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HS Code |
823980 |
| Product Name | Tetramethylguanidine Tetrafluoroborate |
| Chemical Formula | C5H13N3·BF4 |
| Molecular Weight | 211.98 g/mol |
| Appearance | White to off-white solid |
| Melting Point | 122-126 °C |
| Solubility | Soluble in water and polar organic solvents |
| Storage Conditions | Store in a cool, dry place, tightly closed |
| Cas Number | 67417-67-8 |
| Synonyms | 1,1,3,3-Tetramethylguanidine tetrafluoroborate |
| Hazard Statements | May cause irritation to skin, eyes, and respiratory tract |
As an accredited Tetramethylguanidine Tetrafluoroborate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Tetramethylguanidine Tetrafluoroborate, 25g: Supplied in a sealed amber glass bottle with tamper-evident cap and hazard labeling. |
| Shipping | Tetramethylguanidine Tetrafluoroborate is shipped as a chemical substance under standard hazardous material regulations. It should be packed in tightly sealed containers and clearly labeled. During transport, it must be kept dry and away from incompatible substances. Follow all local, national, and international guidelines for storage and shipment of chemical reagents. |
| Storage | Tetramethylguanidine Tetrafluoroborate should be stored in a tightly sealed container in a cool, dry, and well-ventilated area, away from moisture and incompatible substances such as strong oxidizers. Protect from physical damage and direct sunlight. Store at room temperature and avoid humidity to prevent hydrolysis or degradation. Always ensure proper chemical labeling and follow standard laboratory chemical storage protocols. |
Applications of Tetramethylguanidine Tetrafluoroborate in Industrial ManufacturingTetramethylguanidine Tetrafluoroborate serves as a specialty reagent in multiple advanced chemical industries. As an original manufacturer, we supply this salt to downstream partners for highly controlled synthesis and processing under demanding regulatory frameworks. The following sections outline established and proven application scenarios, each with explicit industry requirements, process parameters, and end-use products. 1. Pharmaceutical Active Ingredient SynthesisPharmaceutical manufacturers use Tetramethylguanidine Tetrafluoroborate primarily as a strong, non-nucleophilic base and phase transfer catalyst. Its high basicity and compatibility with sensitive functional groups enable key coupling and derivatization steps in API synthesis, particularly for heterocyclic compound formation and nucleoside modification. Handling requires compliance with cGMP and trace impurity control throughout multi-step reactions leading to final drug substance lot release. Industry compliance standards
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2. Organic Electronic Material SynthesisIn the organic electronics sector, Tetramethylguanidine Tetrafluoroborate functions as a key base and phase transfer agent during the controlled synthesis of conductive polymers, OLED emitter precursors, and related advanced materials. Downstream processes demand anhydrous, high-purity conditions to ensure the integrity of the final polymer backbones and low ionic contaminant content, crucial for device performance and stability. Industry compliance standards
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3. Fine Chemical Catalysis and Specialty Intermediate ProductionProducers of fine chemicals rely on Tetramethylguanidine Tetrafluoroborate for catalytic roles in nucleophilic substitution and selective deprotonation. The salt offers improved safety and easier workup versus traditional bases in multi-stage, high-value specialty intermediate synthesis. Downstream operators emphasize documentation, traceability, and lot-based QC, following international chemical handling norms and environmental guidelines. Industry compliance standards
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4. Laboratory Reagent for Chromatographic Analysis and PurificationAnalytical and preparative chemistry labs use Tetramethylguanidine Tetrafluoroborate as a mobile phase additive to enhance analyte separation and peak shape in HPLC and related chromatographies. Its compatibility with mass spectrometry and stability in a range of solvents offers benefits for bioanalytical and synthetic method development, supporting regulated laboratory environments with high traceability requirements. Industry compliance standards
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In our daily work as chemical manufacturers, few compounds have shown the reliability and versatility in synthesis that Tetramethylguanidine Tetrafluoroborate (TMG·BF4) offers. We produce this salt under tightly controlled conditions, always monitoring each step to ensure finished lots meet demanding requirements. There’s no substitute for direct quality oversight, from sourcing starting materials to the last packaging checkpoint. Chemists in fine and pharmaceutical industries rely on consistent lot-to-lot behavior, and our experience tells us that minor impurities or shifts in crystalline forms can change performance at the bench or on the plant floor.
We manufacture TMG·BF4 as a white, free-flowing crystalline solid, with a purity typically maintained above 99%. Moisture control receives attention at every stage, since even trace water can hamper reactivity or cause caking. Handling the product in air-free environments during bottling and storage, and monitoring with Karl Fischer titration, provides necessary reassurance for our customers. Particle size also matters—excessive fines or clumps complicate dosing and measurement. Our grinding and sieving protocols keep the powder manageable for both gram-scale and bulk users.
TMG·BF4 stands out as a non-nucleophilic, strong organic base, favored in catalytic cycles, N-alkylation, and acylation chemistry. For researchers and chemists scaling reactions, the salt form offers greater thermal and handling stability than the parent guanidine base. In demanding applications such as peptide coupling, ring-closing metathesis, or base-promoted condensation reactions, this stability reduces side-product formation and loss of activity over time. Unlike many organic bases, our product minimizes risk of unwanted nucleophilic attack or exchange, improving selectivity and reproducibility. Based on customer feedback and our own applied tests, those working in API synthesis, medicinal chemistry, and material science consistently report cleaner reaction profiles and higher isolated yields.
Producing specialty salts like TMG·BF4 at scale demands more than routine operations. Years of practical process improvement in our plant have shown that subtle process tweaks—such as solvent choice during crystallization, temperature ramping rates, and controlled filtration—decisively affect product quality. Working out these parameters required dozens of lab trials and scaled pilot batches, each time tracking purity and flowability side by side. As a manufacturer, we don’t just ship a chemical off the shelf. Our team stays in direct communication with bench scientists, scale-up teams, and QC labs, fielding support calls about batch melting points or solubility in project-specific solvents. This immediate feedback loop helps us fine-tune yields for projects where every variable matters.
In academic labs and pharmaceutical manufacturing suites alike, chemists want reassurance that each delivery of TMG·BF4 will behave just like the last. Varying cation or anion sources, temperature control errors, or residues from leaching can alter base strength or even cause batch-to-batch variation in reaction outcomes. Having seen complaints about inconsistent crystals from traders or errors introduced by blending lots from multiple suppliers, we focus on traceability. Each production run maintains a rigorous chain of custody, and we archive both in-process and finished product spectra for transparency. No third-party reseller can vouch for lot history the way a direct producer can.
Chemists often weigh using tetramethylguanidine as a free base versus its tetrafluoroborate salt. Free bases, especially those prone to moisture uptake like TMG, can lose potency, turn viscous, and complicate dosing. The BF4 salt fixes these issues. It resists hydrolysis, stores for extended periods without degradation, and offers steady solubility in polar aprotic solvents. For teams performing repeated batch syntheses, minimizing downtime due to storage failures or weighing errors offers practical value. Halide salts of TMG, such as hydrochloride, sometimes crop up in catalogs. Yet in head-to-head trials, our customers and our own process chemists find halides bring in more water, create more sticky residues, and slow down extractions. The tetrafluoroborate matches the needed base strength while offering a cleaner, more controlled profile.
Our safety team tracks every step from raw material offloading through final sealing. TMG·BF4 does not fume or emit strong odors, and after years of plant use, we know how to manage any rare spill. Training new staff includes walking through possible exposures, spill cleanup, and neutralization strategies. Packaging aligns with customer needs—HDPE bottles for moisture exclusion and pails for larger orders. The salt’s stability allows for secure shipping, even through routes with high humidity or temperature swings. Our technical service engineers make site visits and host call-ins for new users, sharing practical handling advice based on how operators encounter the material on site, not just what a standard precaution sheet says.
Keeping TMG·BF4 dry stands as a chief concern for anyone working outside gloveboxes or dry rooms. Our experience reinforces that even quick opening of bottles in humid environments can draw in enough moisture to affect subsequent weighing or cause small-scale caking. Over the years, we’ve refined bottle closure systems and standardized inclusion of drying packets in shipments destined for tropical or coastal regions. Our teams work with frequent users to set up procedures for rapid transfer under nitrogen, and we select packaging that resists puncture or humidity ingress in transit. Some buyers inquire about using vacuum-sealed bags; we test these by subjecting packs to simulated shipping stress and only release what passes our own benchmarks. This hands-on, empirical approach keeps our material trusted by synthetic teams where minor process variations spell big downstream costs.
Customers regularly ask us for advice comparing TMG·BF4 to other strong bases or phase transfer catalysts. Our approach stays rooted in direct test results—running parallel syntheses, tracking byproduct levels, measuring isolated yields, and listening to what downstream users report. Over two decades, these observations confirm our salt offers practical superiority for reactions sensitive to water or prone to base-induced rearrangement. Each time a scale-up program comes looking for troubleshooting advice, the reality emerges: direct control over manufacturing makes fine-tuning possible, while buying from intermediaries adds unknowns and risk. Big industrial customers and specialized research teams alike highlight fewer failed lots and greater ease in documentation for regulatory filings when source and batch integrity remain unbroken.
Our production team takes environmental stewardship as part of daily practice. Tetrafluoroborate salts, though stable, still call for careful handling of effluents. Waste streams get neutralized, and recovery steps remove both TMG and BF4 for safe disposal. Regular audits track emissions, water use, and energy input. Over time, we invested in closed-loop systems that recycle solvents and minimize rinse waste. Our internal targets do not just hit regulatory minimums; we track and aim to steadily reduce both chemical and energy footprints. Sharing best practices across sites means improvements from one plant benefit every location, not only the reporting facility. Staff input helps design better containment points and update procedures, with each round of feedback making a real difference to both worker safety and environmental footprint. Many of our long-term industrial partners have visited the site and sat in on audit reviews, seeing firsthand the steps taken to assure environmental rigor.
Regulatory landscapes change year by year. Inquiries about impurity profiles, batch summaries, and sustainability now arrive earlier and more frequently. Manufacturing TMG·BF4 starts with full transparency about supply chain sources and ends with shipping documents tracking to the vessel or vehicle. We keep current with evolving standards in Europe, North America, and Asia. Teams continuously review literature and customer feedback to anticipate forthcoming limits or reporting expectations. When any change in required impurity limits or reporting emerges, we have established teams that can trace and update documentation, rerun side-by-side testing, and adjust production instructions without days of delay. New customers find reassurance in straightforward access to manufacturing details and ready answers to technical queries from our experienced team, many of whom have been with the company for over a decade.
Research teams and contract manufacturers each approach TMG·BF4 with their own set of expectations and constraints. Many come to us after trying generic or trader-sourced material that failed on purity or produced erratic outcomes. Through our direct communication channels, we regularly address project-specific questions. Sometimes a customer seeks a specific particle size or asks for custom drying; in these cases, our process flexibility allows for tailored batches without delaying core production. These partnerships extend beyond sales: we visit labs, review analytical methods, and share best-practice handling guides. Having both large-scale industrial and academic partners lets us gather a unique cross-section of user experiences, steadily folding this input into better manufacturing decisions. Special projects or high-purity runs benefit from dedicated production lines to remove all uncertainty about cross-contamination.
Buyers often weigh the purchase price of TMG·BF4 against total process cost and reliability. Based on our history supplying both large and small users, the numbers point to long-term savings through improved batch yields, reduced downtime, and elimination of mysterious impurities that can halt inspections or delay registration. On rare occasions where a user faces a genuine process hiccup, our technical team provides direct troubleshooting and, if needed, on-site visits to observe the setup. Keeping information direct, timely, and rooted in hands-on experience avoids the generic advice often found on distributor websites. Our own plant uses the very same TMG·BF4 in producing other advanced intermediates, so maintaining rigorous standards protects both our bottom line and yours. Efficiency gains every time transfer protocols are optimized or storage failures drop, which over a product lifecycle means less waste and fewer unplanned deviations.
Modern chemistry constantly pushes into new areas, and we stay close to customers developing novel pharmaceuticals, specialty polymers, and green processes. Our early-adopter customers experimenting with enzyme-catalyzed reactions or nontraditional solvents help point us toward future adaptations. By testing TMG·BF4 in novel reaction environments and scaling up unique applications, we gather real-world performance data to guide future product improvements. Many process innovations come from user suggestions—fine-tuned melting profiles, alternate packaging, or ultra-low trace metal content for electronics-grade applications. By building feedback directly into R&D and scale-up operations, we stand ready to support both next-generation chemistries and the most stringent quality standards.
No catalog or digital platform can replace real conversations about method validation, batch tracking, or safe process modifications. Support calls reveal pain points and areas where small changes in handling or packaging can create real downstream value. Our teams exchange technical notes with chemists in pharma, agrochemical, and academic labs, allowing both sides to improve procedure and outcome. This two-way dialogue ensures our product develops alongside actual needs, not simply theoretical criteria written on a spec sheet. As a manufacturer, we see the full lifecycle from feedstock arrival to finished product shipment, and sharing this knowledge with users reduces rework, prevents mishaps, and helps newer chemists grow their mastery of demanding materials. By staying grounded in actual factory-floor challenges and lab-scale trials, our teams make TMG·BF4 the most reliably manufactured option for critical reactions.
Every year, our team reviews process logs, customer feedback, and the latest application literature to find areas for improvement. Sometimes this means investing in new drying technology to further reduce residual water, or revising SOPs to streamline filtration. These changes emerge from experience—not as abstract goals, but as steps responding to real issues encountered in production and use. Whenever a recurring batch complaint appears, teams roll up their sleeves to repeat test runs, adjusting conditions one variable at a time. The benefit for end users comes through better consistency and fewer surprises—a priority that extends from R&D through every shift at the plant. Quality does not arise from automation alone, but from staff attentiveness and pride in outcome, both underpinned by their hands-on involvement with every metric and every customer request.
From fine chemical intermediates to life-saving pharmaceuticals, reliable starting materials mean higher success rates, better reproducibility, and safer workflows. Tetramethylguanidine Tetrafluoroborate continues to prove its value for synthetic challenges that leave lesser bases or impure salts floundering. Lessons learned at our site pass into operational procedures and customer interactions every week, tangibly improving handling, storage, and application in the field. All this comes back to direct control—over manufacturing, packaging, quality, and distribution. Through steady improvement and open lines of technical support, our commitment stays anchored by firsthand experience and a clear view of our users’ demanding and evolving needs.