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HS Code |
908540 |
| Name | Pentetrazol |
| Chemical Formula | C6H5N5 |
| Molecular Weight | 162.15 g/mol |
| Synonyms | Pentylenetetrazol, Metrazol, Cardiazol |
| Cas Number | 54-95-5 |
| Appearance | White crystalline powder |
| Solubility | Soluble in water and ethanol |
| Melting Point | 165 °C |
| Pharmacological Class | CNS stimulant, convulsant |
| Usage | Used experimentally to induce seizures in animal models |
| Route Of Administration | Oral, intravenous, intraperitoneal |
| Storage Conditions | Store at room temperature, keep container tightly closed |
As an accredited Pentetrazol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Pentetrazol is packaged in a 25g amber glass bottle with a screw cap, labeled with hazard warnings and product information. |
| Shipping | Pentetrazol should be shipped in tightly sealed containers, protected from light, heat, and moisture. It must be clearly labeled as a hazardous substance and handled according to local and international regulations. Transport should occur in compliance with UN safety standards, typically as a Class 6.1 toxic substance, with all necessary documentation. |
| Storage | Pentetrazol should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from heat, sparks, and open flames. Protect it from light, moisture, and incompatible substances such as strong oxidizers and acids. Keep storage areas clearly labeled and restrict access to trained personnel. Follow all relevant safety guidelines and local regulations for hazardous chemicals. |
Applications of Pentetrazol in Industrial ManufacturingAs a core producer of Pentetrazol, we have established stable supply relationships with regulated sectors that implement high safety and quality management. Pentetrazol performs specific, critical roles in scientific, pharmaceutical, and biochemical technology fields, supporting downstream manufacturers with reliable, industrial-grade inputs under controlled environments. 1. Central Nervous System Stimulant in Pharmacological Research ReagentsResearchers and pharmaceutical manufacturers use this compound as a reference central nervous system stimulant for in vivo and in vitro neurological studies. Its dependable pharmacodynamic properties support model establishment in scientific laboratories and regulated dose-finding studies. Clients utilize Pentetrazol as a convulsant tool for drug screening and preclinical seizure classification, forming part of standard neuropharmacological assessment systems. Industry compliance standards
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2. Analytical Standard for Anticonvulsant Drug TestingAnalytical and QC laboratories specializing in anticonvulsant drug development adopt Pentetrazol as a positive control or system suitability standard during assay calibration. In regulated batch-release and bioanalytical method validation, downstream users measure test drug effects against this benchmark to ensure quantitative data reliability. Its reactivity and stability under controlled conditions allow consistent test system performance over extended validation sessions. Industry compliance standards
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3. Chemical Inducer in Preclinical Toxicology StudiesPreclinical contract research organizations and safety pharmacology labs incorporate Pentetrazol as a chemical inducer for neurological disorder simulation. Its application in GLP toxicology studies targets model creation under ethically reviewed protocols. Downstream users depend on consistent and validated batches for experimental reproducibility, allowing controlled evaluation of investigational compounds. Industry compliance standards
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4. Biochemical Reagent Supply for Academic and Industrial Neuroscience ResearchBiochemical suppliers and institutional research centers source Pentetrazol as an ingredient for in vitro neurotransmitter assays, compound mechanism evaluations, and academic neurobiology projects. Demand centers around bulk bottle and ampoule packaging, standardized by purity and contaminant profile for precise laboratory protocols. Users document batch details within institutional research records and integrate the chemical into advanced neurobiological modeling and high-throughput screening platforms. Industry compliance standards
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For decades, our team has handled the synthesis and supply of Pentetrazol, known in research circles for its stimulant action on the central nervous system. Having worked hands-on with this compound, we understand the expectations for material purity, handling, and reliability that modern research labs face. Every batch rolling off our lines must meet strict analytical controls for a reason—the smallest variation in quality or impurity can derail an experiment or obscure results, wasting both materials and time. The pathway to a high-grade final product doesn’t start in the packaging room; it starts all the way upstream at raw material selection, and our factory practices reflect that commitment.
Pentetrazol carries the chemical name 1,2,3,4-tetrazol-5-ylamine, also called Metrazol. Our model PTZ-99 is well-known among toxicology and neuropharmacology laboratories, offering a fine crystalline powder with a specification above 99% purity by HPLC. Over the years, we invested in refining the synthesis route—a method that reduces residual contaminants while allowing direct scale-up from gram quantities to full production without sacrificing any integrity. Regular feedback from academic collaborators and pharmaceutical industry scientists has pushed us to refine our purification stages, to give them a Pentetrazol product they can trust results with.
Working in chemical manufacturing, you’ve learned that quality assurance is the backbone of reliability. Our material comes with a moisture content held below 0.5% and an ash residue below 0.1%, verified by multiple independent lab tests before any shipment. Stringent impurity profiling—covering both inorganic and organic byproducts—gives our customers confidence that unexpected peaks won’t cloud their chromatograms. These parameters don't just fill space on a certificate; they grew from years watching others struggle with inconsistent laboratory outcomes when using inferior grades. Pentetrazol degradation or impurity build-up can seriously impact reproducibility, and that’s not a risk worth taking in any preclinical study or neuropharmacological screen.
We sell in batches as small as 10 grams, up to orders measured in tens of kilograms, with the same manufacturing controls applied regardless of order size. Although most research requires only hundreds of milligrams per experiment, occasional bulk requests remind us how important industrial-scale consistency remains, especially for pharmaceutical firms or university core facilities running repeated assays with hundreds of animal models.
Looking back over nearly twenty years serving scientists worldwide, one thing stands out: most of our Pentetrazol ends up in hands-on applications such as neurotoxicity research, seizure model development, and fundamental CNS pharmacology. Unlike more obscure tetrazoles, Pentetrazol gained a unique status because it delivers consistent, rapid CNS stimulation, which allows for controlled induction of convulsions in animal models. Researchers rely on this effect to screen anticonvulsant or antiepileptic compounds, map neural circuits, and probe brain chemical pathways.
Many graduate students and technicians call to ask about solubility and vehicle recommendations. We prepare Pentetrazol to dissolve readily in distilled water or saline solutions at standard laboratory concentrations. This physical property isn’t incidental—it reflects our attention to eliminating trace hydrophobic residues, which can cause incomplete dissolution, variable dosing, or injection artifacts. In overdose studies and neurobehavioral screens, the difference between a dissolved and undissolved aliquot isn’t trivial; it determines whether animals receive precise, repeatable dosing. Years of listening to customer frustrations with uneven suspensions or clumpy off-brands convinced us that easy dissolution is not a minor feature—it’s core to practical use.
Not every laboratory manages climate control with the same rigor. In parts of the world where humidity spikes, poorly stabilized compounds absorb moisture and begin to degrade. Attention to packaging, desiccant selection, and inner bag sealing all make a difference in how cleanly Pentetrazol performs, six months or a full year after it lands on a customer’s bench. We’ve spent time revising our packaging process thanks to insights gained from international clients running longitudinal studies in tropical climates. Building on their feedback, we now standardize shelf-life testing and ship in protective containers, so that what a scientist receives remains as potent as when it left the reactor.
Buyers who shop chemical catalogs often compare Pentetrazol side by side with other CNS stimulants and convulsants, like picrotoxin, bicuculline, and strychnine. As manufacturers, we see the difference most clearly in feedback from end-users: Pentetrazol works with predictable dose-response relationships, has higher water solubility than most alternatives, and avoids the extremes of toxicity associated with some other options. Convulsion models generated with Pentetrazol remain a standard in academic neuroscience, owing to the compound’s rapid onset and well-characterized mechanisms at the GABAa receptor.
When our synthesis team first tackled Pentetrazol, we noticed significant differences between commercial lots from various global sources. Some suppliers, especially those outside regulated pharmaceutical regions, send products with mixed or shifting melting points, inconsistent powder flow, or uncharacteristic color. These visual and physical inconsistencies serve as red flags in any chemical manufacturing setting—a cue to test deeper, not trust a supplier’s paperwork. Our decision to commit to full in-house quality controls, rather than rely on subcontracted manufacturing or repackaged intermediates, grew from years witnessing how subpar materials sabotage experiments.
On the practical side, the main difference between our Pentetrazol and alternatives such as bicuculline lies in safety profile and handling. Pentetrazol remains stable at ambient temperature when protected from light and moisture, and its raw powders show no tendency to self-ignite or generate dust explosions under recommended storage. Besides CNS models, some teams experiment with this stimulant in respiratory or cardiovascular function research, again relying on the predictability and clarity of response Pentetrazol provides. Feedback from cell culture labs shows that our high-purity standard gives clear-cut phenotypes, which become less reliable when using lower-grade or contaminated materials.
Not long ago, a major research hospital reported issues stemming from an unreliable vendor’s Pentetrazol. Their animals showed severe health effects but failed to develop clear seizure phenotypes, wasting months of research and significant investment. Investigation traced the cause to off-grade material contaminated with process byproducts. We see such reports all too often, which reinforces the manufacturer’s role: ensure that what leaves our hands meets documented specifications, with transparency and traceability for every batch. No laboratory can afford to gamble on an untrustworthy supply chain, especially when animals’ welfare and researchers’ reputations are on the line.
For those unfamiliar with the compound’s heritage, Pentetrazol was first introduced in the 20th century as a circulatory and respiratory stimulant for clinical use, later shifting to its established role in animal models. The regulatory landscape has changed—what was once a therapeutic now falls under laboratory-only status in most countries. Customers ask about compliance, documentation, and proper disposal. We ship material with the full documentation required for all regulated jurisdictions, including detailed analytical records and certificates of origin.
The push for reproducibility in scientific research puts special pressure on chemical suppliers, especially when data produced in one facility has to stand up to peer review elsewhere. Modern research now not only expects but demands that every material be traceable, documented, and certifiably pure. This pressure suits industrial manufacturers like us, who built their business around direct synthesis rather than repackaging. We don't claim to provide miracle solutions—only the confidence that what arrives will behave batch to batch, year over year, without unwelcome surprises.
Hands-on chemical manufacturing means being present at every stage. Batch monitoring isn’t just a box to check off; it ensures that what scientists receive is what we ourselves would trust in a critical experiment. We keep meticulous records during every stage—raw material analysis, intermediate cleanup, final compound crystallization, and analytical testing for heavy metals, residual solvents, and byproducts. Attention to these stages sets a genuine manufacturer apart from traders or resellers who never handle the real chemistry.
On-site synthesis gives us better control over every variable, allowing quick responses when purity, solubility, or packaging questions arise. Should a customer encounter an anomaly or need application guidance, our technical support comes from people who understand the molecule at a granular level—synthetic chemists, analytical scientists, and process engineers who work daily with Pentetrazol. Stories from the field about failed animal responses, crystallization issues, or troubles with reconstitution don’t fall on deaf ears. Instead, they inform our ongoing process improvement and push us to keep adjusting specs and packaging.
Our logistical chain is tightly coordinated to get fresh product into researchers’ hands quickly. We stock local inventory in several countries, minimizing chances for delayed shipments or temperature excursions. For critical studies on deadlines, delays can mean starting from scratch. We’ve seen promising research projects derailed by months because imported chemicals languished in customs. Being a manufacturer, not a third-party agent, allows us to guarantee both speed and traceability from synthesis to delivery.
Real experience shows that even the best-prepared labs sometimes run into trouble—whether with dosing calibration, material solubility, or storage concerns. When fielding calls, our team offers specifics: which solvent lot matches which batch, recommended concentrations, and empirical tricks to solve stubborn dissolution. As trends in research shift, we adapt to evolving application needs. For example, requests for bulk Pentetrazol in non-traditional research settings, like invertebrate nervous system studies, sparked a fresh round of safety and compatibility testing at our facility. Instead of pushing stock off shelves, we engage with new protocols, confirming that existing product specs align with real-world usage trends.
Discussions about Pentetrazol’s risk profile keep surfacing, as more institutions prioritize researcher safety and animal welfare. We make a point to educate our buyers about proper storage, handling practices, and emergency measures. With years of feedback from universities and pharma labs, our packaging now features tamper-evidence, reinforced seals, and desiccant packets to guard even against short-term mishandling. Fine-tuning delivery at this level wasn't a market move, but a response to real stories: university postdocs reporting moisture-damaged supplies or incorrect labeling from gray-market vendors.
Our R&D partners often experiment with modified pH levels, different vehicles, or alternative dosing schedules. Each method brings its own set of compatibility needs, and some compounds show increased instability in certain buffers. Instead of waiting for trouble, we invest in ongoing compatibility trials, posting findings online as technical notes tied to specific Pentetrazol batch numbers. By giving researchers access to fresh empirical insights from real-world tests, we cut down on mistakes that stem from one-size-fits-all protocols or assumptions.
Manufacturing Pentetrazol has taught our team the necessity of ongoing improvement—both in chemistry and communication. Feedback from the field points to areas where even small changes in material handling or process tweaks can yield big results. Earlier in our journey, rough-milled product tended to clump and gave uneven dosing in mechanized filling lines. We responded with upgraded micronization systems and improved powder flow, allowing automated pipetting and robotic dispensing to work without frustration. These improvements didn’t come from a top-down directive, but from listening to real technicians who struggled with our early batches.
As research funding shifted toward high-throughput behavioral screens, we realized that the same qualities driving our pharmaceutical-grade material—in particular, purity and predictable response—now mattered more than ever in basic research, too. The rise of reproducibility demands across grant-funded projects means that labs on tight deadlines have zero tolerance for compound-related failures. We took those pressures seriously, adapting batch release criteria, introduction of lot-specific technical sheets, and expanded analytical services for high-visibility public or collaborative research.
Mistakes happen in any technical profession, but long-term credibility grows from transparency and fast remediation. Our customers have access to detailed batch histories and open lines of communication directly with process leaders—not sales agents, not marketers. Decisions on future runs, synthesis upgrades, or purification investments begin with fielded customer reports and are settled in our laboratories, under real-world timelines. Continual investment in new purification methods, analytical testing endpoints, and staff training all stem from a recognition that chemistry, done right, never stands still.
From our vantage point, Pentetrazol continues to play a foundational role in neuropharmacology and CNS research. As neuroscience moves toward more complex behavioral and molecular screens, the pressure on suppliers like us grows more intense. Researchers want not just a chemical name, but a product with reliable documentation, unambiguous performance, and consistent physical handling month after month. We’re prepared for greater scrutiny, whether from regulatory agencies, scholarly journals, or the scientists themselves.
Academic and pharmaceutical teams now work in a landscape shaped by open data and global reproducibility mandates. Materials must withstand third-party auditing, repeat analyses, and demands for transparency not seen twenty years ago. In this environment, direct chemical manufacturers shoulder both opportunity and obligation—we supply the backbone reagents for discovery, and the discipline to assure they never become the experiment’s weak link.
For those who call or write for background, our staff remains available for technical guidance, trouble-shooting, or just plain conversation about the best approaches in ongoing research. We care about each shipment because we see, firsthand, the consequences when things go wrong—lab setbacks, wasted grant money, or worst of all, irreproducible or misleading scientific findings. Each bottle, each lot, each delivery matters as much to us as it does to our customers, and our history producing Pentetrazol reflects that commitment to chemical integrity and research progress.