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Aminoguanidine Bicarbonate

    • Product Name Aminoguanidine Bicarbonate
    • Alias PCA
    • Einecs 237-419-9
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    180841

    Chemical_Name Aminoguanidine Bicarbonate
    Molecular_Formula CH6N4·H2CO3
    Molar_Mass 152.11 g/mol
    CAS_Number 2582-30-1
    Appearance White crystalline powder
    Solubility_in_Water Soluble
    Melting_Point Decomposes
    Odor Odorless
    Density Approx. 1.4 g/cm3
    pH Slightly basic (in solution)

    As an accredited Aminoguanidine Bicarbonate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Aminoguanidine Bicarbonate, 500g, packed in a tightly sealed, amber HDPE bottle with a tamper-evident cap and labeled for laboratory use.
    Shipping Aminoguanidine Bicarbonate should be shipped in tightly sealed containers, protected from moisture and heat. It must comply with local regulations concerning chemical transport, typically requiring labeling for laboratory or industrial chemical use. Transport should avoid direct sunlight and be handled with care to prevent rupture or accidental spillage.
    Storage Aminoguanidine Bicarbonate should be stored in a cool, dry, and well-ventilated area away from sources of heat, ignition, and incompatible substances such as strong oxidizers and acids. Keep the container tightly closed and securely labeled. Protect from moisture and direct sunlight. Store in original packaging or a suitable chemical-resistant container to prevent contamination and decomposition.
    Application of Aminoguanidine Bicarbonate

    Applications of Aminoguanidine Bicarbonate in Industrial Manufacturing

    Aminoguanidine Bicarbonate serves as a specialized intermediate and functional additive in several established industrial sectors. Its reactive properties, compatibility with multiple process chemistries, and ability to contribute to targeted synthesis pathways have supported adoption by downstream manufacturers in select domains. The following application scenarios detail its specific value and integration based on sector standards, formulation practices, and processing methodologies.

    1. Pharmaceuticals: Anti-Diabetic Bulk Drug Synthesis

    In the pharmaceutical sector, aminoguanidine bicarbonate contributes as a key starting material in manufacturing hydralazine derivatives and certain anti-diabetic agents, especially where controlled nitrosation reactions are required. Its well-documented reactivity profile enables consistent lot-to-lot reproducibility vital to API synthesis processes, and its usage aligns with requirements for upstream purity and traceability set by regulatory authorities. Manufacturers directly integrate aminoguanidine bicarbonate at the first condensation or hydrazinolysis stages to achieve defined intermediates with minimal byproduct formation, ensuring all downstream purification steps remain efficient for high-potency actives.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • US Pharmacopeia (USP) General Chapter <823>
    • European Pharmacopoeia monographs referencing hydralazine and related substances
    • FDA cGMP guidelines, 21 CFR Parts 210 & 211

    Typical usage ratio

    • Range: 1.2–1.5 molar equivalents per target moiety, with final ratio adjusted based on batch scaling and desired impurity profile

    Downstream process integration

    • Initial charge in condensation reactions for formation of aminoguanidine-based intermediates
    • Control addition to manage exotherm and pH during nitrosation steps
    • Intermediate isolation for input into subsequent heterocycle construction steps

    Final product types

    • Hydralazine hydrochloride and sulfate tablets/injectables
    • Anti-diabetic bulk APIs (e.g., guanidine derivatives)
    • Cardiovascular system active ingredients
    • Pharmaceutical-grade intermediate chemicals

    2. Explosives: Gas Generator and Propellant Formulation

    In the explosives and energetic materials industry, aminoguanidine bicarbonate functions as a critical gas generating agent and as a precursor for tetrazole- and triazole-based primary explosives. Where controlled decomposition rates and low-toxicity byproducts are essential, downstream formulators leverage its predictable gas evolution profile within pyrotechnic compositions. Material into these applications must not only be of consistent granularity but must also meet specific impurity thresholds to avoid instability during storage and deployment.

    Industry compliance standards

    • UN Recommendations on the Transport of Dangerous Goods (UN Model Regulations)
    • US DoD MIL-STD-286C Explosives, Nitrocellulose Safety Data
    • REACH pre-registration and explosives precursors compliance
    • ISO 9001 Quality Management for Explosives Production

    Typical usage ratio

    • Ranges from 8% to 18% by mass in propellant or gas generator blends, adjusted per required burn rate and vehicle system requirements

    Downstream process integration

    • Dry mixed with oxidizers and metallic fuels prior to pelletizing or granulation
    • Thermal decomposition control in direct synthesis of tetrazole energizers
    • Direct inclusion during dough preparation for gas generator tablets

    Final product types

    • Automotive airbag inflators (gas generant tablets)
    • Initiating explosive powders (tetrazole derivatives)
    • Specialty propellant charges
    • Smokeless pyrotechnic devices and gas release cartridges

    3. Agrochemicals: Plant Growth Regulator Intermediate Production

    In the agrochemicals sector, downstream manufacturers use aminoguanidine bicarbonate as a synthetic intermediate for specific plant growth regulators (PGRs), particularly those influencing anti-senescence or ethylene inhibition properties. Being a precursor for defined guanylurea and related compounds, it enters formulation streams where precise structure-activity relationships must be maintained. Compliance with international agrochemical standards drives the need for traceability of all amine-based intermediates, and manufacturers monitor levels closely to avoid carry-over residues into final crop treatment products.

    Industry compliance standards

    • FAO/WHO guidelines for pesticide and plant regulator manufacturing
    • OECD Principles of Good Laboratory Practice (GLP)
    • ISO 9001:2015 Quality Control for Agrochemical Synthesis
    • China GB2763 Maximum Residue Limits for Pesticides

    Typical usage ratio

    • Usually 0.3–1.0 molar equivalents per batch, up to 4% by total batch mass for PGR intermediate synthesis, based on downstream molecule complexity

    Downstream process integration

    • Charged during aminolysis or cyclization reactions for urea-based regulators
    • Input as an amination agent in closed vessel processes
    • Continuous process feeding for guanylurea analogs

    Final product types

    • Guanylurea-based plant growth regulators (PGRs)
    • Anti-senescence crop treatment solutions
    • Ethylene inhibitor formulations
    • Bulk PGR intermediates supplied to seed and fertilizer producers

    4. Polymer Additives: Blowing Agent Precursor for Specialty Foams

    In polymer manufacturing, aminoguanidine bicarbonate functions as an efficient nitrogen source in the synthesis of azo-type chemical blowing agents for specialty foams, including those used in insulating panels and gasketing materials. Manufacturers value its controlled decomposition characteristics, which facilitate generation of a fine, uniform cell structure during the extrusion or molding of various plastics. Formulators must balance additive ratios with end-use density requirements, and all input chemicals must conform to recognized safety and emissions guidelines pertaining to workplace exposure and environmental release.

    Industry compliance standards

    • EU REACH Registration, Evaluation, Authorization and Restriction of Chemicals
    • OSHA 29 CFR Part 1910 for workplace chemical safety
    • ISO 14001 Environmental Management for polymer facilities
    • GB/T 16999 Test Methods for Foamed Plastics

    Typical usage ratio

    • Generally 1.5%–3% by total polymer mass, fine-tuned according to desired foam expansion ratio and product thickness

    Downstream process integration

    • Blended into resin pre-mix prior to extrusion or injection molding
    • Thermal activation for in-situ generation of azodicarbonamide or similar blowing agents
    • Incorporated in closed-compounder lines for custom foam products

    Final product types

    • Insulating foam sheets and panels (PVC, polyethylene, polyurethane foams)
    • Gasket and sealing materials featuring microcellular structures
    • Low-density specialty foams for automotive and construction applications
    • Custom-blown foamed plastics with high thermal resistance
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    Certification & Compliance
    More Introduction

    Aminoguanidine Bicarbonate: Manufacturing Value through Reliable Chemistry

    Bringing Real-World Benefits to Process Chemistry and Research

    Over years at the reactor, Aminoguanidine Bicarbonate set itself apart in our production lines—both for its chemical properties and for the breadth of applications it supports. As chemical manufacturers, we shape each batch with a careful focus on crystallinity, moisture purity, and reproducibility, because consistency from shipment to shipment matters for everyone down the line. Every time a customer depends on our material, we're reminded: small lapses in process control can cascade down as large setbacks in someone else's lab bench or process vessel.

    Understanding Our Product: From Synthesis to Real Use

    Aminoguanidine Bicarbonate (AGBC), white and finely crystalline, brings a unique value proposition. Chemically, it stands as a bicarbonate salt of aminoguanidine, a compound known for its reactivity and role in synthesis pathways, especially where diazotization, reduction, or nucleophilic addition reactions are involved. Our most-trusted model grades deliver a high purity, typically over 98%, with moisture routinely controlled under 0.5%. Those numbers come from direct process monitoring—real checks in practical plant conditions, never theoretical allowances or desk-calculated percentages.

    What matters most for our clients often isn't the theoretical pathway, but the reliability under practical working conditions. A batch of material must dissolve easily, with no clumps, fines, or the misleading gray cast that results from trace iron or organic contaminants. Each drum or bag that leaves our doors undergoes independent, instrument-verified checks—not just paper COAs, but in-house NMR, melting point, and controlled drying cycles that match the actual conditions found in scale-up labs or production reactors.

    Manufacturing Experience: Why Specifications Translate to Better Outcomes

    Specifications mean little unless they're achieved consistently—and they're only meaningful if they're based on what matters during application, not just regulatory checklists. From the factory floor, what becomes clear is that AGBC with a stable melting point and lot-to-lot similarity allows users in pharmaceuticals, fine chemicals, and even for specialty detonator or biochemistry applications to avoid last-minute surprises and costly repeat testing. A few degrees’ difference in melting point, or higher residue on ignition, can trigger revalidation and ruin production efficiency.

    Physical form impacts downstream blending, weighing, and solution preparation. Overly wet or overly dusty product not only frustrates users but also introduces variable dosing and potential machine fouling in tablet presses or automated pipettors. That's why our team refined filtration, drying, and milling procedures through direct feedback from users who know the frustration of ordering from broad-line distributors with little process-control accountability.

    Why Aminoguanidine Bicarbonate Stands Out from Related Products

    Aminoguanidine Bicarbonate isn't just another chemical in the catalog; its behavior in process reflects distinct strengths and a few known limitations. Compare it with aminoguanidine hydrochloride or nitrate: the bicarbonate salt often brings lower corrosivity, less risk of chloride or nitrate contamination, and easier post-reaction cleanup when working in sensitive synthetic transitions. In biochemistry, bicarbonate leaves behind minimal interfering anions, which can matter in analytical work or bioassay preparation.

    If you’re familiar with alternative aminoguanidine salts, the bicarbonate form’s lower hygroscopicity offers a shelf-stable advantage. That means fewer headaches in humid environments, reduced agglomeration, and less compaction during warehousing—small details that add up in contract manufacturing or logistics. The inherent safety profile also tends to rate higher than nitrate or perchlorate salts, which face tighter scrutiny for transport and storage.

    On the practical side, AGBC handles crystal formation well, with less risk of dust or exothermic decomposition. We maintain temperature and pH control at every synthesis and purification phase to guarantee that no oxidizable precursors or side-products survive into the final fill. Some competitors may favor bulk, ungraded production, but field feedback from hundreds of synthetic campaigns makes the case: only tailored batch control and real-world feedback loops sustain consistent crystal habit and color.

    Practical Application and Feedback from the Field

    The real test of any chemical comes in its application. AGBC serves across an array of needs, from precursor syntheses in active pharmaceutical ingredient (API) routes to roles in developing advanced polymers, specialty coatings, and industrial explosives. Hands-on production has shown that users in R&D appreciate materials that offer both high titer content and ease in post-reaction separation. Results from our own technical support lines and site visits underscore the value of a non-caking, free-flowing material—especially in pilot or scale-up environments where clump formation translates directly into process downtime.

    Our collaboration with academic research groups and custom synthesis labs routinely points to one key lesson: the purity and physical form of AGBC can make the difference between a successful reaction and lab frustration. The bicarbonate counterion avoids the extra steps and pH swings introduced by more acidic or oxidative salts, cutting down on extraneous buffer use or scavenging treatments. Years of shipped lots have confirmed that with diligently controlled bicarbonate lots, side reactions drop, and purification stages require less effort.

    Quality through Direct Manufacturing Control

    Manufacturing AGBC on-site brings advantages beyond supply chain control. Each step—starting from the choice of raw materials, moving through crystallization, drying, and custom sieving—happens within our own facilities. Our operators work closely with both QC analysts and application engineers. That means tighter batch records, fast feedback loops, and the ability to resolve any anomaly at source.

    We invest directly in modern analytical instrumentation. Each production lot undergoes not just basic identification or titration, but more advanced spectroscopic and chromatographic profiling, plus batch-matched moisture testing under varied temperature and humidity cycles. This approach doesn't just tick regulatory boxes; it means every customer order reflects the true composition of what we packaged, not a statistical average from a giant multi-site warehouse.

    Our manufacturing team has learned the pitfalls of outsourcing or trusting third-party standards—resulting in inconsistent batches, questionable documentation, and recurring process upsets at the customer’s plant. By maintaining direct oversight of every production variable, we eliminate much of the risk and differentiate our AGBC from warehouse-stocked, volume-traded material that might have passed through too many hands.

    Addressing Supply Chain and Regulatory Challenges

    In recent years, the chemical supply chain has come under increasing scrutiny—regulations have tightened, especially on ammonium, nitrate, and related precursors, and traceability from lot to lot faces sharper regulatory review. Our team addresses these shifts by embedding full material genealogy and batch traceability into each step, from raw inputs to packaged shipments. Clients seeking to pass customs inspections or audit reviews stand to gain from that invested transparency.

    Through years of regulatory change—whether REACH in Europe, TSCA in the US, or differing protocols from Asia-Pacific—direct manufacturers like us encounter the full breadth of compliance workflows. We navigate these curves by keeping compliance teams up to date with current, hands-on training and documented procedures. That's more than box ticking; it shapes the way we select packaging (anti-static, moisture-repellent, low-dust), handle labeling (with clear, batch-specific production dates), and prepare for hazardous goods transport where required.

    The past few years have also underscored the downside of relying on “gray market” or bulk-relabeling traders who can’t guarantee either source or quality. End users caught in this trap often confront failing batch runs, untraceable contaminants, or reprocessing costs—problems reverberating through the value chain. By maintaining manufacturing and full analytical records internally, we bring clarity and mitigate the risk of expensive recalls, regulatory delays, or compliance failures.

    Continuous Improvement through Application Feedback

    Many improvements in our current AGBC process came straight from customer feedback—real experiences of bench chemists, pilot plant managers, and QC analysts reporting unexpected behavior or physical changes. Through regular follow-ups and batch history analysis, we’ve altered several purification and drying stages, responding to concerns about color shifts, trace moisture, or particle size distributions impacting automated dispensing.

    In chemistry manufacturing, experience reinforces that changes on paper rarely translate to improvements unless they're tested at field scale. Our teams run regular pilot batches and cross-test against industry reference samples. The result: lower impurity profiles, reduced caking, more reliable flow, and minimal dusting—all features that our clients tell us ease their downstream process control and QC procedures. This iterative approach extends to packaging upgrades. We now offer controlled-vent drums and high-barrier liners that preserve product integrity across multiple climate zones or extended storage.

    Training and Safety: Beyond Minimum Requirements

    Handling AGBC safely and efficiently means more than following a material safety data sheet. In our plants, every operator receives job-specific chemical handling, storage, and emergency response training, refreshed at regular intervals. We keep close contact with local safety authorities and monitor our hazard control benchmarks. Each filling line has clear process-specific risk assessments. While AGBC is less hazardous than certain energetic salts, neglect or cross-contamination poses its own risks—especially where oxidizable organics could accumulate or react inadvertently.

    We provide technical literature and direct user support that builds on years of manufacturing knowledge, not generalized or overly legalistic warnings. Emphasis falls on practical handling tips—such as dry transfer methods, staged dilution for large-scale solution prep, minimizing static during blending, and recognizing early signs of unwanted moisture pickup or browning from long exposure to air.

    Supporting Researchers and Scale-Up Teams Directly

    For early-stage researchers or scale-up teams, AGBC’s reliability can play a key role in meeting project goals on time. Several users have reinforced the importance of transparent, consistent supply—not just short-term cost but documented process reproducibility that holds up in tech transfer reports or regulatory filings. Our approach supports these outcomes by aligning lot retention, trace documentation, and on-request sample archiving. If users encounter an unexpected shift in reactivity or recovery, we maintain reference records to aid troubleshooting or exclusion of outlier raw materials.

    Scale-up engineers remind us often: changes in supplier grade or purity can throw off entire predictive models built for process optimization or GMP validation. This direct line of communication influences both batch scheduling and process controls, keeping our reproducibility rates high even as demand and regulatory requirements evolve.

    Innovation and the Path Forward

    Process chemistry never stands still. Ongoing customer requests and review of new patents drive our development labs to look for ways to further reduce impurity loads, improve particle engineering, and tailor packaging formats to niche or expanding markets. For example, users in advanced explosives research requested even tighter ammonium residual controls to avoid cross-reactivity—an input that led us to new ion-exchange steps and extra post-crystallization washing options. These adjustments impacted not just published impurity profiles but real user experiences—safer handling, more stable blends, and reduced loss on drying.

    At the manufacturing level, we’re evaluating more sustainable process inputs and solvents to match our environmental and supply chain stewardship targets. Regulatory pressures have pushed us to explore greener neutralization, reduced wastewater output, and energy usage during drying, all part of our long-term business approach—not simply reacting to outside pressure but aligning with a broader responsibility ethos. Feedback from customers with LEED or ISO 14001 targets further informs our sustainability investments.

    Why Manufacturing Matters: The Difference Shows in the Details

    AGBC production involves more than transferring knowledge from textbook pathways to plant-scale reactors. The lessons of hands-on manufacturing—control strategies, response to subtle deviations, and proactive communication with clients—sharpen our ability to deliver practical, user-driven solutions. We hold ourselves accountable for what leaves our site because our name, and the long trust we’ve built with process engineers, hinges on that promise.

    Over years in operation, the conclusions feel simple after the fact: customers want reliability, clear feedback, and responsive support, not merely a specification sheet. Every kilogram of AGBC owes its value not to paper purity or spec stacking, but to the depth of manufacturing stewardship, transparency, and care that underlies it. We stand behind every lot, knowing that truly effective chemistry makes its mark only when it works—repeatably, safely, and in tune with what end users actually face in the real world.