining, storage heat, or a new application method get identified quickly. The hands-on approach—call it care, call it attention to detail—keeps us close to what customers actually value: predictable results and fewer surprises.