|
HS Code |
650732 |
| Chemical Name | Glacial Acetic Acid |
| Grade | Electronic/EL Grade |
| Molecular Formula | C2H4O2 |
| Molecular Weight | 60.05 g/mol |
| Cas Number | 64-19-7 |
| Purity | ≥99.8% |
| Appearance | Colorless, clear liquid |
| Boiling Point | 117.9°C |
| Melting Point | 16.6°C |
| Density | 1.049 g/cm³ at 25°C |
| Solubility In Water | Miscible |
| Odor | Pungent, vinegar-like |
| Autoignition Temperature | 485°C |
| Vapor Pressure | 11.4 mmHg at 20°C |
| Flash Point | 39°C (Closed cup) |
As an accredited Glacial Acetic Acid Electronic/EL Grade factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Glacial Acetic Acid Electronic/EL Grade is securely packaged in a 2.5-liter amber glass bottle with tamper-evident seal and hazard labeling. |
| Container Loading (20′ FCL) | Container loading for Glacial Acetic Acid Electronic/EL Grade (20′ FCL): typically 80 drums (25 kg each) or 16-21 tons net. |
| Shipping | Glacial Acetic Acid Electronic/EL Grade is shipped in tightly sealed, corrosion-resistant containers, typically high-density polyethylene (HDPE) drums or glass bottles. During transport, it is classified as a corrosive liquid (UN 2789), requiring careful handling, proper labeling, and compliance with hazardous material regulations to ensure safety and product integrity. |
| Storage | Glacial Acetic Acid Electronic/EL Grade should be stored in a tightly sealed, corrosion-resistant container, away from heat, direct sunlight, ignition sources, and incompatible materials (such as oxidizers and strong bases). Store in a cool, well-ventilated, dry area with appropriate secondary containment. Clearly label containers and ensure safety equipment, such as eye wash stations and spill kits, are readily accessible in the storage area. |
| Shelf Life | Glacial Acetic Acid Electronic/EL Grade typically has a shelf life of 2 years when stored properly in tightly sealed containers. |
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Purity 99.8%: Glacial Acetic Acid Electronic/EL Grade with a purity of 99.8% is used in ultra-high purity cleaning of semiconductor wafers, where it ensures minimal ionic contamination and maximum device yield. Low Metal Content (<0.1 ppm): Glacial Acetic Acid Electronic/EL Grade with low metal content is utilized in the manufacture of LCD displays, where it prevents metallic ion interference, ensuring optimal electrical performance. Water Content <0.15%: Glacial Acetic Acid Electronic/EL Grade with water content less than 0.15% is applied in precision etching of microelectronic components, where it reduces the risk of defect generation during processing. Stability Temperature up to 30°C: Glacial Acetic Acid Electronic/EL Grade stable up to 30°C is used for storage and transport in cleanroom environments, where it maintains chemical integrity critical for electronic applications. Low Particulate Level (<1 ppb): Glacial Acetic Acid Electronic/EL Grade with particulate level below 1 ppb is employed in photolithography, where it ensures wafer surface remains free from particulate contamination, improving circuit reliability. Density 1.049 g/cm³: Glacial Acetic Acid Electronic/EL Grade with density of 1.049 g/cm³ is used in doping processes in semiconductor fabrication, where accurate reagent dosing is required for precise material modification. Conductivity <1 µS/cm: Glacial Acetic Acid Electronic/EL Grade with conductivity less than 1 µS/cm is used in cleaning applications for disk drives, where it minimizes the risk of conductive residue affecting device operation. Non-volatile Impurities <0.5 ppm: Glacial Acetic Acid Electronic/EL Grade with non-volatile impurities below 0.5 ppm is used as a reagent in thin film deposition, where it prevents residue buildup and ensures uniform film quality. UV Absorbance (260 nm) <0.05: Glacial Acetic Acid Electronic/EL Grade with UV absorbance less than 0.05 at 260 nm is used in optical device manufacturing, where it supports high transmittance and clarity in end applications. |
Competitive Glacial Acetic Acid Electronic/EL Grade prices that fit your budget—flexible terms and customized quotes for every order.
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Working with chemicals day in and day out brings a practical perspective to quality. Our Glacial Acetic Acid Electronic/EL Grade represents countless hours spent refining the purification process, not just for purity on paper, but for batch-to-batch reliability. We designed this grade after fielding years of requests from electronic and semiconductor companies whose applications demand low metal content and consistent clarity. Every day on the floor, our team reviews production logs and results because we know the smallest variable can become a major issue downstream, especially in precise manufacturing settings.
Glacial Acetic Acid typically serves many industries, from polymers to everyday food processing. Experience shows not every job calls for the same level of purity. If a formulator asks us what sets the Electronic or EL Grade apart, we show them the metal analysis data—less than 0.1 ppm for key metals like iron, copper, sodium, and potassium. The difference starts with purification. Standard glacial acetic acid doesn’t always stand up to the focused needs of microelectronics, where even trace elements risk causing circuit failure. We continuously invest in extra filtration, advanced distillation, and repeated quality checks, not because regulations tell us to, but because the best outcomes come from leaving nothing to chance.
Few things matter more to a chemical manufacturer than feedback from real users. In electronics, the smallest amount of metal contamination can cause catastrophic results—corrosion, electrical leakage, and even yield loss costing companies millions a year. Many times, customers come to us after using general industrial grades and seeing unexpected problems in photolithography or wafer cleaning. The memories of customers returning batches due to spotting or unexpected residue remind us to keep every part of production tight. This discipline runs from drum filling all the way through sealed storage.
We test beyond standard methods. Purity checks confirm levels greater than 99.8%, but that’s the starting line, not the goalpost. For EL grade, there’s additional scrutiny: heavy metal screening goes down to parts-per-billion in some cases, and UV absorbance is tracked at specific wavelengths to ensure no unknown organics slip through. We don’t just rely on certificates. Routine audits and requalification of raw material suppliers guard against unexpected contamination. The results show up in repeatable, stable performance that customers value in high-stakes manufacturing environments.
Early in our journey, many users came to us believing any acetic acid with high purity fit their process. But as circuit boards and wafer technology advanced, so did the need for even fewer contaminants. Regular technical-grade acetic acid typically contains higher levels of aldehydes, residual ions, and organics that wouldn’t impact textiles or food. Our Electronic/EL Grade is produced in dedicated lines and packed in containers reserved for high-purity chemicals—stainless steel or fluoropolymer where required. Even our cleaning protocols for filling lines are stricter for this grade. That hands-on effort pays back with a product that makes a real difference for demanding applications like flat-panel displays, advanced etching processes, and critical fine cleaning.
Some of our long-term customers send updates whenever they see even the smallest deviation in their processes after using our acid. Their measurements push us to constantly raise our own standards, not just to meet a spec but to anticipate new challenges in microcontamination control. These relationships matter. Regular visits to customer sites help us understand the practical side: how our acid interacts with automated filling equipment, how long it remains stable after opening, and the effect of storage temperatures in different climates. For tougher jobs, we recommend shorter shelf-lives and tamper-evident packaging to maintain integrity from first opening through final application.
Producing this grade isn’t just about higher purity, but about reliability and peace of mind for engineers aiming for lower defect rates on delicate assemblies. For instance, semiconductor plants adopting 3D NAND and other miniaturized components require solvents as clean as the cleanrooms they operate in. A single particle or stray metal can compromise photomasks or high-k dielectric layers. We remain vigilant with every step, from raw material verification to monitoring for trace halogens and volatile organic compounds.
As a manufacturer, we’ve seen the fallout firsthand: rejected wafer batches, halted production lines, costly root cause investigations. There’s no substitute for product knowledge built from these real-world lessons. Wherever possible, we trace every incoming raw material back to its source and maintain strict isolation through the production line. This builds confidence not only in our own staff but also in the engineers and chemists who put their trust in our name; every liter of Glacial Acetic Acid Electronic/EL Grade leaves our plant with the assurance that it does no harm to sensitive electronic substrates.
Where does all this effort go? In microchip manufacturing, small errors build up into large costs. We supply our EL grade acetic acid to companies manufacturing printed circuit boards (PCBs), conducting fine etching, producing LCDs and OLEDs, and performing ultra-cleaning for high-quality optical components. Photolithography developers and wafer cleaning stations rely on materials without ionic or metallic surprises; they demand acid that won’t introduce variability. Even a minor deviation in formulation can cause a cascade of failures through dozens of manufacturing steps.
Our plant didn’t switch to automated controls overnight. Many engineers on our team started as operators, learning how temperature swings, humidity, and raw material changes affect each batch. Tightening controls on parameters like water content and byproduct removal required years of testing and regular tuning between lab and plant scales. We never take shortcuts; instead, we audit every stage, from distillation to safe drum filling. Most of the day is spent verifying, adjusting, and trying to spot issues before a single container reaches the warehouse.
Longstanding electronic and chemical companies come to us because we understand repeatability. They can’t afford machine downtime due to fluctuating quality. Relying on extensive analytical methods—GC, HPLC, ICP-MS—we guarantee that what worked last month works this month, every time. Our technicians understand this isn’t simply about passing a test, but about minimizing statistical outliers. Many runs later, our analysis database tracks the history of every batch so that if a problem ever does arise, we investigate, adjust, and communicate directly with every affected user.
When EL grade acetic acid leaves the facility, the job isn’t over. Packaging matters as much as purification. Some customers operate in factory environments where ambient dust and temperature shifts threaten even the cleanest goods. Experience tells us which drum linings and closures guard best against contamination and which packaging partners can be trusted for transit stability. Many mistakes in the business have come from ignoring the final packaging stage; we avoid them by double-sealing and scheduling rapid delivery so that product doesn’t linger in uncontrolled storage. For the most sensitive users, we even offer inert-gas blanketing as a final barrier.
Not everything runs smoothly. Early on, we shipped to a client whose cleanroom requirements surpassed what most considered reasonable at the time. Their process flagged a single batch for sodium traces—well below regulatory limits, but just enough to alter ion migration during MOSFET assembly. This told us no two users measure purity the same way and that progress means always looking forward. Since then, we’ve installed secondary controllers, additional in-house analytical equipment, and training sessions that help every production shift understand the ‘why’ behind each step, not just the ‘how’. Each misstep leads to stronger processes and tighter trust between us and our partners.
From the shop floor to the final inspection, product quality drives productivity. Lost batches due to contamination errors cost more than downtime—they erode trust and impact entire production schedules. A process engineer at a major electronics fabricator once showed us data linking yield improvement directly to the adoption of our EL Grade acetic acid. Their monthly yield increased by several percentage points, all by removing ion and metal contamination that came from substandard solvent grades used previously.
We don’t operate in a vacuum. Site visits and regular benchmarking teach us industry best practices, but it’s the feedback loop with our customers that keeps the process moving forward. Some prefer smaller drums or single-use bottles for critical points of use. Others need extended traceability logs due to new quality regulations coming from downstream. Each adjustment and insight draws us closer to a product that fits seamlessly into their operations.
Meeting industry specifications is just the baseline; we push further because it’s what’s required to support the next generation of electronic advances. There’s a major gap between what’s acceptable in general chemical supply and what’s necessary for today’s wafer-level manufacturing. For example, regulatory purity requirements for glacial acetic acid may cover broad ranges, but the failure points in a robotics-driven assembly line can arise at concentrations far below those limits. Practically, we invest more time and effort upfront to provide a product that heads off risks engineers might only identify after costly failures.
Technology never stands still. Our team tracks emerging trends like even finer circuit widths for chips, which increases the risk that minuscule contaminants become bigger problems. Years ago, we started integrating modular purification equipment, so any development in analytics can be matched by on-the-fly improvements to purification. The lessons learned—sometimes at the cost of reworking old assumptions—helped shape new protocols for ion suppression, improved line rinsing, and real-time monitoring against developing contaminants.
It’s not just about what leaves the drum. Once in use, our EL grade acetic acid supports processes like anodizing aluminum and producing high-purity copper foils, both areas where stray ions disrupt deposition precision. In our experience, these values are unreachable for any non-electronic grade. Manufacturers tackling new challenges, like ultra-low-k dielectrics or quantum dot displays, rely on this grade since even low single-digit ppm impurity levels derail performance. The effort to maintain pristine acid pays off in more predictable deposition, cleaner etches, and fewer surprises when testing for micro-contamination.
Producing the purest grades takes more than equipment. It requires vigilance, constant review, and learning from each incident. Our technical teams document every cleaning, every shipment, and every customer complaint. As new applications emerge and the bar for process purity rises, we regularly review and improve our purification and packaging practices, knowing that electronic-grade purity today is tomorrow’s standard requirement.
Our experience as a chemical manufacturer tells us that operating sustainably protects both the product and the wider community. When working at these purification levels, we periodically review emissions, solvent recovery, and safe waste treatment. These steps not only meet local and international environmental standards but also assure our clients that responsible production supports their own sustainability goals. Safety and quality integrate seamlessly, enforced by training from the ground up for every technician handling Glacial Acetic Acid Electronic/EL Grade.
We listen closely to technology roadmaps from electronics clients. Each shrink in feature size—on wafers or advanced display substrates—shifts the acceptable contamination baseline. This means our own labs keep pushing for lower detection thresholds and improved refining methods. Instead of waiting for a customer to flag a new form of contamination, we expand our screen for trace ions and organics before new formulations hit full production.
Traceability builds trust. From raw material source documentation to every tank cleaning record, we provide detailed histories for each container shipped. Many electronic manufacturing companies now require full digital logs of each stage, from tanker unloading to final barcode-scan before product use. Years of investment and practice help us deliver this level of transparency without extra delay or cost, and it makes collaboration easier when troubleshooting or audits become necessary.
Unlike traders or distributors, we get to see how each production change affects global demand, energy use, and customer success rates. In-house research and open communication between the manufacturing, QA, and logistics teams mean issues are resolved quickly, not shuffled between third parties. This direct experience means we see patterns early—like increased requests for smaller volume containers in Far East fabs or specification changes coming from new plant installations. Our approach evolves in step with real production environments and end-user requirements.
Manufacturing Glacial Acetic Acid Electronic/EL Grade takes patience and precision. Each improvement in purity or packaging builds over time, shaped by industry changes, customer input, and hands-on troubleshooting. From the plant floor to the cleanroom, every step is informed by what matters in the final application. That’s been our experience for decades: progress guided by real use, ongoing research, and a shared goal to define the next standard in electronic-grade chemicals.