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HS Code |
586697 |
| Chemical Name | Methyl Ethyl Ketone |
| Synonyms | MEK, 2-Butanone |
| Molecular Formula | C4H8O |
| Molecular Weight | 72.11 g/mol |
| Purity | ≥99.9% (Electronic/EL Grade) |
| Appearance | Clear, colorless liquid |
| Boiling Point | 79.6°C |
| Melting Point | -86.3°C |
| Density | 0.805 g/cm³ (at 20°C) |
| Flash Point | -6°C (closed cup) |
| Solubility In Water | 27 g/100 mL (at 20°C) |
| Vapor Pressure | 105 mmHg (at 20°C) |
| Odor | Sweet, sharp, acetone-like |
| Electrical Resistivity | >10^9 ohm-cm |
| Typical Applications | Semiconductor cleaning, electronics manufacturing |
As an accredited Methyl Ethyl Ketone Electronic/EL Grade factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Methyl Ethyl Ketone Electronic/EL Grade is packaged in a 2.5-liter amber glass bottle with a tamper-evident cap and hazard labeling. |
| Container Loading (20′ FCL) | 20′ FCL (Full Container Load) contains 80-120 drums of Methyl Ethyl Ketone Electronic/EL Grade, securely packed for safe transport. |
| Shipping | Methyl Ethyl Ketone Electronic/EL Grade is shipped in tightly sealed, UN-certified containers to ensure purity and safety. It must be transported by trained personnel, following hazardous material regulations. The chemical should be stored upright, away from sources of ignition and incompatible substances, with clear labeling to comply with transport and environmental safety standards. |
| Storage | Methyl Ethyl Ketone Electronic/EL Grade should be stored in a tightly closed, properly labeled container, in a cool, dry, and well-ventilated area away from heat, sparks, and open flames. Keep it separate from oxidizers, acids, and strong bases. Use chemical-resistant shelving and grounding to prevent static buildup. Store away from direct sunlight and incompatible substances to maintain chemical stability and purity. |
| Shelf Life | Methyl Ethyl Ketone Electronic/EL Grade typically has a shelf life of 12 months when stored in tightly sealed, original containers under recommended conditions. |
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Purity 99.99%: Methyl Ethyl Ketone Electronic/EL Grade with purity 99.99% is used in semiconductor wafer cleaning, where it ensures minimal ionic contamination and high device yield. Low Water Content <50 ppm: Methyl Ethyl Ketone Electronic/EL Grade with low water content <50 ppm is used in LCD panel production, where it prevents moisture-induced defects in thin-film deposition. High Volatility: Methyl Ethyl Ketone Electronic/EL Grade with high volatility is used in photoresist formulation for microelectronics, where it promotes rapid drying and uniform coating. Stability Temperature 5–35°C: Methyl Ethyl Ketone Electronic/EL Grade with stability temperature 5–35°C is used in electronics component assembly, where it maintains solvent integrity during precision cleaning processes. Low Metal Ion Concentration <0.1 ppm: Methyl Ethyl Ketone Electronic/EL Grade with low metal ion concentration <0.1 ppm is used in OLED substrate preparation, where it reduces the risk of electrochemical migration and improves product lifespan. Controlled Viscosity 0.4 cP: Methyl Ethyl Ketone Electronic/EL Grade with controlled viscosity 0.4 cP is used in conductive ink production, where it ensures optimal ink flow and levelling during screen printing. High UV Transparency: Methyl Ethyl Ketone Electronic/EL Grade with high UV transparency is used in optical device manufacturing, where it enables residue-free cleaning without interfering with optical properties. |
Competitive Methyl Ethyl Ketone Electronic/EL Grade prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615371019725 or mail to sales7@bouling-chem.com.
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Tel: +8615371019725
Email: sales7@bouling-chem.com
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Every phase of electronics manufacturing demands a level of purity, consistency, and reliability that separates ordinary solvents from their high-grade counterparts. At our facility, we have spent decades tuning our production of Methyl Ethyl Ketone (MEK) Electronic/EL Grade to better meet these requirements compared to general industrial solvents. The electronic industry has zero tolerance for contamination; contaminants trigger conductivity faults, cause corrosion, and lead to failed quality control runs. What we’ve learned is simple: the margin for error is razor thin.
Standard MEK can support painting or adhesives, but it falls short in applications where trace metal, water, or organic residues disrupt sensitive processes. In semiconductor cleaning tanks or circuit fabrication lines, those extras can destroy yields—one unnoticed metal ion in a batch may write off thousands of dollars of chips. Our plant operates under rigorous production and filtration parameters that limit metal and halide ions to parts-per-billion levels. These controls make our Electronic/EL Grade the preferred choice for LCD, LED, and semiconductor applications. That difference becomes obvious when clients no longer need to perform extra filtering before use or repeat batches due to unpredictable residue.
We hold ourselves accountable for every drum of product that leaves our gates. Maintaining traceability down to individual raw material lots eliminates those mystery contaminations that surface weeks later in downstream processing. Scrupulous equipment cleaning, high-purity nitrogen blanketing, and real-time monitoring at every handoff point give us full visibility. On-site GC-MS analysis and ion chromatography help us control impurities beyond what most plants offer. These aren’t check-box protocols—they are what keep production lines moving and minimize client returns.
Our Methyl Ethyl Ketone Electronic/EL Grade meets and surpasses most global electronics standards. Water content, halides, and non-volatile matter regularly run below listed maximums, not just at specification limits. We regularly consult with our customers’ quality teams so that our specification sheets align with evolving industry needs. Whether the requirement is for a new generation of transistor structures, touchscreens with heavier conductive films, or advanced packaging solutions, our process control can maintain the required purity.
No one benefits from a perfect batch spoiled by bad packaging or careless logistics. Our steel drums and HDPE containers have gone through multiple upgrades in design and material selection to minimize leaching, cap or liner contamination, and oxygen ingress. Drum valves are double-sealed and the packaging on high-volume export orders is lined with tamper-proof evidence. Long-term supply partners have remarked on the sharp cut in batch failures from when they switched over. Our logistics teams operate on tight schedules to limit storage time outside climate-controlled warehouses, which is critical in humid and high-temperature zones.
At the core, all MEK starts from a similar petrochemical process, but the difference climbs rapidly during purification, handling, and packaging. Key distinctions emerge:
The first years we supplied MEK to electronics companies, we faced a learning curve. Customers would send back entire shipments for a level of sodium ions that wouldn’t even register in other fields. Analytical feedback from their incoming inspection labs prompted us to overhaul our cleaning validation and invest in filtration upgrades. Their requests inspired a retooling of the dehydration section and convinced us to finish polishing every batch in the clean room. Most of these improvements didn’t just protect our relationships—they improved consistency to the point that we now see fewer complaints and stronger standing invitations to bid on new client sites.
For display makers, a faint yellow cast or trace residue can mean a whole panel loses value. Printed circuit board fabs depend on predictable solvent action for stripping and surface prep. Any drift in evaporation rate, ionic content, or trace organics means rework or lost batches—cost that dwarfs savings from opting for standard grade. Our closer work with final users taught us that even a difference in water content of 50 ppm can upset photolithography, so we’re serious about process control beyond what regulatory minimums dictate.
Trace metals like iron, copper, or sodium act as silent saboteurs. During etching or cleaning, they deposit in sensitive tracks and make their presence known only after assembly, often during final device testing. Water can trigger micro-corrosion under solder masks and lift-off in encapsulations. We maintain regular consultation sessions with customers’ process chemists to zero in on impurity thresholds that correspond to product failures. Active feedback cycles drive our in-plant improvements. These discussions led to doubling our filtration runs and adopting ion-exchange columns targeted for key ions. Each incremental purification step adds up—avoiding issues discovered months after the fact that cause huge scrap costs.
Production conditions continue to evolve. With each new generation of circuit miniaturization, allowable impurity ceilings shrink. Trusted relationships grow out of our willingness to invest in new analytical techniques and proactively update filter media and process controls. Clients depend on us to pivot fast, whether there’s an urgent request for halide-free batches or a sudden thrust to cut all traces of phthalate esters. Our in-house development teams monitor upstream feedstock sources, monitor regulatory shifts, and adapt our batch release protocols. Direct feedback via site visits and sample runs lets us address issues at their source instead of patching over them after a complaint.
It’s never just about purity—buyers care how their supply partners run their operations. We recycle process water, recover vapors with closed-loop condensers, and work with authorities to tighten effluent standards. Electronics clients want proof that their supply chain isn’t leaking contaminants into air, water, or communities. That’s another reason you’ll find audit trails and environmental controls tightly interlocked with our export batches. These controls win us repeat business from companies with zero-waste commitments, not because we market sustainability but because our approach delivers measurable, traceable outcomes for brand protection.
Our development chemists work directly with major device manufacturers as consumer demands shift. New lithium-ion battery formats, OLED layers, or precision MEMS sensors may require tweaks to ionic thresholds or particle standards. Adaptability has become core to our business. Whether reformulating for stricter halide cutoffs or introducing RFID-enabled traceability on each container, we see customization as a partnership, not a one-off job. This mindset means our technical support extends from initial trials to plant-wide rollouts.
Talking about “batch consistency” used to be an abstract promise. Now, our own in-plant techs check the latest drum against earlier ones with real application tests. Most application failures in precision cleaning trace to micro-drift in solvent properties, often invisible without tight-source monitoring. Every time we see a customer require weekly incoming goods tests instead of daily, or skip redundant on-site filtration, we know we’ve done our job. The savings in downtime, labor, and scrap alone have built the case for specialty MEK, even with higher up-front costs.
Direct feedback has confirmed again and again: even a small uptick in contaminants leads to visible plant floor problems. In production plants, we’ve visited assembly lines where stray solvent batches wrecked entire workweeks. Time after time, clients share how general solvent alternatives led to massive downtime—corroded connectors, incomplete etchbacks, unreliable sensor readouts. These aren’t just anecdotes; the numbers line up with increased RMA rates, warranty returns, and regulatory headaches.
Improvement never ends. Each new client spec pushes us to redesign a filtration step, tune a sensor, or commission new analytical runs. Our plant managers and quality teams collaborate with R&D and frontline operators, running root cause analyses every time a small deviation emerges. Investing in new ion exchange systems or revalidating cleaning SOPs doesn't just keep processes tight, it means fewer future recalls or disputes with plant managers. We don’t rest on long-cycle audits or occasional spot-checking; daily batch trend analysis and rapid-issue escalation are routine. This isn’t just for show—these efforts pay real dividends in defect reduction rates and consistent product outcomes at our customers’ sites.
Trust in this business forms on the ability to deliver specialized support over years, not weeks. Engineers need to know that a new sensor project or memory device will receive the same materials months from now, without the batch-to-batch “surprises” that show up in less regulated supply chains. Our regular customer visits, on-site troubleshooting, and technical collaboration help keep those surprises to a minimum. Stability in specification and outcome has drawn global brand loyalty to our specialty lines, because no one wants to gamble plant output on inconsistent supply.
Our guiding principle never changed: keep total control over what enters and leaves our lines, with transparency at every critical junction. It’s not about chasing every niche but getting every bottle and drum right—delivered on time, sealed, and accompanied by data clients trust. We believe tight tolerances and direct accountability outweigh generic promises or minimum-compliance claims. Close work with engineers has brought our products into new fabrication environments, new process steps, and new customer sites, all on the back of our commitment to tangible, verifiable product performance.
Electronics production does not stand still. Whenever clients seek support for process audits, pilot runs, or urgent troubleshooting, our teams lean in. Joint integration of analytical findings and process learning means we don’t leave users struggling for answers when outcomes change. Continuous support, live data sharing from our labs, and real-time corrective action all reflect how seriously we support the growing technical needs of the electronics industry.
We see new developments in microelectronics pushing for even tighter impurity controls and new solvent handling benchmarks. Each time our partners raise their standards, we invest early in R&D and process infrastructure. The result: every change in the industry gets mirrored by new QC controls, process upgrades, and packaging innovations on our end. By keeping our plant nimble and responsive, we empower device companies to stay reliable and robust, even in a volatile global market. For those building the electronics of tomorrow, high-purity Methyl Ethyl Ketone Electronic/EL Grade will remain a cornerstone—not just because of what’s in the drum, but because of the partnership and trust behind every shipment.