|
HS Code |
486681 |
| Name | Merestinib |
| Synonyms | LY2801653 |
| Type | Small molecule inhibitor |
| Mechanism Of Action | Inhibits multiple receptor tyrosine kinases including MET |
| Molecular Formula | C26H28F2N6O2 |
| Molecular Weight | 494.54 g/mol |
| Indications | Investigational, primarily for cancer treatment |
| Route Of Administration | Oral |
| Developer | Eli Lilly and Company |
| Clinical Trial Phase | Phase II |
| Cas Number | 1206799-15-6 |
| Target | MET, AXL, RON, MKNK1/2 |
| Status | Investigational |
As an accredited Merestinib factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Merestinib comes in a white, sealed 10g plastic bottle with a tamper-evident cap, labeled with chemical information and safety warnings. |
| Shipping | Merestinib is shipped in secure, sealed containers designed to prevent contamination and degradation. The packaging complies with safety and regulatory guidelines for transporting research chemicals. Merestinib may be shipped at room temperature or with cold packs, depending on the manufacturer's recommendations. Detailed documentation accompanies each shipment for tracking and compliance purposes. |
| Storage | Merestinib should be stored in a tightly sealed container, protected from light and moisture. Store it at room temperature, typically between 20°C and 25°C (68°F–77°F). Ensure that the storage area is well-ventilated and chemicals are kept away from incompatible substances, such as strong oxidizers. Always follow institutional and safety guidelines for handling and disposal of Merestinib. |
Competitive Merestinib prices that fit your budget—flexible terms and customized quotes for every order.
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At our chemical plant, we approach every batch of Merestinib as a commitment to advancing precision medicine. Merestinib, a potent and selective inhibitor of multiple receptor tyrosine kinases, especially MET, has drawn attention in the oncology research community for its ability to interfere with pathways responsible for uncontrolled cell growth and metastasis. Through hands-on production and strict adherence to every protocol, we assemble this compound not as a commodity but as a tool in the hands of researchers and clinicians who target life-threatening malignancies.
Our chemists spend countless hours in synthesis optimization, stability testing, and quality verification—details that shape the purity and batch-to-batch reliability of our Merestinib offering. Merestinib belongs to the class of kinase inhibitors. The backbone structure is tailored through a multi-stage chemical synthesis route, requiring reagent purity above 99% for every critical step. Each time we scale up the process, minor tweaks to solvent selection or reaction times can cause shifts in impurity profiles, which is why in-process analytics and end-to-end documentation matter. This molecule is usually supplied as a white to off-white powder, highly stable under recommended storage conditions and soluble in solvents such as DMSO and ethanol.
On the ground, physical testing goes hand-in-hand with chemical analytics. We routinely use NMR, LC-MS, HPLC, and FTIR to check identity and purity, followed by particle size analysis if customers require defined granularity for their formulation work. The formats we package—ranging from small gram-scale packs for universities up to multi-kilogram drums for major pharmaceutical clients—always build on the same QC underpinnings. Variations in powder handling, packaging, and even temperature management during shipment receive as much scrutiny as the chemical process itself. These are not simply checkboxes for compliance, but measures born out of lessons over years of catching and resolving the smallest lot-to-lot deviations.
Most users approach Merestinib for its function as an oncology drug candidate—mainly for non-small cell lung cancers where aberrant MET signaling drives progression. Teams across academic research and pharmaceutical development rely on Merestinib as a tool compound for in vitro inhibition assays, target validation, and preclinical models, right through to clinical investigations. Our firsthand experience with research collaborations has highlighted that robust solubility, low moisture sensitivity, and well-characterized polymorphism are not just chemical properties but real needs in labs pursuing next-generation combination therapies.
In the manufacturing plant, every molecule in every shipment is backed by a consistent production line. For users blending Merestinib into oral dosage forms or injectable suspensions, knowing that no residual solvents or uncharacterized side products linger in the final batch means confidence in their downstream applications. Many times, teams run pilot studies with multi-source supply, and the batch reproducibility we deliver makes Merestinib a dependable choice for projects where timelines leave little margin for error. Teams working on fast-moving clinical programs often call on our technical staff directly, seeking document-backed assurance for analytical data, methods, and storage conditions.
The discussion about Merestinib often drifts to purity figures and documentation, but inside our facility the distinguishing factors run much deeper. A critical difference comes from trace impurity profiling. Market Merestinib sometimes slips through with minor unknown peaks that can turn into regulatory headaches later. Our process development team has rooted out multiple potential downstream and side—reaction products, verifying the absence or tight control of each by in-lab synthesis and forced degradation experiments. These aren’t theoretical tests—we’ve caught unseen issues before, resulting in a habit of over-reporting and over-preparing on every certificate of analysis.
Clients sometimes ask about bulk supply versus research scale. Having seen problems caused by sub-batch mixing, uneven blending, and scaling artifacts in rival products, we make sure product homogeneity holds from grams all the way to multi-kilogram orders. People working at the scale of pilot lots benefit from a single mother batch strategy, so that analytical signatures track with clinical-grade expectations instead of resembling commodity chemical supply. Where others outsource steps or split production across continents, our integrated footprint means fewer variables. This makes a huge practical difference during audits and helps users defend their source choices to regulatory reviewers.
For researchers facing formulation challenges, our product characteristics have been tuned with end-use in mind. Merestinib often gives trouble in tablet compression due to flow limitations of the powder; our QC team has spent time supporting clients with pre-blending tips and documentation on particle size distribution. Rather than leaving customers to troubleshoot, we back up every sale with direct access to scientists and production engineers who have grappled with these technical matters—whether it’s solvent compatibility, filtration, or reconstitution protocols for preclinical dosing.
Regulatory compliance goes beyond a stamp on paper; it shows up in the regular audits, the cleanroom swabbing logs, allergen controls, and every analytical trace saved for years. People working under FDA, EMA, or PMDA guidance know the burden of proof is getting heavier. As a manufacturer, we spend weeks each quarter updating and reviewing change-control documentation so that every analytical method validation and SOP can be shared with clients when they go in front of regulators. Our plant offers full traceability from raw material sourcing to finished product lot allocation, answering the frequent questions around cross-contamination, trace metals, and batch genealogy.
Batch manufacturing itself isn’t a closed process. Each scale-up or engineering run adds its own risks—from solvent recovery tanks building up trace residues to in-line filters picking up minute particles that can alter finished product profiles. By enforcing chain-of-custody recordkeeping and training production staff on cross-checks, we catch issues that generic or grey-market supply chains often overlook. This doesn’t just tick a regulatory box. It lowers the chance of downtime or product holds on the customer side, saving time and helping developmental programs stay ready for study starts and clinical trial deadlines.
Manufacturing Merestinib in a commercial setting reveals details never discussed in academic journals. One issue anyone new to handling this molecule finds is static buildup and product sticking in powder transfer lines, which can shift fill weights or even cause product loss. We have dealt with it by refining air handling and antistatic coatings—minutia that turn out to be vital at production scale. Such challenges aren’t exclusive to Merestinib, but this molecule’s relative density and flow characteristics call for customized chute angles and paddle mixing during blending.
Temperature and humidity deviations show up on long-haul shipments, especially for global customers in climates with wide seasonal swings. To avoid surprises at receiving labs, we implemented validated shipper qualification, using continuous temperature loggers for all shipments above 100 grams. It’s a level of control rarely seen outside pharmaceuticals, but we found through experience that even a few degrees’ drift on a summer weekend can trigger off-specification on critical batches.
As a direct manufacturer, we view our role as extending well past the batch release. We approach every new Merestinib project by listening to formulation chemists, pharmacologists, and analytical experts using our material. Our teams walk through the details of blending, dissolution, and assay verification in research and development settings, not just delivering a package but supporting the entire journey from feasibility to clinical testing.
There is constant back-and-forth with global clients on issues that rarely make it into official reports—like mismatches in analytical calibration curves or solvent compatibility with local lab ware. Our technical support isn’t outsourced or based on scripts. Instead, scientists who understand both the lab synthesis and plant-scale logistics talk directly with customers, helping them interpret HPLC traces or troubleshoot recovery rates. These conversations have led to ongoing improvements, from finer grade options for those running NMR solubility studies to specialty certifications supporting method validation for GLP labs.
Feedback from these collaborations feeds right back into process optimization. We’ve reformulated packaging to protect against light or oxygen exposure based directly on project findings, especially for teams running long-term stability studies or forced degradation testing. Every issue flagged—no matter how rare—becomes a new trigger point for refining both bulk and small-scale lots.
Handling Merestinib, like any kinase inhibitor, demands respect for both chemical hazard and environmental responsibility. Plant staff are continually trained on the latest handling protocols, taking into account both occupational exposure and non-target environmental release. Ventilation, closed transfer, and proper personal protective equipment go hand in hand with rigorous monitoring of effluent and waste streams. Every kilo produced leaves documentation trails not just for customer reference, but as internal checks that enforce safe operation at every stage.
Lessons from years of hazardous chemical production remind us that shortcuts on safety or cleanliness show up later—sometimes in unexpected product contamination or regulatory penalties. We see safety as part of product quality, not just an afterthought, and refuse to separate the two in daily operations.
The demand for targeted therapies continues to rise, and users increasingly need flexibility in sourcing Merestinib for both ongoing research and up-scaling to larger clinical trials. Our production operations run with continuous feedback loops, adjusting process parameters, improving impurity thresholds, re-validating packaging for tougher export routes, and updating documentation every time regulatory expectations shift. The direct line from process chemistry to finished goods gives us visibility on trends and issues emerging in oncology research, formulation, and regulatory review.
Many innovations in quality come from long-term supplier and client partnerships—whether it’s streamlining the analytical method set required for Tech Transfer, or building in new release criteria for markets with emerging compliance standards. Rather than waiting for problems to emerge after the fact, we’ve learned to scan the pipeline for signals about solubility, stability, or analytical traceability. These adjustments show up in real-world outcomes: faster project startups for clients, fewer hold-ups in clinical packaging, and smoother acceptance by regulatory reviewers across different jurisdictions.
The role of a chemical manufacturer like ours in supplying Merestinib goes beyond shipping a name-brand molecule. It’s about delivering a product whose history, consistency, and quality are anchored in real-world laboratory challenges, regulatory demands, and clinical goals. Our focus on craftsmanship, openness in data, and relentless process improvement forms the backbone of every batch delivered. For researchers, developers, and clinical teams seeking reliability and deep technical support, sourcing Merestinib directly from a fully integrated plant offers both quality assurance and a partner who shares the end goal: successful outcomes for novel therapies and clinical innovation.