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HS Code |
263412 |
| Product Name | Diacetylguanine |
| Chemical Formula | C7H7N5O2 |
| Molecular Weight | 193.17 g/mol |
| Cas Number | 937-52-2 |
| Appearance | White to off-white powder |
| Solubility In Water | Slightly soluble |
| Melting Point | 260-265°C |
| Purity | Typically ≥98% |
| Storage Conditions | Store at 2-8°C, dry place |
| Synonyms | 1,7-Diacetylguanine |
| Application | Biochemical research |
| Boiling Point | Decomposes before boiling |
As an accredited Diacetylguanine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Diacetylguanine is supplied in a 5-gram amber glass vial with screw cap, clearly labeled with chemical name, quantity, and hazard warnings. |
| Container Loading (20′ FCL) | 20′ FCL container loading for Diacetylguanine ensures secure, bulk packaging, proper labeling, and transport compliance for efficient international shipping. |
| Shipping | Diacetylguanine should be shipped in tightly sealed containers, protected from light, moisture, and extreme temperatures. Ensure compliance with relevant chemical transport regulations. Label packages clearly with hazard information, and use appropriate cushioning to prevent breakage. Ship via a certified courier experienced in handling laboratory chemicals to ensure safe, prompt delivery. |
| Storage | **Diacetylguanine** should be stored in a tightly closed container, kept in a cool, dry, and well-ventilated area away from direct sunlight. Protect it from moisture and incompatible materials such as strong oxidizing agents. It is best stored at room temperature and away from heat sources to prevent decomposition. Always follow proper chemical safety protocols when handling and storing. |
| Shelf Life | Diacetylguanine typically has a shelf life of 2-3 years when stored in a cool, dry place, protected from light. |
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Purity 99%: Diacetylguanine with 99% purity is used in pharmaceutical synthesis, where it ensures high reaction selectivity and minimal by-product formation. Molecular weight 181.16 g/mol: Diacetylguanine with a molecular weight of 181.16 g/mol is used in nucleoside analog development, where precise mass enables accurate compound integration. Melting point 225°C: Diacetylguanine with a melting point of 225°C is used in high-temperature ligand design, where thermal stability maintains compound integrity during processing. Particle size <10 µm: Diacetylguanine with particle size below 10 µm is used in formulation of solid dispersions, where improved dissolution rates enhance bioavailability. Solubility in DMSO 50 mg/mL: Diacetylguanine with a solubility of 50 mg/mL in DMSO is used in high-concentration solution preparations, where ease of mixing accelerates experimental workflows. Stability at pH 7: Diacetylguanine with stability at pH 7 is used in enzymatic assay buffers, where maintained molecular structure supports consistent reaction results. UV absorbance 260 nm: Diacetylguanine with UV absorbance at 260 nm is used in spectrophotometric analysis, where clear detection facilitates accurate quantification in research. Residual moisture <0.5%: Diacetylguanine with residual moisture less than 0.5% is used in lyophilized reagent manufacturing, where low water content prevents degradation during storage. |
Competitive Diacetylguanine prices that fit your budget—flexible terms and customized quotes for every order.
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Since our founding, we have focused on precision chemical manufacturing that depends on rigorous process control and ethical sourcing. Our team works hand-in-hand with our process engineers and chemists, not just to maintain output, but to ensure advanced molecules like Diacetylguanine consistently achieve the standards our customers expect. In our plant, every batch is watched, measured, and verified. You see it in the clarity, in the crystalline appearance, and in the downstream consistency researchers and manufacturers have reported to us for years.
Diacetylguanine is not just another chemical on our order sheet. Teams in pharma research, agricultural biotech, and specialty materials have come to rely on this compound's reliability and purity. They trust our attention to purity levels and batch consistency. This keeps projects moving and budgets intact, year after year.
The path to high-purity Diacetylguanine involves careful management at many stages. We monitor our process from raw input to final drying, so you don’t need to worry about undetectable contaminants sneaking in. Our product’s typical assay reaches upwards of 99%, measured at the micro-impurity level, regularly confirmed by HPLC. Water content is kept well below 0.2% after controlled drying, so sensitive formulations stay stable.
Chemists and small-batch formulation scientists will notice how the absence of extraneous salts and byproducts lets them use our product straight from the container. Feedback has shown that this level of detail reduces troubleshooting and rework further down the line. Whether your application involves DNA base analog studies, nucleic acid modification, or specialty material synthesis, exact performance gets supported batch after batch.
Those of us who supply and work with Diacetylguanine see most customers in molecular biology, pharmaceutical research, and biochemical engineering. For many biologists, this compound stands out as a cornerstone for studying nucleic acid interactions. Its defined structure makes it indispensable in probe design and nucleotide analog synthesis. We have even seen it used in advanced optoelectronic projects, where researchers leverage its molecular features for new types of organic semiconductor layers.
Some teams in pharmaceutical development choose Diacetylguanine as a building block for lead compound exploration. Its reactivity and stability provide a foundation for structural analogs that would not survive in harsher synthetic conditions. Several of our industrial partners use it during pilot-scale syntheses, benefiting from our consistent lot quality and absence of batch-to-batch deviation.
In agricultural chemistry, certain labs report that Diacetylguanine allows early-stage evaluation of nucleic acid function modulators for genetic trait engineering. Because of our focus on trace purity, they can attribute research results to the molecule itself, not to accidental impurities.
Plenty of guanine analogs exist. Some competitors push pure guanine or structurally similar molecules for “flexibility.” Those products do have applications, but the differences become clear in synthesis reactions and assay reproducibility. Native guanine suffers from solubility limits and can harbor trace oxidized contaminants, even after careful storage. We hear from scientists frustrated with unexplained side-reactions or inconsistent absorbance readings in standard UV-Vis scans.
Using Diacetylguanine, our customers sidestep these issues. The acetyl groups enhance solubility and make selective modifications more feasible. Our experience confirms that reactions involving protected derivatives yield cleaner conversions and require less purification. We have run pilot syntheses in our own labs to optimize downstream de-protection steps, reducing unwanted side-products versus less tailored guanine derivatives.
Researchers who moved projects from non-acetylated guanines to our Diacetylguanine frequently comment on the practical improvement in yield consistency and in spectral clarity. They report that downstream photometric and chromatographic studies deliver sharper signals, crucial for accurate quantification and publication-quality data.
Manufacturing Diacetylguanine responsibly is about more than batch records and process controls. Our facility is located in an area with strict environmental oversight, so waste streams are minimized and spent reagents are captured. Where possible, we recover solvents onsite, cutting down on raw material imports and reducing disposal risks. The personnel in charge of these systems work closely with product engineers to find greener alternatives for critical steps.
The demand for purity goes hand in hand with safety. Every time Diacetylguanine leaves our plant, the chain of custody can be traced back to the initial lot. Our own chemists recognize the importance of reliable, clean chemicals for their colleagues elsewhere. Years ago, we learned that skipping corners in process controls always leads to greater costs down the line: lost research hours, failed syntheses, uncontrolled contamination, and regulatory headaches.
Each project we support helps build a more predictable supply chain. Detailed, honest certificates of analysis travel with every delivery—so the labs receiving them can cross-check values, not just accept them blindly. We encourage open feedback and make process tweaks when practical improvements crop up, especially when users share real-world hurdles they face. This ongoing dialogue has led us to introduce lot-specific documentation and regular reviews of our analytical methods.
Some of the most meaningful feedback we get comes from researchers working on grant-funded timelines, where every day matters. One research team told us how a stretch of inadequate purity from another source set back their qPCR probe synthesis for weeks. After switching to our Diacetylguanine, they reported not only improved product formation but also a more streamlined purification process.
In industrial applications, procurement managers highlight the cost-effectiveness that results from reliable yield and less downtime. Several mid-scale formulations previously experienced repeated delays due to inconsistency in guanine sources. Our careful control of starting material sourcing and finished product release dates addresses these pain points directly.
Some customers are looking for regulatory clarity, especially in pharmaceutical development. For these users, batch documentation, change notification, and full traceability back to the raw input materials build trust and help streamline their own validation processes.
Every time we receive performance updates, we take them seriously—adapting internal targets or refining customer guidance around storage and handling if necessary. We know how much effort goes into planning and executing each batch, not just for us but for every research or manufacturing team up and down the line. Our own staff have worked on both sides of the operational divide, so we keep a close ear to the realities of tight grant cycles and unforgiving production deadlines.
Our own R&D staff have spent years exploring the best uses for Diacetylguanine. In the course of developing in-house methodologies, we found that reactions calling for controlled hydrolysis or site-selective deprotection yield better control when starting with acetyl-protected guanine. Basic guanine analogs have their place, but Diacetylguanine’s chemical shielding enables more nuanced synthetic planning.
Access to consistently pure Diacetylguanine prevents the kinds of troubleshooting spirals that result from batch impurities or unpredictable side chemistries. We prioritize application notes drawn from hands-on lab trials, so when customers ask for best practices, we provide guidance informed by both the literature and our plant’s own experience.
In collaboration with external labs, we have vetted new analytical approaches for real-time monitoring of Diacetylguanine reaction progress. Shifting from endpoint testing to ongoing in-process checks helped us catch minor deviations before they could become problems. These practices benefit every customer, and we regularly update our documentation with the latest performance metrics and notes of observed reaction behaviors.
Chemical supply chains remain vulnerable to interruptions. Recent years have tested suppliers and end users alike. We have invested in forward supply contracts for our key starting materials and built redundancy into storage protocols so short-term disruptions abroad never cascade into missed deliveries at home.
Quality means little if you cannot get reliable supply. Our logistics team maintains close communication with freight and storage partners. Incoming raw materials receive identity testing before entering our lines, and outgoing products undergo a second verification. We operate a buffer inventory to accommodate surge demand or unexpected customs bottlenecks. For larger industrial clients, those who require scheduled and forecasted deliveries, our operations offer flexible allocation options—so critical projects never pause waiting for a vital shipment.
We keep our team in the loop at each stage, adapt production in response to changing market dynamics, and invest in ongoing skills development for our technicians. No plant runs on autopilot; it’s the judgment and vigilance of experienced team members that make the difference during uncertain times.
From firsthand experience, poor handling and improper storage cause more problems than almost any formulation detail. Diacetylguanine enjoys a relatively stable shelf life under dry, ambient conditions, but moisture uptake undermines batch performance quickly. We instruct our customers to reseal containers tightly after every use and store them away from temperature swings. Our packaging now comes with humidity indicators as a result of feedback from clients frustrated by earlier caking issues.
Certain synthesis steps call for precise solubility adjustments. Labs using aged solvents or skipping filtration before adding Diacetylguanine run into particulate problems that impact downstream purification. We recommend solvent degassing and microfiltration, especially in high-throughput settings. Trial runs inside our own facility confirmed that these simple steps saved significant time and raw materials by improving repeatability.
Collaborating with both research and industrial users, we have issued guidance documents that address common troubleshooting steps for those shifting from unprotected to protected guanine derivatives. This includes mixing times, temperature profiles, and deprotection protocols. In contentious cases, we have set up side-by-side control reactions to demonstrate the impact of single-parameter adjustments, then shared results so customers can adopt or adapt as needed. We tailor support based on the questions and outcomes sent to us—every operational context has its nuances, and we don’t expect a textbook answer to fit every lab’s workflow.
The dialogue does not stop at shipment. We encourage customers to report unexpected results or ask for batch-specific technical guidance. This post-purchase interaction has revealed solutions that might otherwise go unnoticed, like using nitrogen backfill for long-term storage or optimizing for anhydrous conditions during particularly high-temperature steps.
The field’s needs keep evolving. Every year, new synthetic targets emerge, placing different demands on reagents. Our team maintains an open feedback loop with academic and industrial partners to stay ahead of these shifts. We invest in new analytical equipment and keep our procedures flexible enough to accommodate method upgrades as standards advance.
Cost remains a real consideration. Rather than blind cost-cutting, we search for process adjustments that lower labor or raw material input without compromising purity. This might mean reclaiming solvents, adjusting drying times, or tweaking crystallization controls. Each step gets validated internally before changing a routine. The savings get passed directly, maintaining Diacetylguanine’s accessibility across both research and applied domains.
Our chemists and engineers have a personal stake in these results. They see firsthand how the smallest process adjustment can affect outcomes in the field. This culture of responsibility and mutual trust shapes each batch. By investing in skill-building, open reporting, and active problem-solving, we keep Diacetylguanine at a standard that meets real-world expectations, not just regulatory minimums.
Making Diacetylguanine at scale is not a matter of running equipment and ticking boxes. It means anticipating failure points, analyzing every deviation, and staying flexible in the face of constant change. We partner with labs and manufacturers who share our standards, some of whom have worked with us for a decade or longer. These relationships motivate us to keep tuning our process and prioritizing the blend of reliability, safety, and adaptability.
Trials with every batch might seem tedious, but we have seen firsthand how one unchecked impurity can derail months of research. We commit to full disclosure of analysis, transparent operational changes, and listening to the experiences of our end-users—because every hour saved in troubleshooting is an hour gained in progress.
In practice, this has meant developing our own internal audit checklists, supporting customers through holiday delivery crunches, and even offering direct technical consultations when troubleshooting proves especially tough. There is no shortcut to the value of direct experience and hands-on accountability, both on the shop floor and in the lab. Every day brings a new challenge, whether it’s a novel request from a biotech startup or another round of scale-up trials in our own facility.
We know Diacetylguanine from its molecular structure to long-term storage needs. Our production floor gets feedback directly from the field team who consult with customers and from our own chemists running sample syntheses. Experience underpins every operational decision. The staff who manage our reactors and dryers include professionals who have handled failures and emergencies; these lessons inform everything, from keeping rigorous maintenance logs to insisting on third-party verification for critical shipments.
Each year, external audits and certifications provide accountability. Internal audits set expectations higher. Process improvement happens not just for regulatory purposes, but to meet the benchmarks our most discerning partners want to see. Whether research or industry, Diacetylguanine remains a trusted tool for those who demand reliability and accountability.
Our focus has always stayed on delivering what matters—reliability, purity, traceability, and honest technical support—without the distractions of marketing gloss or abstract claims. Diacetylguanine, like every specialty compound we manufacture, stands as a reflection of how seriously we take our craft. With each shipment, we reaffirm our role as partners to the scientific community, committed both to continuous improvement and to the hard, daily work needed to support discovery and production on the front lines.
Diacetylguanine’s performance, reliability, and reproducibility come from a combination of chemistry, personal accountability, and operational discipline. Our customers expect results they can stand behind, and so do we.