| Names | |
|---|---|
| Preferred IUPAC name | (2S,5R,6R)-6-[(2R)-2-Amino-2-(4-hydroxyphenyl)acetamido]-3,3-dimethyl-7-oxo-4-thia-1-azabicyclo[3.2.0]heptane-2-carboxylic acid; potassium (2R,3Z,5R)-3-(2-hydroxyethylidene)-7-oxo-4-oxa-1-azabicyclo[3.2.0]heptane-2-carboxylate |
| Other names | Augmentin Co-amoxiclav Amoclan Clavulin Curam Augmentin ES Augmentin XR |
| Pronunciation | /əˌmɒk.sɪˈsɪl.ɪn ənd klæv.juˈlæ.neɪt pəˈtæsi.əm/ |
| Identifiers | |
| CAS Number | 61177-45-5 |
| Beilstein Reference | 3932855 |
| ChEBI | CHEBI:73264 |
| ChEMBL | CHEMBL1201208 |
| ChemSpider | 2157 |
| DrugBank | DB01060 |
| ECHA InfoCard | 53a7da35-c111-4f57-bdbe-68c16633eebb |
| EC Number | 51346 |
| Gmelin Reference | Amoxicillin and Clavulanate Potassium: Gmelin Reference 84153 |
| KEGG | drugs:DB01060+DB00766 |
| MeSH | D013378 |
| PubChem CID | 62893 |
| RTECS number | QD9625000 |
| UNII | CN9VA4ZOQ9 |
| UN number | UN3249 |
| CompTox Dashboard (EPA) | DTXSID2020575 |
| Properties | |
| Chemical formula | C16H19N3O5S + C8H8KNO5 |
| Molar mass | 949.1 g/mol |
| Appearance | White to off-white powder |
| Odor | Odorless |
| Density | 1.610 g/cm³ |
| Solubility in water | Freely soluble in water |
| log P | -2.0 |
| Vapor pressure | Negligible |
| Acidity (pKa) | pKa = 2.7 (Amoxicillin), pKa = 2.7 (Clavulanate) |
| Basicity (pKb) | 8.2 |
| Magnetic susceptibility (χ) | Diamagnetic |
| Dipole moment | 1.3757 D |
| Pharmacology | |
| ATC code | J01CR02 |
| Hazards | |
| Main hazards | May cause allergic reactions; may cause skin, eye, and respiratory irritation. |
| GHS labelling | GHS07, GHS08 |
| Pictograms | 💊⚠️🧑⚕️❌🤰🚫🍷 |
| Signal word | No signal word |
| Hazard statements | May cause an allergic skin reaction. May cause allergy or asthma symptoms or breathing difficulties if inhaled. |
| Precautionary statements | Keep out of reach of children. If swallowed, get medical help or contact a Poison Control Center right away. |
| Lethal dose or concentration | LD50 (oral, rat): >2,000 mg/kg |
| LD50 (median dose) | LD50 (oral, rat): >2000 mg/kg |
| NIOSH | 8035 |
| REL (Recommended) | 875/125 mg every 12 hours |
| IDLH (Immediate danger) | Not established |
| Related compounds | |
| Related compounds | Amoxicillin Clavulanic acid Ampicillin Penicillin Ticarcillin and Clavulanate Potassium Piperacillin and Tazobactam Cefuroxime Cefdinir |
| Product Name | IUPAC Name | Chemical Formula | Synonyms & Trade Names | CAS Number | HS Code & Customs Classification |
|---|---|---|---|---|---|
| Amoxicillin | (2S,5R,6R)-6-[(2R)-2-Amino-2-(4-hydroxyphenyl)acetamido]-3,3-dimethyl-7-oxo-4-thia-1-azabicyclo[3.2.0]heptane-2-carboxylic acid | C16H19N3O5S | Amoxycillin; Amoxil; Trimox | 26787-78-0 | 2941.10.00 (Antibiotics; Penicillins and derivatives with a penicillanic acid structure) |
| Clavulanate Potassium | Potassium (Z)-(2R,5R)-3-(2-hydroxyethylidene)-7-oxo-4-oxa-1-azabicyclo[3.2.0]heptane-2-carboxylate | C8H8KNO5 | Potassium clavulanate; Clavulanic acid potassium salt | 61177-45-5 | 2941.90.00 (Other antibiotics) |
Industrial identification of Amoxicillin and Clavulanate Potassium always starts from the molecular level. Across manufacturing, process chemists need a clear IUPAC name and a distinct CAS number for raw material intake and batch tracking. Typical nomenclature overlap between trade names, generic names, and synonyms often causes confusion during regulatory audits. For controlled substances like antibiotics, the customs code determines documentation and shipment eligibility across multiple jurisdictions; the HS Code segment drives customs brokerage, material release, and trade reporting obligations.
Each property listed in the database aligns directly with pharmaceutical grade production. In practice, the Amoxicillin sodium salt and Amoxicillin trihydrate grades see tailored specifications by region or end-user. The clavulanate portion, supplied as the potassium salt, exhibits grade-specific limits for residual solvents or inorganic contaminants per customer registration file. Downstream processors (formulators, sterile manufacturers) require CID data for both API and intermediates to confirm batch eligibility or compatibility with on-site quality systems.
During scale-up, manufacturers rely on HS Code assignment not only for logistics but for tariff qualification, traceability audits, and on-site customs reviews. An incorrect CAS or HS Code can halt a lot at the border, delay release, or lead to batch relabeling. Mislabeling happens most frequently in pre-shipment and documentation batching; prevention rests on aligning every shipment with master data in the ERP—verified by quality and regulatory personnel before packaging.
In every commercial batch, confirming identity against the product’s listed IUPAC and CAS number forms the basis of finished product release. Specification sheets draw directly from this database; key identifiers are cross-checked by QA/QC during incoming raw material approval and prior to shipment. For multi-step syntheses, revalidation of HS Code and product identity is mandatory for every new manufacturing route. No process changes move forward without harmonizing product codes and CAS assignment with global compliance summary files.
In production, amoxicillin and clavulanate potassium are handled as separate entities prior to blending. Amoxicillin trihydrate appears as a crystalline powder, typically off-white to pale yellow, sometimes slightly granular depending on crystallization controls. Clavulanate potassium presents as a white to yellowish, amorphous or fine crystalline powder, but it can discolor under suboptimal storage or due to trace impurities. Both are odorless or feature only faint pharmaceutical odor.
Melting points span ranges and vary based on crystalline form and water content. Process grade controls influence both bulk density and powder flow, both of which are critical for granulation and downstream tablet or suspension production. Due to the moisture sensitivity of clavulanate potassium, monitoring of ambient humidity becomes important during handling.
The beta-lactam ring of amoxicillin is sensitive to acid hydrolysis and certain oxidizing conditions. Clavulanate potassium, known for instability in both acidic and alkaline media, requires careful process pH control, inert gas protection during drying and packaging, and avoidance of heat and direct light. Stability profiles depend strongly on storage and process atmosphere, especially residual moisture and oxygen content in final packing.
Solubility in water and common pharmaceutical solvents varies by salt form and physical state. Typical manufacturing practice involves solution phase blending under controlled pH to maximize dissolution and minimize degradation, using freshly purified water to prevent metal ion-induced instability. Formulators select solubility modifiers based on end-use, with solution concentration and order-of-addition impacting both yield and purity.
Specifications align with compendial standards (such as USP, EP, or BP) for both active pharmaceutical ingredients and finished formulation intermediates. Details like assay content, loss on drying, residual solvents, and bulk density require grade-specific control. Finished blend specification tables depend on target application and can be adjusted to customer request, always falling within regulatory guidelines.
Key impurities originate from side-products in synthesis, degradation during process, and raw material trace contaminants. Major manufacturer control points include 6-aminopenicillanic acid impurities in amoxicillin and epimerization or degradation compounds in clavulanate potassium. Limits are tied to pharmacopoeial specifications and adjusted for intended market or customer file. Each batch undergoes impurity quantification using validated chromatographic methods.
Laboratory control relies on validated HPLC for assay and impurities, potentiometric titration for content, and specific optical rotation as a check on stereochemistry. Identity confirmation uses IR, UV, and in certain contexts, NMR, depending on regulatory submissions and customer need. Method selection meets current regulatory and customer submission file requirements.
Sourcing prioritizes graded, validated intermediates for both penicillin-based starting materials and clavulanic acid or derivatives, with full traceability and impurity background known. Supplier selection weighs standardization in supply, impurity burden, and regional regulatory requirements.
Amoxicillin production derives from semi-synthetic amination of 6-aminopenicillanic acid using side-chain precursors under aqueous conditions, requiring strict pH and temperature control to preserve beta-lactam structure. Clavulanate potassium synthesis entails fermentation, extraction, and potassium salt formation in aqueous or mixed solvent, where oxidative purity and temperature profiles are monitored closely. Route selection depends on process license agreement, regional supply chain, and expected impurity rejection rate.
Critical points include control of pH during synthesis, removal of trace metals, and managing water content to limit hydrolytic degradation. Downstream purification involves recrystallization and polymorph management for amoxicillin and lyophilization or spray drying for clavulanate potassium. Product blending employs controlled humidity rooms with HEPA filtration, and in-line monitoring detects both potency and by-product formation.
Batch release criteria depend on composite sample assays, impurity evaluation versus pharmacopeial and customer-agreed limits, microbial load, and physical performance data such as flow and compressibility. Documentation trails and electronic batch records guarantee traceability to raw material origin, process campaign, and laboratory release. Release thresholds reflect both internal company standards and regional regulatory submission file.
Amoxicillin is prone to hydrolysis in acidic, basic, or aqueous conditions and undergoes nucleophilic opening of the beta-lactam ring. Clavulanate potassium acts as a beta-lactamase inhibitor and can be degraded by non-enzymatic chemical hydrolysis. Both require manufacturing design that limits contact with extraneous nucleophiles or electrophiles during processing.
Process temperature, catalyst choice for amoxicillin side-chain introduction, and solvent for clavulanate extraction are subject to current GMP and customer process registration. Temperature excursions or pH drift destabilize the active moieties, resulting in impurity spikes that must be managed through in-process monitoring.
Both actives serve as core for further derivatization in formulation, such as salt-form switching, wet granulation, or suspension preparation. Covalent modifications are rarely performed in active ingredient manufacturing, since regulatory approvals cover only specified forms. Final product dictates downstream chemical stability demands and packaging method selection.
Low temperature and controlled humidity reduce hydrolytic and oxidative degradation, especially for clavulanate salt. Avoidance of direct light and minimizing headspace oxygen exposure are routine for sensitive batches. Storage conditions differ for bulk API versus compounded mixture. Customer-specific requirements may drive cold-chain logistics or nitrogen-blanketed containers.
Material choice for packaging follows interaction studies; pharmaceutical-grade polyethylene and glass containers predominate for long-term storage. Seal type and desiccant package are defined by both company stability data and customer submission agreements.
Shelf life of API blend correlates directly to process purity and real-time stability test results. Degradation often presents as discoloration, loss of potency, or increased impurities. Detailed expiry dating is set based on batch stability trials and ongoing monitoring per region.
Classification follows the latest hazard communication regulations applicable to beta-lactam antibiotics and beta-lactamase inhibitors. Multiple authorities may regulate labeling for acute toxicity, respiratory sensitization, and environmental concerns.
Exposure to amoxicillin or clavulanate potassium powders carries risk of allergic or anaphylactic response in sensitized individuals. Direct skin, respiratory, or ocular contact is avoided by process enclosure, personal protective equipment, and industrial hygiene monitoring throughout manufacturing.
Toxicological profile is defined in drug master files and supported by published pharmacology. Batch handling training stresses avoidance of exposure for staff with known penicillin allergy due to risk of hypersensitivity. Acute toxicity limits are established by company health and safety policies following regulatory dossiers for each market.
Cleanroom and controlled environment production provide engineering controls to limit dust generation. Airborne particulate levels are monitored based on internal industrial hygiene data. Facilities operate under established handling instructions set by company occupational health policies.
Amoxicillin and Clavulanate Potassium manufacturing relies on route selection, intermediate availability, and reactor turnaround efficiency. Production output flexes seasonally as upstream fermentation yields and key intermediate sourcing shift. For regulatory-audited grades, batch release timing depends on full panel QA and clearance of compliance documentation. Commodity and formulated grades with less strict audit or silo release paths offer shorter lead times but may limit customer-specific optioning.
Typical lead times for standard pharma grades reflect both current plant load and upstream intermediate procurement. Lead times extend noticeably during peak booking cycles, especially when regulatory or custom-certified batch documentation is required. Minimum order quantity is tightly linked to plant campaign batch size, secondary downstream processing throughput, and whether production is part of a multi-customer or dedicated run. MOQ for technical, compendial, or custom grades is driven by specific customer requirements and may be adjusted to match validated release batch volumes.
Bulk powder, vacuum-sealed foil, and drum packaging remain primary choices for industrial shipment. Sterile or smaller unit packs are produced only upon negotiated customer protocol, with packing configuration handled on segregated lines to prevent cross-contamination. Choice of liner material and outer drum depends on both product sensitivity and logistics compliance; non-standard options require pre-run validation.
Incoterms vary depending on contract: ex-works, FOB, and CIF arrangements all common for export. Controlled product movement across borders, especially for regulated pharmacological grades, extends document preparation timelines; final shipping schedule often depends on harmonized import/export certifications. Payment typically follows established milestones, such as pre-run deposit or LC, particularly for customers requiring extended delivery windows or custom grade verification.
Fermentation-derived 6-APA costs and chemical synthesis efficiency set the baseline for Amoxicillin cost. Clavulanate production, using both fermentation and multi-stage synthetic coupling, often accounts for cost volatility, especially when route yields or regulatory changes restrict access to certain intermediates. Upstream solvent and reagent variability, microbial strain performance, and waste treatment considerations further tilt overall cost structure.
Key drivers of price variability include swings in global supply of 6-APA, regulatory curbs on precursor imports, and local environmental restriction affecting fermentation plants. Price spikes typically trace to force majeure at large-scale intermediate producers or shifts in regulatory audit frequency, creating narrow sourcing channels and amplifying raw material cost.
Grade, purity, and certification level dominate price brackets. API-grade product cleared for regulatory markets commands price premium, since QA, impurity controls, and full traceability support are built into cost. Technical grades for non-human use or laboratory applications follow a separate pricing logic, where fewer documentation requirements and less stringent purification drive cost down. Packaging customization and validated aseptic pack forms increase cost per unit, reflecting lower throughputs, added QA, and higher compliance documentation overhead.
China and India supply the majority of global Amoxicillin and Clavulanate API for finished dose production, dominating the value chain for both key intermediates and finished blends. US and EU import dependency has grown as domestic synthesis capacity remains constrained by stricter environmental and regulatory hurdles. Japan maintains smaller, high-compliance multi-purpose plants for local market needs, focusing on highest-purity output. Supply-demand dynamics shift rapidly with export restrictions, anti-dumping investigations, or upstream force majeure.
| Region | Main Influences |
|---|---|
| US | High compliance cost, reliant on imports, stringent QA needs, price sensitive to FDA import alerts. |
| EU | Regulatory audits, GMP-centric sourcing, occasional local campaign-based production; high demand for full documentation and certified impurity profile. |
| JP | Small-volume, highest purity; price premium due to stringent QMS; flexible but higher cost. |
| IN | Large-scale, cost-driven, price leader in generics; occasional supply constraints from API intermediate fluctuations. |
| CN | Largest manufacturing base, full value chain integration; export controls possible, environmental audit periodicity affects plant utilization and export timing. |
Increased environmental audits and periodic plant shutdowns in Asia project to tighten supply, supporting a continued upward price drift for regulatory-cleared grades through 2026. Market fragmentation among smaller producers likely increases price volatility for technical grades. Expansion or contraction of anti-dumping measures in US/EU, alongside global health policy, remains the chief variable dictating final spot price in consuming regions.
Price and capacity observations reflect multi-year internal supply contract data, third-party industry ticketing, and sector intelligence from procurement benchmarking within the manufacturer network. Forward guidance grounded in observable regulatory initiative cycles, known capacity expansion or rationalization projects, and direct engagement with upstream key intermediate suppliers.
Recent years saw several large fermentation plant shutdowns for mandatory environmental upgrades in eastern Asia, resulting in periods of export constraint and temporary price escalation. Continued consolidation of intermediate producers has shrunk available spot market pools, increasing reliance on long-term offtake agreements among tier-one buyers.
Stringency in impurity and cross-contamination controls has increased, pushing mandatory method revisions for API manufacturers in both China and India. Requirements for complete audit trails, expansion of residual solvent testing, and harmonization of global DMF registration now standard for regulatory-grade output. New import documentation protocols have stretched lead time for first-time batch customers in US/EU, requiring earlier engagement for custom or differentiated grades.
Ongoing investments address capacity bottlenecks through additional reactor installation, in-process impurity capture systems, and expansion of vertically integrated synthesis lines. To ensure continuity, forward contracting and closer joint planning with intermediate and solvent suppliers are now integrated with plant campaign scheduling. Quality control departments have doubled down on multi-point sampling and in-process analytical surveillance to safeguard batch release against impurity spikes or batch deviation, especially for export pharma-grade batches.
From a manufacturer’s standpoint, amoxicillin and clavulanate potassium serve distinct customer groups: finished dosage form producers, contract manufacturers, compounding facilities, and R&D institutes. In each case, the required grade and specification reflect how the product moves through downstream processes. Pharmacopeial pharmaceutical grades support the production of oral tablets, suspensions, and injectables. Certain grades also target veterinary premixes and animal health formulations, where differences in purity and physical form take on greater role due to regional veterinary regulations. Academic and industrial researchers sometimes request laboratory evaluation lots with modified impurity or stability profiles for formulation design or methods development.
| Industry Application | Grade | Comment |
|---|---|---|
| Human Pharmaceuticals (Solid Oral Formulations) | Ph. Eur., USP, BP Grades | Release based on relevant pharmacopeial monograph; particle size, flowability, impurity profile depend on downstream process. |
| Human Pharmaceuticals (Injectable Formulations) | USP Injectable / Sterile Grades | Process includes terminal sterilization; stricter controls on endotoxins, bioburden, residual solvents. |
| Veterinary Products | Veterinary-Specific API Grade | Regional requirements may allow broader impurity limits or alternate test methods. |
| Research & Development | Non-compendial / Developmental / Custom Grades | Custom impurity profile or physical form for formulation feasibility and method development trials. |
Production lines demand clarity on end use before qualification. Manufacturing protocols shift if the product targets solid dose, oral suspension, parenteral, or veterinary use. Each route impacts requirements for solubility, flow, and packaging compatibility. For each batch, initial application definition helps align in-process QC controls and final COA release schedule.
Each region—EU, US, China, and others—requires separate compliance with pharmacopoeial specifications or veterinary standards. Some regulatory authorities expect full traceability of all input materials, including clavulanate salt and the penicillin core. Specific forms (e.g., potassium vs. sodium salt) and microbial testing may feature in territory-specific compliance. Submission for regulatory approval typically calls for full documentation of grade selection and manufacturing process.
The impurity specification cutoffs—total unknowns, known degradation compounds, β-lactam intermediates—differ across dosage types. Oral and injectable forms yield highest scrutiny in limit tests for related substances and residual solvents. Manufacturers must routinely review analytical data and adjust purification stages, especially when raw material variability or process deviations risk exceeding the customer's finished product limits.
Bulk requirements guide the process route. High-volume, cost-sensitive batches may select broader particle size specification or relaxed impurity cutoffs, if permitted by end-use regulations. Custom packaging, intermediate delivery timelines, or freight temperature control can add significant cost if not planned during project scoping.
Each downstream process interacts differently with API bulk. A small-scale technical validation—using a production-equivalent sample—uncovers risk points around reconstitution, stability, and compatibility with planned excipient blends. Manufacturer technical services support these validation runs by providing detailed batch history and all relevant characterization data. Final grade selection gets locked only once laboratory and pilot-scale evaluation confirm process suitability.
Quality management systems form the backbone of our Amoxicillin and Clavulanate Potassium production workflow. Manufacturing facilities maintain up-to-date certification to globally recognized quality frameworks, chiefly ISO 9001-certified operations for systematic control of production lines and traceability of each lot. Audits and inspections by regulatory authorities and customer-appointed agencies take place at scheduled intervals, tracking batch records, raw material ingress, and deviation handling.
In regulated markets, alignment with current Good Manufacturing Practice principles drives every protocol, from raw material qualification to release testing. Batch records contain production, cleaning, and packaging data, supporting end-to-end traceability. Critical process steps, such as pH adjustment, solvent recovery, and drying cycles, undergo direct monitoring with electronic capture for both internal and client review.
Grade classification responds to customer and regulatory requirements. For pharmaceutical API supply, relevant Drug Master Files and site-specific GMP certificates can be provided to qualified requestors. Veterinary and food-grade applicants require separate validation flows, and documentation packs reflect these requirements based on the intended use and applicable standards.
Direct certification coverage, such as WHO PQ for select sites or other market-specific registrations, is maintained where contractually or legislatively required. Audit summaries and agency correspondences are available according to information sharing agreements and regulatory confidentiality.
Regular production generates documentation for each batch, including certificates of analysis that report key quality attributes like assay, purity, degradation profile, and moisture level, where test methods are referenced to pharmacopoeial or internally validated standards. Analytical validation summary reports are supplied where the customer requires bridging studies for local compliance.
For each shipment, document packets include shipping conditions, chronological batch data, and origin statements reflecting the actual raw material and process route for the consignment in question. Any revision to process or supplier triggers review and updated change control records, ensuring customers remain informed of modifications affecting product integrity.
Capacity planning integrates both domestic and export market forecasts, coordinating raw material reservations with actual production cycles and validated capacity of key process lines. Capacity utilization adjusts, reflecting seasonal variations in demand and raw material availability. For high-volume or long-term clients, flexibility in shipment scheduling, lot sizing, and dual-sourcing scenarios forms part of the contract discussion.
Contractual models include fixed-volume supply, make-to-order policies, rolling purchase forecasts, and consignment stock where justified by annual offtake. Emergency orders and priority production slots are managed through an escalation framework, subject to prior agreement and operational impact.
Production relies on multi-train reactor systems calibrated to typical batch throughput for Amoxicillin and Clavulanate Potassium co-formulation. Buffer stocks of raw materials mitigate supply volatility, and second-source supply chains for starting materials, intermediates, and critical excipients reduce risk. Key control points—reaction temperature, pH, and isolation routines—undergo continuous monitoring, ensuring repeatable output across lots.
Supply continuity reflects both equipment redundancy and preventive maintenance schedules; contingency plans address unforeseen breakdowns or shortages by activating spare capacity or alternate process lines. Finished stock is managed for both bulk and finished-dose requirements, with release protocols tailored by client segment and regulatory jurisdiction.
Sample requests are coordinated directly through technical account managers, who register requests by application grade and downstream use. Samples are drawn from representative lots using documented sampling plans. Each sample undergoes analytical verification and is accompanied by the corresponding certificate of analysis, safety data, and relevant change control disclosures.
Shipping conditions for samples reflect actual transport and storage needs, such as cold-chain or desiccant handling where required by product sensitivity. Clients may request additional documentation, such as impurity profiles or route-of-synthesis statements, subject to confidentiality.
Business cooperation adapts to individual client strategies, aligning contract terms to blend just-in-time schedules, blanket orders, or spot purchases. For project-based supply, technical liaisons coordinate with the client’s R&D or production planning groups to adjust specification levels, packaging formats, or regulatory dossier requirements as project milestones shift.
Cooperation also covers process change communication, deviation management, and change notification protocols, ensuring that any impact on finished product qualification is addressed in real time. Joint troubleshooting, upscaling support, and on-site technical consultations support customers in achieving process reliability and formulation consistency for their specific application or regional regulation.
Manufacturing of Amoxicillin and Clavulanate Potassium requires ongoing evaluation of raw material traceability, especially for fermentation-derived clavulanate components. The integration of advanced upstream fermentation monitoring continues to receive investment, as real-time analysis can improve yield and consistency. Quality control teams have prioritized more sensitive impurity profiling and better process analytical technology (PAT) tools, particularly for detecting side-chain degradation or beta-lactam ring instability. Multi-batch statistical monitoring often draws R&D focus to minimize lot-to-lot variability and maintain stability across production scales.
Development projects increasingly address pediatric formulations and oral suspension stability, as demand grows for dose-flexible, palatable formats. Efforts to support extended-release formulations for outpatient therapy present technical challenges but also enable new clinical uses, such as single daily dosing regimens. Some industrial partners are assessing injectable forms for markets with limited oral administration infrastructure, which requires tight oversight on endotoxin and particulate controls.
One persistent manufacturing challenge involves minimizing the presence of process-related impurities and degradation products, especially those forming from beta-lactam hydrolysis or during high-shear granulation phases. R&D groups are piloting advanced crystallization and aqueous buffering strategies to protect clavulanate’s labile structure during downstream processing. Improvement in process consistency stems from closed-system handling and rapid at-line chromatographic testing, which has reduced release time and enhanced product reliability.
Global demand for combination beta-lactam/beta-lactamase inhibitor products continues to track upward, with growth concentrated in hospital, community, and emerging health system channels. Shifts in regulatory guidance drive a greater requirement for complete, traceable supply chains, especially for antimicrobials used in primary care. Market competition is accelerating investment in differentiated grades, such as low-endotoxin injectable materials or high-purity oral ingredients.
Process intensification through digitalization and modular reactor systems is poised to shorten manufacturing cycles and improve batch-to-batch reproducibility. Implementation of automated solid-liquid separation and advanced lyophilization can reduce thermal stress and protect sensitive intermediates. New solid-state analytical platforms are expected to enhance the identification and quantification of polymorphic forms and enable faster root cause analysis for atypical lots.
Raw material selection increasingly favors sustainable sourcing, with fermentation feedstocks shifting toward certified renewable inputs. Investments in waste minimization focus on enzyme recycling in clavulanate synthesis and enhanced aqueous effluent treatment. Replacement of chlorinated solvents with greener alternatives is in progress, aligned with global regulatory and ESG expectations. Process simplification and continuous monitoring seek to reduce total solvent volumes and energy consumption per unit produced.
Technical support teams offer direct manufacturing insight into raw material quality, process route selection, and critical handling points based on detailed batch histories. Customers requiring advice on formulation compatibility, including preferred excipient systems or preservative selections, receive technical recommendations customized by intended application and regional regulatory requirements. Material compatibility and impurity pathways are supported by analytical data and documented case studies from our production history.
Support personnel work with pharmaceutical development teams to refine dispersibility, reconstitution time, and suspension stability, which depend on the specific grade sourced and the formulation process employed at customer sites. Adjustments to product handling or incorporation protocols are proposed based on practical observations from both in-house testing and customer pilot runs. Variations in granule size, moisture control, and flowability are addressed in collaboration with end users and are typically defined according to the granulation equipment used and the target formulation specification.
After-sales service integrates batch traceability, deviation reporting, and continuous feedback mechanisms. Any customer inquiry about batch-specific performance triggers a review of production records, quality control logs, and shipment storage histories. Technical feedback on atypical handling or performance is cross-referenced with internal batch analytics, and corrective actions are proposed where justified by the data. All commitments are supported by direct manufacturer oversight, not third-party mediation.
As a producer with decades in pharmaceutical manufacturing, our approach to Amoxicillin and Clavulanate Potassium begins with process control from the chemistry of raw materials through the finished compound. We run production lines for both sterile and non-sterile grades, targeting pharmaceutical firms and contract manufacturers that emphasize consistency and scale.
Amoxicillin and Clavulanate Potassium occupy a crucial place in the pharmaceutical sector. The composite product addresses the demand for a broader antibacterial spectrum in oral and injectable formulations. Manufacturers of finished pharmaceuticals rely on our intermediates when standard penicillins reach their spectrum limitations. Our product supports high-throughput operations in commercial antibiotic production lines, ensuring output matches both batch and continuous modes of operation.
Each lot undergoes full physicochemical analysis using calibrated instrumentation, as well as microbial purity checks. Our facilities maintain validated methods for routine and stability testing to ensure assessed potency and impurity profiles remain within pharmacopeia-mandated ranges. Our staff tracks certificate of analysis results at both intermediate steps and finished dosage levels. By handling each production cycle in-house, we continuously benchmark against US, EU, and national standards for impurities and residual solvents, while batch traceability ties every shipment to its original documentation.
We operate bulk line packaging for API shipments in fiber drums with double-layer polyethylene liners, supporting both sea and air logistics without risking cross-contamination. For contract partners with unique requirements, our packaging units switch to smaller aliquots or specialized inert atmospheres as agreed during commercial negotiation. Regular stock levels enable scheduled delivery for multinational formulators conducting year-round procurement, reducing delays in supply chain planning and drug release cycles.
Our technical group works directly with R&D and process engineers on-site at client facilities during initial validation and subsequent process changes. We provide specifications for dissolution, particle profile and solubility, and we maintain technical dossiers to support regulatory filings where our product forms part of the DMF or equivalent approval package. This active collaboration often accelerates the client’s go-to-market process or scale-up timelines.
Cost predictability, secured batch reservation, and transparent quality profiles add measurable business value for manufacturing planners and purchasing managers. By cutting down on unplanned variability, we help formulators avoid stockouts and minimize rejected lots, supporting uninterrupted supply to downstream packaging lines and finished goods distributors. Long-term supply framework agreements and batch reservation programs help contract manufacturers and procurement teams manage risk and stay ahead of regulatory review cycles. Our established presence in regulated markets and our decade-long product track record underwrite the reliability behind each shipment, making us a strategic partner to both leading and emerging players in the pharmaceutical value chain.
Producing β-lactam antibiotics extends beyond creating an active pharmaceutical ingredient. Amoxicillin delivers reliable effectiveness in treating an array of bacterial infections, with consistent absorption following oral administration. As a manufacturer, we optimize the particle size and crystalline structure of amoxicillin to facilitate reliable dissolution and predictable pharmacokinetic profiles across our product range. Paired with clavulanate potassium, which inhibits β-lactamases that threaten penicillin antibiotics, the combination advances clinical usefulness and addresses resistance phenomena found in many clinical isolates.
Our direct production oversight enables close attention to those pharmacokinetic properties most relevant to final formulations. Amoxicillin, after oral delivery, absorbs rapidly in the gastrointestinal tract. Peak plasma concentrations typically appear within 1–2 hours after ingestion, depending on whether the formulation is an immediate or modified release. Clavulanate potassium also absorbs well, with similar time-to-peak values.
We control excipient selection and blending protocols to prevent interaction that hinders bioavailability. High permeability combined with short half-lives for both molecules drives development of twice-daily and extended-release formulations. We monitor distribution volume and elimination kinetics through in-house and third-party validation, confirming that the actives avoid significant protein binding and clear efficiently via the kidneys, aligning with widely published pharmacokinetic ranges.
Amoxicillin and clavulanate potassium each present unique stability challenges. Amoxicillin offers moderate moisture sensitivity and degrades in the presence of heat and acids. Clavulanate potassium decomposes even more rapidly, especially in aqueous environments. During years of production scale-up and packaging optimization, our teams focus relentlessly on limiting exposure to moisture, light, and oxygen from raw material processing through shipment.
For oral suspensions—especially those formulated for pediatric applications—stability after reconstitution becomes a pivotal consideration. We test each production lot to establish post-reconstitution shelf life, working within industry-recognized protocols to ensure potency persists for the full period stated in the expiry labeling. Our quality control staff monitor for byproducts created through β-lactam ring hydrolysis or clavulanate breakdown. Lyophilized and dry powder forms require additional care at the granulation and packaging stage to prevent caking or bridging.
Our packaging engineers select container-closure systems that fortify against moisture ingress. High-barrier laminates, desiccant sachets, and tamper-evident seals support both bulk and unit-dose packaging configurations tailored to international requirements. We limit temperature excursions in shipping, and offer technical documentation to confirm validated stability across multiple climates and storage conditions. Secure labeling, batch traceability, and validated shelf life come standard on every unit produced.
The combined success of amoxicillin with clavulanate potassium arises not just from chemical synergy, but from targeted control over pharmacokinetic release and robust stability management at each step of production. Our technical teams address the challenges directly—never relying on intermediaries—to make sure healthcare providers and patients receive medicines that meet clinical guidelines and perform as intended. We invest in research and open dialogue with formulation scientists to adapt to new findings and regulatory expectations, offering solutions that safeguard the value of this critical antibiotic pairing.
As the manufacturer of Amoxicillin and Clavulanate Potassium, we base our ordering policies on the realities of pharmaceutical production, market demand, and regulatory compliance. Establishing practical minimum order quantities keeps our operations efficient—balancing material sourcing, quality testing, and batch release. Our customers in formulation, finished-dose, and veterinary industries have specific expectations, and we structure lot sizes to meet both economic and technical needs.
MOQ reflects not just production economics; it safeguards traceability and minimizes cross-contamination risks during switchover between active pharmaceutical ingredients (APIs). For Amoxicillin and Clavulanate Potassium, we set minimums by batch size to ensure quality and process integrity. Our MOQ for these products generally starts from 25 kg for laboratory or pilot batches, scaling up to 100 kg or more for commercial orders. This approach supports both research-scale and industrial-scale buyers while ensuring every batch undergoes the same rigorous in-house quality assessment.
Lead time hinges on both run scheduling and raw material logistics. Pharmaceutical manufacturing isn’t just pouring powders—our process involves API synthesis, blending, drying, milling if required, and a series of analytical tests in our laboratories before batch release. For standard pack sizes and specifications, the lead time is typically four to six weeks from order confirmation. Custom specifications, novel formulations, or larger orders may require six to eight weeks, especially when documentation or stability studies are requested. During periods of higher demand or regulatory review, our technical and logistics team communicates timelines early and directly.
Our clients work in settings ranging from small R&D labs to full-scale formulation plants. Because of this, we offer multiple standard pack sizes for Amoxicillin and Clavulanate Potassium. Our standard packaging for API supply includes high-grade, double-lined, fiber drums with a polyethylene bag liner, starting from 5 kg to 25 kg per drum. We also support bulk requirements, shipping up to 250 kg per palletized lot. Smaller pilot lots can be prepared based on customer request, provided the order meets MOQ for production efficiency and GMP standards.
Every batch leaves our facility with a full certificate of analysis, manufacturing and expiry dates, and traceable batch numbers. Stability data and impurity profiles are available. Our technical team can provide detailed product documentation—including DMFs or ASMFs—should our customers require it for regulatory submissions or market entry.
Managing production capacity for high-demand APIs needs a coordinated effort. Small orders often carry high cost per kilogram, but very large single-lot boxes may compromise quality oversight. Our batch sizes and pack offerings have grown out of direct feedback from formulation chemists and procurement managers. Reliable lead times keep our partners’ projects on track. Mix-ups in packaging, or incorrectly anticipated lead times, can disrupt your batch release and logistics, so we invest in internal checks and robust scheduling tools.
Our ongoing aim is to keep our customers’ supply chains resilient and compliant. By focusing on practical MOQs, realistic lead times, and thoughtfully selected pack sizes, we bring efficiency to both large-scale manufacturers and innovation-driven research teams.
Producing Amoxicillin and Clavulanate Potassium to strict quality benchmarks requires careful planning, not only on the line but through every step until the finished batch reaches our customer. The molecular nature of these actives demands vigilance with temperature and humidity exposure, mindful stock handling, robust shipping protocols, and airtight paperwork.
Freshly packed product leaves our production halls in primary and protective secondary packaging. Unstable beta-lactam antibiotics like Amoxicillin call for low-temperature storage, aiming for 2–8°C if stability protocols dictate. Exposing this combination to heat or fluctuating humidity accelerates degradation, increases impurity formation, and risks reduced assay on delivery.
We use monitored walk-in cold chambers for raw material interim storage and finished output. Equipment calibrations and interval checks form part of normal QA routines, with excursion logs readily available for audit. Our internal SOPs mandate that product packs retain their seals and labels through each transfer, minimizing air and light contact.
International orders receive temperature-controlled insulated containers, with cold packs or gel ice depending on volume and travel distance. Our logistics team tracks package temperatures in real time, and temperature loggers are included in strategic consignments where import rules or customer requirements specify. We have learned that seemingly short transport delays, especially during customs clearance or unplanned layovers, can threaten the shelf life if temperature safeguards aren’t followed precisely.
We avoid mixed loads with incompatible or odorous goods in the same shipping environment, reducing risk of cross-contamination. Staff receive annual training on each release protocol and final packing checks.
Batches bound for export markets move with complete technical and regulatory documentation. Every consignment is accompanied by a Certificate of Analysis from our in-house QC laboratory, annotated to the latest pharmacopeial monograph. Export countries requesting GMP, ISO, or DMF certification can access these documents in advance without delay.
For regulated APIs like Amoxicillin and Clavulanate, our shipments include validated Cold Chain records, a Batch Manufacturing Record, and compliance declarations covering residual solvents, microbial counts, and heavy metal testing. Material Safety Data Sheets are always current and reference the production lot shipped. In many cases, customs also require Free Sale Certificates issued by health authorities from our production country—these are available on request.
Where destination authorities set specific labeling or traceability controls, we align our outer packaging with these standards. Our team can pre-screen documentation to minimize uncertainty before shipment even leaves our warehouse. The same diligence applies regardless of order size, and we adjust to customer expectations on document legalizations, embassy certifications, and format requirements around the world.
Experience in regulated markets has proven that strict temperature control and real-time monitoring stops most cold chain issues at the source. Unambiguous documentation expedites customs, and direct engagement with regulatory queries ensures our products meet country-specific import rules. By managing these steps ourselves at the manufacturing level, we sustain compliance and product performance far from our line.
For product inquiries, sample requests, quotations or after-sales support, please feel free to contact me directly via sales3@ascent-chem.com, +8615365186327 or WhatsApp: +8615365186327