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HS Code |
765548 |
| Product Name | Azodicarbonamide(10-15um)SA1000 |
| Chemical Formula | C2H4O2N4 |
| Appearance | Yellow to orange crystalline powder |
| Particle Size | 10-15 micrometers |
| Molecular Weight | 116.08 g/mol |
| Density | 1.65 g/cm³ |
| Decomposition Temperature | 200-210°C |
| Gas Evolution | 220-240 mL/g |
| Main Application | Blowing agent for plastics and rubber |
| Solubility In Water | Insoluble |
| Purity | ≥ 97% |
| Odor | Odorless |
| Cas Number | 123-77-3 |
As an accredited Azodicarbonamide(10-15um)SA1000 factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Azodicarbonamide (10-15μm) SA1000 is securely packed in a 25 kg fiber drum with double polyethylene inner bags. |
| Shipping | Azodicarbonamide (10-15μm) SA1000 is securely packaged in sealed, chemical-resistant containers to prevent moisture and contamination during transit. It is shipped according to local and international hazardous materials regulations, with clear labeling and accompanying safety documentation to ensure safe handling and compliance throughout transportation. |
| Storage | Azodicarbonamide (10-15 µm) SA1000 should be stored in a cool, dry, and well-ventilated area away from sources of heat, ignition, and direct sunlight. Keep the container tightly closed and store separately from strong acids, alkalis, and reducing agents. Minimize dust generation and accumulation. Ensure proper labeling and restrict storage to authorized personnel only. |
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Particle Size: Azodicarbonamide(10-15um)SA1000 with a controlled particle size of 10-15μm is used in PVC foam sheet manufacturing, where it ensures uniform cell structure and optimal foam expansion. Decomposition Temperature: Azodicarbonamide(10-15um)SA1000 with a decomposition temperature of 200-210°C is used in injection molding processes, where it delivers reliable gas evolution for consistent lightweight product formation. Purity: Azodicarbonamide(10-15um)SA1000 with a purity of 99% is used in EVA shoe sole production, where it provides efficient foaming and improved cushioning performance. Flowability: Azodicarbonamide(10-15um)SA1000 exhibiting high flowability is used in the production of rubber mats, where it enhances processing efficiency and dispersion quality. Gas Yield: Azodicarbonamide(10-15um)SA1000 offering a gas yield of 220 mL/g is used in polyethylene foam extrusion, where it maximizes volumetric expansion and material savings. Thermal Stability: Azodicarbonamide(10-15um)SA1000 with exceptional thermal stability is used in automotive interior trim, where it maintains foam structure under prolonged heating conditions. Residue Content: Azodicarbonamide(10-15um)SA1000 with low residue content is used in cable insulation foaming, where it minimizes post-processing contamination and ensures electrical insulation integrity. Bulk Density: Azodicarbonamide(10-15um)SA1000 with a bulk density of 0.6 g/cm³ is used in artificial leather backing, where it supports even foam layer distribution and superior product quality. Moisture Content: Azodicarbonamide(10-15um)SA1000 with moisture content below 0.3% is used in wallpaper foaming, where it prevents moisture-related defects and supports process stability. Compatibility: Azodicarbonamide(10-15um)SA1000 demonstrating high compatibility with elastomers is used in microcellular rubber manufacturing, where it facilitates fine cell morphology and improved mechanical properties. |
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Our team has spent decades on the manufacturing floor, watching formulas take shape under strict quality controls. Producing azodicarbonamide (ADC) is not just routine; it involves hands-on adjustments and a clear understanding of what each particle size means for different users. With SA1000, we focus on a particle size from 10 to 15 microns, which comes about through repeated milling, air classification, and regular process checks. Tolerances get checked on-the-spot, not just in a lab, to keep particle size within each run and across batches.
This specific cut of ADC did not come by accident. Years of consultations with foamers, plastics processors, and engineers led us to this size range. We saw that micron-sized ADC, particularly 10-15um, adds a distinct advantage in fine-celled foam production and helps disperse cleanly throughout various polymer blends. For companies searching for strong nucleation and smooth surface finish, this powder finds its way into both rigid and flexible foams, gasketing, and advanced insulation.
Most processors working with ADC know that not all blowing agents act the same in their equipment. Grainy or uneven powder can clog feeders, disturb mix times, and create injuries in automated lines from dusting. SA1000’s controlled micron level hits a sweet spot: fine enough for high dispersion without drifting as airborne dust. This came after repeated screening and a practical understanding of how even a small oversize fraction can throw off density targets in foam sheets or molded blocks.
Our production line holds true to rigorous batch checks. Technicians test flow, dusting, and compatibility in PVC, EVA, and polyolefin matrices, not just in theory. Each day, they report by product run, reviewing both tactile feel and microscope photos, spotting any early sign of agglomeration or deviation from the 10-15 micron window. This is more than keeping up appearances; it keeps customer lines running without stoppages, a lesson learned painfully in early plant shutdowns caused by off-spec blowing agents years ago.
You see SA1000 get picked up by in-house compounders for shoe soles, where the clean dispersion keeps the cushioning layer consistently light and springy. Rigid PVC panel makers rely on its reactivity window for predictable cell opening, giving panels their lightness without brittle spots. Automotive insulation teams like the fine powder for multilayer foam panels, where it flows from hoppers and blends without streaking or pitting on the outer shell.
It makes its mark especially where precision matters. Cable manufacturers feeding PE and PVC blends find finely milled ADC essential: coarse agents hang up in feed screws and mess with cable cross-sections, while overly fine powders raise dust control headaches and waste material. By settling at 10-15 microns, SA1000 lets engineers hit physical targets with less troubleshooting.
Manufacturers who have spent time with general-purpose ADC, say in the 20-40 micron range, know the pain points of broad size distributions. Uneven foam can mean whole defective rolls or shrinking parts after demolding. It is not just about density or mechanical properties. Proper particle design sets up downstream lines for success, promoting steady, predictable expansion when heat hits.
Some resellers or traders promise “ultrafine” or “premium” ADC without a clear process behind it. In our plant, we control temperature during thermal decomposition, monitor ammoniacal odors for cleanliness, and document every step. Our workers understand that a simple sieve analysis never tells the whole story; field trials in customer plants help us refine the right powder characteristics. Twenty-micron powders have their place, but we saw evidence that 10-15um grade offers a balance of reactivity and process safety, making it less likely to clump or generate off-colored fizz in foam.
Operators in the plastics field remember batches ruined by foreign matter: residues, heavy metal traces, or variable moisture content. Our plant tackles these issues from raw material selection onward. Every bag of SA1000 starts with high-grade hydrazine and urea, sourced with traceability. We avoid metallic catalyst contamination by cleaning reactors after every run, not just at routine maintenance periods.
The production output undergoes FTIR and GC scans alongside traditional wet-chemistry checks for purity. Our practical experience shows that minor impurities do not just cause discoloration; they sap expansion rates in fine-celled foam, forcing higher dosages and increased cycle times. These kinds of setbacks make the difference between a smooth week on the shop floor or a slew of product holds. For large converters, only a fraction of a percent variance in ADC quality ends up visible in thin-walled goods and closed-cell insulation.
In chemical manufacturing, process safety has real stakes. ADC dust creates not just mess but combustible risk at the wrong size. SA1000 milled at 10-15 microns flows smoothly from bulk bags and drums with minimal dust pressure—good for operators handling open blenders, and safer for ambient air. We engineer ventilation and dust extraction based on actual line feedback, not just codes.
Old-style ADC grades that shed excess fines force constant cleaning and slow downs. We learned, with support from plant data, that flowability at 10-15um means loaders and compounders refill hoppers with less fuss, keep lines tidier, and reduce exposure to inhalable particles. By tuning our process for minimal dust-off, we keep both factory productivity and worker wellbeing in view—a lesson learned through decades of direct consultation with shop-floor teams and EH&S responders.
Every batch of SA1000 rolls through closed bulk transport, reducing contact and preventing product bridging as it travels. On arrival, processors get powder that flows straight into feeders and side extruder lines, decreasing pre-mix times. This low-density, high-activity grade minimizes settling in storage silos. Our quality team tracks flow characteristics batch-by-batch, flagging any batch not matching prior shipment records with real-time reports. On the downstream side, converters report fewer cleaning stops and less waste from stuck powder or nozzle clogs.
Paint, rubber, and synthetic cork applications lean on the consistency of cell structure that SA1000 brings, even outside basic foaming. In our experience, prior grades suffered gap issues when batch properties drifted, forcing adjustments in process parameters. With attention to particle size, we’ve helped downstream customers sidestep yield dips and product recalls.
Markets demand more than raw expansion anymore. Every polymer compounder and brand audits us for SVHCs, phthalates, and heavy metals. Before export, we sample each lot for elemental analysis, running repeated tests to keep lead, mercury, and arsenic below detection limits. As European markets tighten REACH rules and labeling, documentation becomes as important as low ppm numbers. We keep full trace histories, not just on the paperwork, but in monthly process records and retained samples back three years.
We’ve learned through failed audits elsewhere that regulatory readiness is about anticipation. Our plant has never had to recall a batch of SA1000 due to compliance failure—something accomplished by raising flags well before a trend hits.
Many headlines have made ADC controversial, especially where public perception clouds its technical merits. Decades of research and international consensus recognize its thermal decomposition products and expected safe use within prescribed industrial processes. Still, we acknowledge industry and community concerns.
We reduce emissions by optimizing reaction times and collecting effluent before release. Our solvent recovery reaches over ninety percent, cutting waste by tens of metric tons yearly. Operators use airtight feeding and pneumatic transfer, ensuring the only powder leaving the plant lands with the customer, not into local waterways or the air. SA1000’s fine control means our lines run cleaner, and our carbon footprint drops accordingly.
Beyond environmental controls, we also supply full data packages to customers: these include toxicological reviews, environmental fate screening, and ongoing support for customer product stewardship. Keeping open lines of communication, our technical team answers customer queries on safe disposal, emission limits, and storage protocols. In-house we run advanced modeling on byproducts, sharing results frankly instead of hiding behind legalese. Responsible stewardship means guarding both our reputation and customer trust with every drum shipped.
Chemical manufacturing rarely stands still. Over the last few years, we’ve responded to more requests for higher consistency and less processing dust. Operators in Asia’s busy foam lines, for instance, want bulk handling without extractor downtime. Feedback cycles tightened between our R&D and plant teams, leading to changes such as staged grinding and more precise classification.
Unlike resellers just repacking what comes off a wagon, our team works side-by-side with compounders, both on the line and in technical support. Problems with bridging, powder clumping, or erratic foam collapse don’t stay theoretical—we’ve stood next to operators facing their own production deadlines. Sometimes this means tweaking moisture controls, sometimes introducing new anti-caking blends or adjusting thermal stability to match faster extrusion lines.
Our involvement does not end with one delivery. We monitor customer feedback for recurring technical issues and routinely adjust process set-points based on customer trials. It’s this open dialogue—based not in promises, but in daily practice—that earns us credibility. Every sample, every order, and every complaint closes a feedback loop. Over time, this builds a bank of practical know-how that we draw from with every subsequent batch.
For manufacturers with direct experience sourcing blowing agents, the distinction between general use and specialty-grade ADC is clear. Cheaper, broader-cut ADCs hit shelves from traders or bulk processors, often blending offcuts from mainline production to reach higher volumes. SA1000 stands apart through its narrow cut and reliable supply. Plants that rely on fine, stable ADC do not take kindly to variability. Across major foam, flooring, and extrusion plants, engineers who try off-standard powders return to SA1000 for less troubleshooting and tighter output controls.
Each new year, as new blends and polymers hit the market, processors rate samples against actual plant performance—not just lab claims. We trust field data and in-process measurement, not just technical data sheets. The practical payoff of the 10-15um range reveals itself over millions of production cycles, with reduced downtime, predictable gas yield, and smoother expansion. Small variances in feed quality mean wasted hours and profit. Direct dialogue between our plant managers and converters keeps these variances rare.
From sourcing chemicals to dispatching final product, our operation includes real-time checklists, batch-to-batch logging, and immediate corrective actions when deviations emerge. Every SA1000 shipment carries a record of moisture, activity, and particle profile, with in-house technical support ready for field questions. Batch returns remain extremely rare—for us, that reflects not a marketing slogan, but a plant culture built around hands-on quality.
Internal teams update process documentation after learning from every production run. We adopt new process safety protocols and update handling instructions based on both internal audits and outside regulatory review. Technicians and engineers receive further training, giving them not generic process outlines, but hard-won tips on handling and troubleshooting specific situations, whether it’s midday clumping or off-spec expansion.
In an industry where small slip-ups can lead to big recalls, legitimacy builds from consistent process and open doors. Our team—made up of operators, process engineers, quality specialists, and customer liaisons—work in cycles of continuous review. We spend as much time refining our process as finding improvements to match evolving customer demands.
By focusing on transparent production, consistently tight particle control, and direct lines of feedback, we have earned credibility in markets with the highest standards. Our plant culture reflects a simple idea: reliability does not get claimed; it gets practiced, daily, under real-world constraints. Each batch of SA1000 is both a product and a record of that experience. For engineers and production planners seeking not just a commodity, but a flexible solution with real-world backing, we believe our process—and our people—stand behind every bag.