|
HS Code |
464508 |
| Generic Name | Tinidazole |
| Brand Names | Tindamax, Fasigyn |
| Drug Class | Nitroimidazole antimicrobial |
| Chemical Formula | C8H13N3O4S |
| Molecular Weight | 247.28 g/mol |
| Route Of Administration | Oral |
| Indications | Bacterial vaginosis, trichomoniasis, giardiasis, amebiasis |
| Mechanism Of Action | Disrupts DNA structure and inhibits nucleic acid synthesis in susceptible organisms |
| Half Life | 12–14 hours |
| Metabolism | Hepatic |
| Excretion | Urine, feces |
| Pregnancy Category | C |
| Atc Code | J01XD02 |
| Contraindications | Hypersensitivity to tinidazole, first trimester of pregnancy, breastfeeding |
| Common Side Effects | Nausea, metallic taste, headache, dizziness |
As an accredited Tinidazole factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Tinidazole packaging: White rectangular box containing 20 tablets (500 mg), labeled with drug name, dosage instructions, and manufacturer details. |
| Shipping | Tinidazole is shipped in tightly sealed, labeled containers, protected from light and moisture. It should be transported as non-hazardous cargo under standard conditions, avoiding extreme temperatures. Compliant with international and local transport regulations, shipping documents include safety data sheets and handling instructions to ensure safe and regulatory-compliant delivery. |
| Storage | Tinidazole should be stored at room temperature, typically between 20°C to 25°C (68°F to 77°F), away from excess heat, moisture, and direct light. It must be kept in a tightly closed container and out of reach of children and pets. Avoid storing in the bathroom or near the kitchen sink to prevent exposure to humidity and contaminants. |
|
Purity 99%: Tinidazole with 99% purity is used in pharmaceutical manufacturing, where it ensures high antimicrobial efficacy against anaerobic bacteria and protozoa. Molecular weight 247.27 g/mol: Tinidazole with a molecular weight of 247.27 g/mol is used in intravenous infusion formulations, where it provides predictable pharmacokinetics and dosage accuracy. Melting point 125-131°C: Tinidazole with a melting point of 125-131°C is used in solid oral dosage forms, where it guarantees stability during tablet formulation and storage. Particle size ≤ 20 microns: Tinidazole with a particle size of ≤ 20 microns is used in suspension preparations, where it enhances dissolution rate and bioavailability. Stability temperature up to 40°C: Tinidazole with stability up to 40°C is used in tropical climate packaging, where it maintains its chemical integrity and therapeutic potency during distribution. Solubility 0.5 mg/mL in water: Tinidazole with solubility of 0.5 mg/mL in water is used in liquid formulation development, where it achieves proper dispersion and ease of administration. Impurity content < 0.1%: Tinidazole with impurity content less than 0.1% is used in high-quality API production, where it reduces the risk of adverse reactions and ensures patient safety. Moisture content ≤ 0.5%: Tinidazole with moisture content of ≤ 0.5% is used in capsule filling applications, where it prevents degradation and prolongs product shelf-life. |
Competitive Tinidazole prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to sales3@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: sales3@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
Our daily work with tinidazole starts from a mindset of responsibility—each batch leaving our facility carries a promise of clarity, safety, and reliability. We do not pick up raw materials lightly, nor do we hand over finished tins haphazardly. Tinidazole represents decades of chemical experience focused on the unique profiles of nitroimidazole derivatives. Through rigorous checks and a straightforward approach to manufacturing, we ensure our tinidazole speaks for itself without compromise or embellishment.
Chemists recognize tinidazole by its ability to disrupt the DNA synthesis of certain protozoan and anaerobic bacteria, preventing growth at the source. Once you examine its structure—C8H13N3O4S—you find an efficient pairing of a nitro group with a thiazole ring that punches above its molecular weight. Over years of producing tinidazole, the tangible impacts on batch quality, impurity profile, and crystal shape have proven much more critical than abstract promises. The actual input and handling by the facility support results seen in clinics, not just on a technical spec sheet.
Our facility does not believe in manufacturing shortcuts. Each model of tinidazole that comes from our reactors, usually the crystalline solid suitable for both pharmaceutical and compounding use, must meet purity levels above 99%. Actual process conditions—including precise pH, temperature, and solvent selection—have an outsized impact on the resulting product. Small differences in synthesis route shift impurity levels, which downstream partners and physicians can spot in their own test benches. We prioritize batch-to-batch consistency rather than shifting grades or “premium” labels.
Particle size is not a cosmetic issue in our process—it affects blending in tableting, stability in suspensions, and overall patient experience when ingested. Through controlled milling and drying, we avoid producing dusty or lumpy batches. Staff adjust crystal habits by carefully controlling recrystallization rather than relying only on post-processing fixes.
Tinidazole has found its place in a range of dosage forms, notably in tablets for single-dose or short-course regimens, and in powders for reconstitution. Our direct partnerships with pharmaceutical formulators taught us that performance cannot depend solely on raw numbers. A poorly dried batch slumps during compression and fails to disperse evenly. That is one reason our team rejects output that clumps, cakes, or fails basic flow tests. We target moisture levels near 0.5% and routinely measure bulk density to ensure end products match the requirements for modern tablet presses and capsule fillers.
Laboratories and medical professionals have fed back real-world data over years, pushing our line managers to avoid even minor solvent residues and keep trace impurities—especially related substances and isomers—under control. We recall a project, years ago, preparing a tinidazole-lactose blend for an oral suspension. Repeated returns of “stale” odor from just a handful of clients led us to revisit drying protocols and tighten storage conditions independently of regulatory changes.
Pharmacists often ask how tinidazole differs from metronidazole, both in synthesis and therapeutic value. In the reactor, tinidazole’s additional titration and more robust oxidation steps introduce unique impurities that affect shelf life and stability. In practice, tinidazole’s longer half-life and slightly milder taste compared to metronidazole shift choices for oral therapies—especially where patient compliance matters. These differences extend to pharmacokinetic indices, where single-dose treatments offer fewer interruptions in therapy.
On the technical floor, our staff must keep a close eye on temperature ramp rates during the cyclization step. Over-rapid heating encourages formation of related impurities that do not appear in metronidazole. We work with in-house and third-party laboratories to hit limits for related substances, not just overall purity. This goes beyond minimum standards: for pediatric formulations, taste and odor profile—often dismissed as cosmetic—affect actual adherence in community settings, an insight often left out by remote spec-writers.
Our earliest days saw a series of headaches from wood-pulp derived solvents that left stubborn off-aromas. We have shifted to greener and purer solvent grades, trading some speed in filtration for better finished product profile. Team members contribute observations from the floor on particle behavior, sometimes noticing shifts in compressibility that chemical theory alone could not predict. These details have shaped our investment—all reactors, scrubbers, and drying lines installed in recent years focus on full control of critical process variables, aimed at outcomes our technical team and clients alike can measure.
Safety during synthesis has shaped our training: earlier reliance on off-the-shelf nitro compounds posed hazards during reduction steps. Today, automation and inline monitoring allow us to avoid over-exposure and handle hazardous intermediates with reduced contact. These practical improvements have real effects—not only do we see fewer batch deviations, we also reduce lost time incidents and maintain a more consistent production rhythm.
Traceability is a daily habit, built into each weigh-in and label in our chain. Every drum of tinidazole can point straight back to its reactor log, its lot-specific environmental readings, and full QC check records. Our operators calibrate weighing and pH adjustment equipment weekly—not because a regulation said so, but to avoid the long learning curve of lost batches. When audits come, our staff show original records and live process monitors rather than reproducing “dummy” compliance checklists.
Over recent years, regulatory requirements have climbed, and we have responded by adding more in-process controls—sampling at intermediate stages, not just at the end. This allows for corrections at the earliest hint of trouble rather than writing off entire lots. Our approach does not just satisfy paper demands; it prevents avoidable financial losses and avoids chasing minor issues through the market.
One of the most impactful experiences in our history came from direct complaints by clinicians about inconsistent dissolution rates in early batches. Even though lab values fit the books, reality on the ground said otherwise. We retraced our process, found a fine-point flaw in how we dried crystals, and rebuilt that part of the line. Field experience and customer returns, rather than just technical data, have pushed us further than any broad announcement or “commitment to quality” could.
We do not wait for problems to go viral or for massive recalls. Small scale customer pilots, careful monitoring of complaint logs, and seasonal check-ins with key partners help us head off emerging issues before they scale. Each point of friction—be it a sticking tableting die or a powder that clogs hoses—pushes us to question the previous baseline and deliver changes that count to those using the product daily.
Producing tinidazole at scale generates hazardous waste—chiefly spent solvents and certain sulfur-containing intermediates. Direct handling of these wastes matters to our community and neighbors. All effluent streams are captured and treated to cut nitro compound residues to required levels before release. Plant staff operate scrubbers and carbon beds, check daily loading readings, and track outflows in real time. These steps prevent environmental headaches and further curb costly downtime from sewer or air violations.
We do not see environmental compliance as abstract “goodwill.” Some of our early production floors paid dearly for improper venting, with neighboring plants reporting persistent odors. Through trial, not generic environmental statements, we deploy processes that tackle both air and liquid waste on the day’s run—not leaving this for regulators to reveal after the fact.
The chemical manufacturing world does not freeze in place. Ongoing investments in analytics—such as in-line NIR and more frequent HPLC batch checks—push us to cut rework rates and improve initial yields. Several teams have piloted greener oxidation systems, aiming to use less aggressive oxygen sources at milder temperatures. The practical aim is to pare down energy consumption, keep impurity levels low, and maintain crystal form within tight bounds for each order.
Recent projects focus on real-world issues—improving moisture protection during storage, better sealing of powders, and ruggedizing the packaging for long-haul exports. Each lesson comes back from users, not from trending articles. For example, field shipments to high-humidity regions showed a spike in caking; teams had to test and select improved inner bags and adjust warehouse controls to stabilize stocks.
In practice, our customers and the patients they serve spend less time on certificates and more time handling the end formulations. Because tinidazole often fills urgent gaps in community health—prophylaxis for certain infections, rapid treatment of protozoan outbreaks—reliable supply, correct particle size, and stable chemical profile all matter for patient outcomes. Through hands-on familiarity with both the technical process and the tangible downstream effects, we keep formulations predictable, reduce risk of supply interruption, and support better adherence.
We know firsthand that small mistakes in production create ripples—batches that do not blend, taste off, or break down at the wrong rate can turn a trusted medicine into a headache for care teams. Our operators, drivers, and analysts learn this through every batch, so each step in our line is measured, tracked, and reviewed for missteps both big and small.
From year-long projects to urgent orders, we keep seeing tinidazole’s real-world impact on public health, travel medicine, and community infectious disease management. This relevance drives the improvements, investments, and focus found on our plant floors. Each lot produced, each spec checked, carries the expectation of real impact. Because we manufacture, not just resell, our daily engagement stays grounded. Tinidazole production is more than a routine—each drum handed off represents a commitment not just to technical excellence but to the end users who depend on us, one course of treatment at a time.