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HS Code |
243833 |
| Chemicalname | Bathophenanthroline |
| Iupacname | 4,7-Diphenyl-1,10-phenanthroline |
| Molecularformula | C24H16N2 |
| Molarmass | 332.40 g/mol |
| Casnumber | 1662-01-7 |
| Appearance | Pale yellow to yellow solid |
| Solubility | Slightly soluble in water, soluble in organic solvents |
| Meltingpoint | 267-271 °C |
| Boilingpoint | Decomposes before boiling |
| Purity | Typically ≥98% |
| Storage | Store at room temperature, dry conditions |
| Application | Used as a chelating agent and colorimetric reagent |
| Density | 1.23 g/cm³ (approximate) |
| Synonyms | BPhen; 4,7-Diphenyl-1,10-phenanthroline |
As an accredited Bathophenanthroline factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 25g Bathophenanthroline is packaged in an amber glass bottle with a secure screw cap, clearly labeled with hazard information. |
| Shipping | Bathophenanthroline is typically shipped in tightly sealed containers to protect it from moisture, light, and air exposure. The package is clearly labeled with appropriate hazard information and handled in accordance with chemical transport regulations, ensuring safety during transit. Temperature and handling precautions are observed to maintain product integrity throughout shipping. |
| Storage | Bathophenanthroline should be stored in a tightly sealed container, away from light and moisture, in a cool, dry, and well-ventilated area. Avoid storing near incompatible substances such as strong oxidizing agents. To prevent degradation, store at room temperature and handle with proper protective measures. Always follow local regulations and manufacturer guidelines for safe storage and handling. |
Applications of Bathophenanthroline in Industrial ManufacturingBathophenanthroline serves specialized roles in industrial and scientific manufacturing processes, especially where precise control of metal ion detection or complexation is needed. As a direct manufacturer, we support downstream partners with material tailored for laboratory reagents, quality control programs in metallurgy, advanced analytical systems, and chemical research syntheses. 1. Metallurgical Laboratory Iron(II) DetectionLaboratories and industrial metal refineries employ Bathophenanthroline as a colorimetric reagent for quantitative detection of ferrous ions (Fe2+). Users add the compound to water, wastewater, or digested metal alloy samples to form a highly stable colored complex with Fe2+. This process forms an orange-red solution, then undergoes spectrophotometric measurement within the 510–530 nm range. Repeatable, trace detection allows rigorous QC of incoming ores, processed metals, and effluents. Inline sampling and automated dosing systems increasingly integrate this material for rapid batching and statistical process control. Industry compliance standards
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2. Analytical Reagent FormulationsManufacturers of commercial laboratory test kits include Bathophenanthroline within reagent powder blends and liquid concentrates for automated spectrophotometers and manual iron tests. Companies mix the compound with buffers, reducing agents, and preservatives, then package into single-use vials or larger production lots. Batch record-keeping and stability monitoring form part of finished reagent kit QA systems. Downstream clients range from municipal water facilities to accredited environmental test labs. Industry compliance standards
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3. Pharmaceutical Chemical Research (Complexometric Reactions)Bathophenanthroline finds consistent use in pharmaceutical and fine chemical research facilities as an advanced ligand for developing metal ion probes, redox agents, and many organic/inorganic reaction mechanisms. Chemists deploy this compound to construct Fe(II)–ligand complexes that probe metal-catalyzed pathways and calibration standards for analytical instrumentation. GMP and GLP labs focus on lot-to-lot consistency, trace metal analysis, and system suitability during method development. Industry compliance standards
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4. Advanced Instrument Calibration (Spectrophotometer & AAS/ICP-OES)Instrumentation manufacturers and third-party calibration labs use Bathophenanthroline complexes as robust calibration references for spectrophotometers, atomic absorption, and ICP-OES systems. Preparing calibration curves with stable colored Fe(II)-ligand complexes improves linearity and instrument performance validation, crucial for environmental, clinical, and materials analysis workflows. Traceable supply chains and homogeneity validation are critical in this scenario. Industry compliance standards
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5. Environmental Analysis and Water Treatment Process MonitoringBathophenanthroline enables accurate determination of trace iron content in potable and wastewater streams, supporting environmental laboratories and municipal water treatment facilities. Operators routinely conduct iron (Fe2+) measurements for regulatory discharge reporting and operational control. The reagent’s selectivity reduces interference from other common ions. SOP-driven QC and sampling plans mandate fully validated reagent sources for frequent testing cycles. Industry compliance standards
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Our operations have always revolved around the core principle of precision in synthesis. Many less-visible compounds make a world of difference in research and industry, and Bathophenanthroline stands out through its clarity, stability, and ability to deliver results in demanding analytical and synthetic tasks. Having spent years optimizing reactions and isolation steps for specialty ligands, our team understands that purity and consistency cannot be treated as buzzwords—they are daily requirements. Bathophenanthroline’s reliability comes from a process we have refined batch after batch, guided by real data from lab to pilot to full production.
We prepare Bathophenanthroline under strict environmental and quality controls. Every lot, whether destined for coordination chemistry labs or photometric analysis centers, must match rigorous benchmarks. The product appears as a pale yellow crystalline powder—free-flowing and without unwanted particulate matter. Our model designation for Bathophenanthroline, 4,7-diphenyl-1,10-phenanthroline, always centers on >99% purity as established by HPLC and NMR verification rather than superficial visual checks. Each lot comes with actual test data performed in-house on calibrated equipment, matching the standards demanded by top researchers.
The crystal structure of Bathophenanthroline gives it superior selectivity and efficiency as a ligand in transition metal complexes. Over the years, adjustments to our purification route minimized trace impurities common in generic offerings. This allows for reliable results—no ambiguity, no wasted experiments. We do not chase cosmetic improvements at the expense of chemical consistency. Instead, our R&D guides incremental but genuine refinements, like using food-grade solvents wherever possible, improving environmental friendliness without undermining product quality.
Delivering Bathophenanthroline to university labs, industrial R&D, and routine analytical setups brought us direct feedback on its real-world performance. Users reach out with detailed reaction data and troubleshooting notes. The most respected application stays the same: iron determination by photometry. Bathophenanthroline forms a colored complex with ferrous ions, which lends itself to sensitive detection at 535 nm. Analytical chemists value a reagent that does not mask ferric ions or produce background interference. We designed our process flow to guarantee low background absorption and minimal organic residuals—a true concern for analysts working in trace detection.
The ligand also supports photochemical studies and synthesis of coordination polymers. Complexation studies show that substituents on the phenanthroline core, like the diphenyl groups here, bolster selectivity. This subtlety distinct from plain phenanthroline has concrete results: improved detection limits, sharper spectral peaks, cleaner separation of interfering ions. From an industrial view, this means less troubleshooting, reduced need for repeated QA testing, and quantifiable savings in time and material. Research teams have cited our Bathophenanthroline in publications on advanced iron sensors, photocatalysis development, and even as a model ligand for crystallographic benchmarking. Their trust builds our business—not empty claims on a datasheet.
Technical distinctions matter. Standard 1,10-phenanthroline never shows the same affinity for ferrous ions under variable pH conditions. The structure of Bathophenanthroline, sporting two phenyl groups at the 4 and 7 positions, means reduced cross-reactivity and broader operator tolerance. Chemists can push their reactions further, tolerate more background matrix in water analysis, and keep interference from common contaminants at bay. This comes straight from comparative studies run in-house and reported by clients, rather than from generic technical cut sheets.
Our synthesis route, fine-tuned over years of scale-up, ensures no batch-to-batch drift in ligand purity or crystal habit. Decomposition products—perennial headaches for high-sensitivity users—are stayed at the minimum. Only a process grounded in large-scale experience can deliver genuinely low residue content. The powder flows freely, dissolves at predictable rates, and dissolves to clarity, making preparation of test solutions repeatable across skill levels. Looking at side-by-side results against regular phenanthroline and cheaper derivatives, Bathophenanthroline’s edge is real, not rhetorical.
The reagent’s stability also finds favor in high-throughput labs. Technicians note that the solution remains stable for longer periods, critical for process control in repetitive workflows. Results do not drift across days, so there’s no need to recalibrate mid-run or repeat control checks after overnight storage. This comes directly from daily user experience—something not easy to capture in abstract product showcases. Our technical team takes these lessons and feeds them back into the process, closing the loop from development to final use.
Supporting academic and commercial science is never just about supply. We keep direct lines of communication with end users—from doctoral candidates preparing iron assays, to industrial process chemists. Each client’s method may differ, but their need for consistent quality remains the same. Precision in manufacture gives assurance in results. Our in-process control points check for key properties: solubility in ethanol and water, confirmed melting point matches, absence of colored tars, and HPLC profile purity. We report real values, not rounded-up guarantees.
We noticed over the years that corrosion control researchers, environmental labs, and food quality control analysts all rely on subtle differences in reagent profile. Too many sources deliver generic material—sometimes dusty, sometimes off-color, sometimes low in actual content if checked by independent labs. We watch for feedback—when a sample falls short, we retrace, reanalyze, and adjust. This relationship with users grounds our daily work and motivates process upgrades or custom lots where needed.
Our competitors—both domestic and overseas—have rushed lower-purity Bathophenanthroline to market. Some downgrade specifications to shorten lead time or cut costs by finishing purification with less thorough washes. We have seen researchers waste days troubleshooting unexplained baseline drift or inconsistent color development. Our own factory testing revealed that even small residual organic impurities affect photometric readings and long-term storage. We take this seriously and share details about impurity profiles absent in most catalogs.
Another challenge emerges from package stability and shelf life. Our material undergoes extended storage and shipping tests. Only after passing real-world conditions do we adopt modifications, such as improved moisture barrier bags or inert gas flushing. The cost of such changes is real, but so are the benefits for users needing fully active Bathophenanthroline months or years after delivery. We watch returns, shelf complaints, and field tests closely, learning each season how best to refine handling and logistics.
While the textbook synthesis for Bathophenanthroline appears straightforward, moving from gram to kilogram scale brings new demands. Solvents, temperatures, and filtration steps have to be reexamined at every scale-up stage. By keeping a close eye on solvent recovery and waste minimization, our teams lowered the environmental impact and operating costs. We handle raw material traceability through every batch record—essential in today’s chemical industry, where compliance and customer trust hinge on transparency.
Constant feedback encourages minor, practical improvements instead of chasing novelty for its own sake. For example, we found that some users needed faster-dissolving variants, so our engineering team improved the grinding and sieving stages. Others preferred tightly controlled particle size, especially in automated dispensing systems. We provide real particle size distribution data in the COA, backed by laser diffraction or sieve analysis rather than rough estimates.
Many new entrants to fine chemicals underplay safety and regulatory standards, cutting corners on material handling or worker protection. We work within international health and safety benchmarks. Solvent recovery stations reduce operator exposure and environmental risk. Experienced personnel monitor every purification run, using real-time analytics in proper PPE. Our packaging lines maintain ISO-compliant cleanroom standards, so exterior contamination never becomes a concern for downstream users. Shipment documents always include substance identification and hazard labels, reflecting our aim to keep every link in the supply chain informed and protected.
We also invest in staff training for the risks and safe handling required when producing and packaging specialty ligands. While Bathophenanthroline does not pose the acute hazards of some metal reagents, it still requires respect—minimizing dust generation, preventing spills, and providing proper clean-down post-packaging always part of our workflow. This diligence reduces accidents, environmental releases, and supports site inspection readiness. Users in regulated industries appreciate the peace of mind that comes with this attention to detail.
Our company keeps sustainability goals front and center. Every year, we identify ways to recycle solvents and reduce single-use plastic. Waste minimization forms part of our operator training and annual audit. Bathophenanthroline’s relatively low toxicity gives it an advantage over more hazardous reagents, but we still strive to reduce downstream disposal concern. Larger orders come in high-barrier, returnable containers whenever possible. Clear labeling and MSDS support make integration in “green” laboratories smooth. Even as we follow changing international regulations, we hold to genuine reporting—never dressing up non-essential changes as innovations just to impress buyers.
Real chemical manufacturing does not end at the warehouse door. We routinely consult with users working on advanced analytical or synthetic projects. Their protocols sometimes call for unique grades or performance tweaks. Whether adjusting particle size for a liquid handling robot, or assuring photometric background levels for trace iron work, we remain open to pilot lots and unique solvents, within the chemistry’s constraints. Our laboratory teams run small-scale trials, reporting both successes and setbacks. Failures teach more than victories, and every lesson shapes the process—leading to honest support when users reach out with technical queries.
We value transparency over quick sales. We explain both the limits and strengths of Bathophenanthroline, suggesting alternatives when user needs point elsewhere. Feedback on long-term stability, sample contamination, or unexpected spectral background gets relayed to the production team. This two-way exchange forms the backbone of long business relationships, as our user base grows from repeat clients and word of mouth.
Science and industry march forward, with new analytical protocols and synthetic needs. We track published findings that cite Bathophenanthroline in catalysis, molecular electronics, and emerging sensing platforms. Behind the scenes, lab staff shift conditions, scan for new byproducts, and check performance in changing process environments—all to ensure continued relevance in modern applications. Outreach to academic groups and research consortia keeps us on our toes, as we must meet projects with challenging performance tolerances.
Through years in the field, we have learned that reliability, clarity in communication, and genuine partnership make the biggest difference for users. Bathophenanthroline looks like a simple powder, but its value emerges with every successful analysis, every trouble-free day in the lab, and every published result built on data. Our commitment remains rooted in the details—batch controls, honest QA, and learning directly from those who use what we make. As manufacturing evolves, we carry these principles forward, knowing it serves not just us, but the entire scientific community relying on results they can trust.