|
HS Code |
652580 |
| Productname | Polyimide YGP200 |
| Color | Amber |
| Form | Film |
| Thicknessrange | 0.0125 mm to 0.25 mm |
| Density | 1.42 g/cm³ |
| Tensilestrength | 200 MPa |
| Elongationatbreak | 50% |
| Thermalconductivity | 0.12 W/m·K |
| Dielectricstrength | 200 kV/mm |
| Maximumoperatingtemperature | 260°C |
| Waterabsorption | 0.7% (24h immersion) |
| Glasstransitiontemperature | 360°C |
| Flameretardancy | UL94 V-0 |
| Surfaceresistivity | 10^16 Ω/sq |
| Chemicalresistance | Excellent |
As an accredited Polyimide YGP200 factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The Polyimide YGP200 is packaged in a sturdy, sealed 1-kilogram aluminum foil bag, labeled with product name and safety instructions. |
| Shipping | Polyimide YGP200 is shipped in sealed, moisture-resistant containers to maintain product integrity. Standard packaging includes 20 kg fiber drums or custom options upon request. Store and transport in a cool, dry environment, avoiding exposure to direct sunlight and high humidity. Handle according to safety data recommendations for industrial chemicals. |
| Storage | Polyimide YGP200 should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and sources of moisture. Keep it in tightly sealed, original containers to prevent contamination. Avoid exposure to excessive heat or open flames. Store away from incompatible substances, such as strong acids or bases, and ensure easy access for authorized personnel only. |
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Thermal Stability: Polyimide YGP200 with stability temperature up to 400°C is used in flexible printed circuit boards, where it ensures reliable performance under high thermal loads. Molecular Weight: Polyimide YGP200 with high molecular weight is used in aerospace insulation films, where it enhances mechanical durability and tear resistance. Purity: Polyimide YGP200 with 99.5% purity is used in semiconductor wafer carriers, where it minimizes contamination and improves device yield. Viscosity Grade: Polyimide YGP200 with low viscosity grade is used in electronic coating applications, where it allows for precise, uniform film deposition. Particle Size: Polyimide YGP200 with particle size below 5 microns is used in specialty composite formulations, where it promotes homogeneous dispersion and optimal composite strength. Melting Point: Polyimide YGP200 with melting point above 350°C is used in high-temperature adhesive tapes, where it maintains adhesion and dimensional stability during thermal cycling. Dielectric Strength: Polyimide YGP200 with high dielectric strength is used in microelectronic insulation layers, where it provides enhanced electrical isolation and reduces failure rates. Tensile Strength: Polyimide YGP200 with elevated tensile strength is used in ultrathin flexible substrates, where it increases durability and resistance to mechanical strain. |
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We manufacture Polyimide YGP200 with the knowledge that every roll and pellet impacts real workflows at our customers’ factories and labs. Polyimide itself has been a trusted material for years in electronics, aerospace, and advanced manufacturing, but real success happens in the details. Our YGP200 model draws on lessons learned from hundreds of process runs, operator feedback, and field demands that come not from a marketing wish list, but from hard evidence in daily production.
Polyimide YGP200 comes out of our reactors looking like any other high-performance PI at a glance—a rich amber color, stable dimensional properties, and a sharp, clean surface after processing. Scratch beneath the surface and you find the difference: we target purity, predictable molecular structure, and minimal trace contaminants with every batch. Our process design keeps moisture and residual solvent levels well below typical market standards, avoiding common headaches in molding, coating, and wire insulation lines. We do this not to chase specs, but because, over years, it’s always these “invisible” factors that drive consistent performance for our customers, especially for those producing high-reliability parts.
Polyimide YGP200 finds its place in several fields, but the feedback we’ve heard comes from two types of users. In electronics, engineers rely on YGP200 as a base film for flexible printed circuits. The stability through repeated thermal cycling actually shows up during soldering—flex circuits don’t curl, shrink, or delaminate. This is not luck; our exclusion of low-molecular-weight byproducts prevents outgassing and helps adhesives hold tight. In wire and cable, YGP200 shields sensitive copper and silver conductors, surviving thermal shocks that would deform other films. Cable manufacturers who run lines at maximum speed see fewer breaks, less static, and clean peel behavior.
Those working in aerospace and high-temperature gasketing have shared a frequent problem: brittle films that fail after long bouts of heat exposure, or inconsistent batches that lead to unexpected downtime. We differentiate our YGP200 by controlling imidization kinetics and maintaining tight residence time controls. The result is a film or resin that stays tough and flexible after hundreds of thermal cycles, and doesn’t present surface crystallization or embrittlement common with cheaper offerings.
It is tempting to treat all high-performance polyimides as the same. In reality, subtle chemistry and manufacturing discipline make a bigger difference than most people suspect. Our internal analysis has shown that the molecular weight distribution within YGP200 batches runs very narrow. This isn’t just a number in a lab report; our operators have seen that this precision leads directly to reliable viscosity during melt-processing and predictable mechanical strength in finished films, laminates, or molded shapes. We compare our output against competing versions by running real-world endurance tests, such as high-frequency bending, temperature cycling past 300°C, and chemical resistance soaks. These aren’t marketing demonstrations—they reveal small weaknesses that only show after months of field use. We haven’t found an off-the-shelf alternative that stands up as well under these real conditions.
Another distinction comes from our feedstock quality and filtration. After years of scaling up, we invested in two-stage filtration and continuous solvent purification that removes particulates and color-forming metals before any polymerization step. Suppliers offering lower-cost variants often skip these controls, leading to spots, gels, and haze in the final film that only appear after end-users start full production. We keep an archive of failure case studies from customers who switched from generic PI to YGP200—they often send physical samples that let us pinpoint the source of failures, such as improper curing, oxidized spots, or stress fracture origins.
We evaluate every return, complaint, and process hiccup as a signal, not a nuisance. Early on, a key customer in the medical device sector flagged out-of-spec shrinkage in laser-cut insulation tubes. We overhauled our drying and pelletizing steps as a result. This sort of iterative dialogue guides many of the decisions that set YGP200 apart. Not every improvement involves a new piece of equipment—sometimes it’s a shift worker’s insight on filter change timing or a lab technician’s tweak in imidization temperature that solves a problem behind the scenes.
Some of the best insight comes from users pushing our resin beyond the “expected” envelope. One electronics assembler reported using YGP200-based tape not only for FPC encapsulation but to isolate battery cell tabs under repeated charge and discharge. They reported minimal thermal drift, steady dielectric behavior, and zero creepage over a thousand cycles. We followed up by adding forensic microscopy to our routine cross-sections, revealing a more densely packed microstructure compared to earlier generations and especially compared to mass-market PI. These weren’t incremental lab wins, but visible changes sparked by hands-on product use and shared learning.
The longer we’ve produced YGP200, the more we’ve realized how important upstream control is. Every batch starts with precisely defined monomer input, tested lot by lot. Accepting even slight contamination at that stage has clear ripple effects, leading to later problems like color shifts, reduced dielectric strength, and even pinhole formation in ultra-thin films. We keep raw material traceability records stretching back more than seven years so customers who spot out-of-trend behavior in their final products can trace back every kilogram of input. These not only support risk control in high-reliability sectors but also save weeks of troubleshooting for our tech teams and those of our customers.
Process integrity matters just as much. Operators run semi-automated lines that alert us to temperature or pressure anomalies instantly. We calibrate measurement sensors monthly rather than waiting for annual checks that lower-cost producers settle for. Our continuous operating records show that investment in cleaning, filtration, and preventive maintenance results in the kind of product reproducibility that users have come to expect—including for critical aerospace liners, communications equipment, and even coated satellite antenna surfaces.
We’ve seen recurring issues across industries using other PI products. Static cling and dust pick-up cause headaches in roll slitting and thin film handling. We countered this with in-line corona treatment immediately post-casting, neutralizing surface charge and improving flow off the line. Outgassing during solder reflow leads to blisters and delamination, especially in electronics or flexible display manufacturing. Our fractional distillation of solvents at each recapture cycle keeps residuals so low that even double-sided laminates come out smooth, with no pinhole defects or voids.
Uneven heat shrink and inconsistent flame resistance are frequent points of failure in cheaper PI options. Our material consistently achieves narrow tolerance and eliminates burn-throughs in cable insulation tests. Mold shops have highlighted how our YGP200 resin maintains melt-flow stability so processors don’t have to run “trial-and-error” settings each time they switch batches. In the background, our process advisors share data with users adjusting their lines, cutting down material waste and lost time. These efforts grow from ground-level experience, not guesswork about what a user “should” want.
Sustainability in the chemical industry goes far beyond a green logo. We’ve built YGP200 production around solvent recycling, energy optimization, and emissions control. Direct reuse of process water and scrupulous capture of residual solvents not only reduce environmental burden but also lower cost for our downstream customers by making yields more predictable. We meet and often surpass local and international regulatory requirements for restricted substances. These are not check-the-box exercises but vital safeguards for employees and end users dealing with strict compliance regimes.
Customers with aerospace or automotive contracts have strict reporting needs on REACH, RoHS, and similar regulations. We work with them directly supplying batch traceability, full disclosure of raw materials, and ongoing updates if regulatory thresholds change. If new restrictions are announced on halogens, for instance, we can rapidly certify compliance because of our detailed recordkeeping and raw material screening. We also maintain test sample libraries for future retests, supporting long-term reliability assessments in the field.
Lots of companies in our field tout “innovation,” but we’ve found that steadily listening to customers uncovers most practical advances. Some asked for tighter thickness control on ultra-thin gauge films for chip packaging; we responded with smaller-diameter casting nozzles and stage-by-stage film tension checks. Others faced microcracking in white LED reflector tapes, a problem we resolved by modifying the imide precursor mix and adjusting the post-curing schedule. Each change followed actual user reports, corroborated by in-house aging studies and external lab tests.
We don’t chase every trend blindly. For example, years ago, pressure came in to switch to certain “green” monomers that promised lower emissions. Our trial runs showed rapid loss of heat resistance and embrittlement in real-world heater block tests, and customers in aerospace and electronics quickly validated our skepticism. Staying rooted in practical user requirements, not hype, lets us deliver a Polyimide YGP200 that remains a problem-solving material in the field rather than a theoretical product.
Our assurance of consistent Polyimide YGP200 quality goes beyond batch certification. We conduct cross-laboratory analytics on every lot, comparing data across viscosity, glass transition temperature, thermal stability, and elongation at break. If any discrepancy crops up between our in-process and final QC labs, production halts until the root cause is resolved. Multiple times in the past, this system has let us catch early-stage polymerization fouling or filter wear that would elude casual inspection.
For customers dealing with ever-shrinking part geometries and rising complexity, this level of control often translates to faster ramp-up and less material wastage. They don’t just get a test certificate—they get the confidence to push boundaries in medical device miniaturization, satellite component shielding, or energy storage solutions. We commit not only to our internal quality standards, but also to complete batch traceability, so the smallest test piece in a lab next year still links directly back to its production run.
After working with a wide range of end users, we notice the common perception that all polyimide grades essentially perform the same. The manufacturing reality looks different. YGP200 consistently outperforms generics in dielectric strength—field data and third-party lab tests show it maintains dielectric breakdown values even after prolonged exposure to thermal cycling and humidity. Where standard PI films begin to yellow or embrittle after repeated flexing above 200°C, our film keeps its suppleness and color, which matters for visible applications and tight-bend radii.
Consistency batch-to-batch is a repeated request from all our regular buyers. We see lower standard deviation in key markers, such as thickness, surface roughness, and intrinsic viscosity. This tight control minimizes downtime and setup adjustments at customer sites, preventing lost production, wasted labor, and off-target product runs. In injection molding and compounding, our pellet and powder versions—compared side-by-side with widespread “commodity” PI—show less moisture pick-up and better melt flow, cutting purge cycles and reducing scorch defects.
Customers also mention fewer issues relating to lot-to-lot “drift,” a frequent pain for line managers and QA teams. Our production records and regular customer audits show YGP200 keeps to specification without requiring material “blending” or batch mixing to hit the target properties. After years supplying both high-volume electronics houses and specialist aerospace fabricators, we accumulate field statistics showing longer component lifespans and lower failure rates across a range of demanding environments.
Polyimide YGP200’s ongoing development depends as much on customer partnership as on internal R&D. Production managers routinely invite us to their sites to review setup challenges, and we return with actionable feedback for the next production cycle. Whether it’s a batch of tubes that won’t meet burst pressure or tape that won’t bond to a specific adhesive, we approach each problem as an opportunity to learn and adapt YGP200’s formulation or process for better outcomes. Few things match the satisfaction of hearing that our changes have reduced scrap by half or cut rework reports to near zero.
Long-term collaboration with users lets us preempt problems before they hit the floor. In the past, aerospace customers highlighted concerns about outgassing under vacuum, which prompted us to introduce a modified dry cure cycle, verified by in-house TGA and residual gas analysis. Power electronics assemblers asked for less surface haze to aid vision inspection systems, so we doubled our melt filtration steps. These upgrades directly benefit every subsequent user, not just the originator of the request.
Years on the production floor have shown us that great materials come from careful process discipline, attentive customer engagement, and relentless improvement, not just from meeting a checklist of features. Polyimide YGP200 is not just a catalog entry—it’s the end product of thousands of iterative steps between our line operators, technical staff, and real users running critical applications. Our engineering culture cares about every anomaly and celebrates those rare moments when customers challenge us with the “impossible” application. Our motivation rests in earning trust with every kilogram shipped, and in the knowledge that we serve industries where reliability means more than numbers on a datasheet.
We believe character emerges from honest, ground-level experience. Polyimide YGP200 stands as a reflection of that: robust, consistent, and improved by the very people who put it to work on the world’s toughest problems.