|
HS Code |
549062 |
| Common Name | Iprobenfos |
| Chemical Name | S-Benzyl O,O-diisopropyl phosphorodithioate |
| Cas Number | 26087-47-8 |
| Molecular Formula | C13H21O2PS2 |
| Molar Mass | 320.41 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Solubility In Water | Low (<1 mg/L at 20°C) |
| Boiling Point | 145-147°C at 0.2 mmHg |
| Density | 1.17 g/cm³ at 20°C |
| Usage | Systemic fungicide |
| Mode Of Action | Inhibits phosphatidylcholine biosynthesis |
| Toxicity Class | Class III (slightly hazardous) |
| Stability | Stable under normal storage conditions |
| Decomposition Temperature | Decomposes above 200°C |
As an accredited Iprobenfos factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The Iprobenfos packaging is a 1-liter opaque plastic bottle, featuring a secure cap, hazard symbols, and clear labeling for safety. |
| Shipping | The shipping of Iprobenfos, a fungicide, requires secure, sealed containers, protected from moisture and direct sunlight. It should be labeled according to regulatory requirements, with safety data sheets included. Transportation must comply with local and international hazardous material regulations to prevent leaks, spills, or accidental exposure during transit. |
| Storage | Iprobenfos should be stored in a cool, dry, well-ventilated area away from direct sunlight, heat sources, and incompatible materials such as strong oxidizers. Keep the container tightly closed and clearly labeled. Store separately from food, feed, and drinking water, and ensure the storage space is secure to prevent unauthorized access. Follow all local regulations for pesticide storage. |
Applications of Iprobenfos in Industrial ManufacturingIprobenfos, an organophosphorus fungicide, finds established downstream utilization across large-scale agricultural input, seed treatment, and horticultural manufacturing. As the direct producer, we supply this compound for integration into advanced formulations and processes that require strict compliance, controlled dosing, and efficiency in field application. Below, we detail the principal industrial scenarios, including compliance frameworks, formula ratios, operational points of entry, and the types of finished goods resulting from each application. 1. Rice Pesticide Formulation ManufacturingThe primary industrial channel for Iprobenfos is in the manufacture of systemic fungicides for paddy rice. Agrochemical formulators incorporate this active ingredient due to its effectiveness against blast (Pyricularia oryzae) and sheath blight (Rhizoctonia solani) in Asian rice-producing zones. Industrial-scale batch preparation demands conformity with local and international pesticide safety standards, and dosing adjustments depend on target disease pressure and environmental persistence in end-use regions. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Seed Treatment Formulation for Paddy and BarleyManufacturers of industrial seed coating and dressing products utilize Iprobenfos for controlled delivery of fungicidal protection at germination. Specialized processing integrates the active compound under stringent quality control to ensure uniform coverage, compatibility with seed coatings, and minimal phytotoxicity, all while observing regional and global regulatory requirements for treated seed movement and worker safety. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Fruit Tree Fungicide ManufacturingHorticultural agrochemical factories use Iprobenfos for the creation of high-value formulations targeting brown rot and leaf spot diseases in apple, citrus, and stone fruit orchards. The in-plant formulation process necessitates compliance with MRLs pertinent to export and domestic consumption, tight batch traceability, and micro-encapsulation or wettable powder processing to align with modern field equipment requirements. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Compounding for Vegetable Fungicide SpraysDedicated manufacturers supplying fungicide solutions for vegetables such as tomatoes, cucumber, and lettuce integrate Iprobenfos to achieve targeted control of phytopathogenic fungi, particularly in regions with recurrent soil-borne infections. The process involves formulation engineering with attention to residue limits, compatibility testing, and stability evaluation under variable greenhouse and field conditions. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Years in the chemical manufacturing business shape a certain respect for the road each product travels before it ever reaches a grower’s hands. Iprobenfos carries a history rooted in careful synthesis, reliable formulation practices, and real attention to the practical experience of both producers and users. Standing here as a manufacturer, I see every drum and batch as part of a larger system—one that ends with healthier rice fields and dependable crop yields, not anonymous inventory on a shelf.
Farmers, especially those working in disease-prone regions, continually look for answers to unrelenting rice pathogens. Fungal threats like rice blast force a manufacturer to dig deeper: molecule design, purity, shelf life, and even how the powder or concentrate stands up after weeks in a warehouse. Every step requires more than ticking industry checklists—it involves direct feedback from real users and constant adjustment on the production floor.
We produce Iprobenfos in several strengths, with our focus typically sitting at the 36% emulsifiable concentrate (EC) mark. This specific standard model grew out of repeated farmer requests and our lab results showing good uptake, easy dilution, and less hassle with residue cleanup after use. It’s not about one formulation “winning” over another—it’s about listening and learning from fields where conditions change every season.
Finer differences lie in the handling. Powder types might seem cheaper, but they clump easily in humid areas, frustrate farmhands, and require extra steps for even mixing. The EC version flows smoothly and doesn’t harden in a container if storage conditions wander outside textbook humidity. Reactions on the production line matter too—stability during transit and storage depends on getting the synthesis conditions right, never taking shortcuts on solvent purity or temperature controls. It’s easy to talk quality; proving it takes batch-after-batch consistency.
Rice blast, sheath blight, and dirty panicle make or break a season, so we don’t approach usage suggestions lightly. For Iprobenfos, our technical staff has walked paddies, documented disease cycles, and spoken face-to-face with ag technicians about timing and dosages. Rice health rarely improves from a product handed off with generic instructions. We started with locally standard dose rates, listened when farmers saw drift or runoff, and iterated—never assuming the first answer was the right one.
A direct foliar spray, usually at the booting and initial heading stages of rice, remains the most productive approach. This is not theory—it’s how we see fields react in southern paddy provinces and northern alluvial plains. In regions where blast pressure spikes, a split-application technique, adjusting intervals with weather swings, proves practical and cuts the risk of wasted chemical or unintended resistance buildup. Only field-based feedback steers these protocols; data sheets rarely tell the full story.
There’s no shortcut for chemical quality. We rely on high-grade o-ethyl S-phenyl ethyl phosphorothioate feedstock, rejecting subpar lots well before they see the reactor. Hitting the right melting and boiling points doesn’t just assure compliance—it keeps every batch consistent and safe to use with modern rice varieties. Every batch faces chromatographic purity checks, runoff simulations, and long-term stability trials under light, heat, and humidity cycles. By the time an order leaves the factory, it’s seen a tougher test bench than many government standards require.
Odor and color, often dismissed in technical writeups, become actual field signals that something isn’t right. We watch for off-notes in the odor profile and color consistency—two easy signs that byproducts slipped through filtration, which can impact both performance and user acceptance. Packaging also requires diligence. Simple mishandling in capping or container selection sets up headaches weeks down the road for both us and the growers. By nature, a liquid EC carries risks if seals are imperfect or inner linings leach back into the concentrate.
Over years supplying Iprobenfos, we’ve dealt with questions about how it compares head-to-head with carbendazim, propiconazole, or modern strobilurins. The real split occurs in the mode of action and plant metabolism. Iprobenfos works as a systemic and protective agent, entering the plant through both roots and leaves, then distributing to growing tissues where it intercepts fungal cell synthesis. While this sits close to some standard organophosphorus fungicides, practical use demonstrates a wider protective net during unpredictable, wet seasons.
Some competitive products show faster knockdown, but they fade quickly or fail in resistant fungus-prone zones. Strobilurins offer a clean slate for new fields, but price and emerging tolerance narrow their usage. Iprobenfos stands out in its balance between residual control and safety to non-target beneficial organisms. Across regions dealing with blast cycles and mixed pathogen pressure, feedback consistently points to longer protection windows and less need to chase infections with rescue treatments.
Resistance remains a constant worry in every grower’s mind. As a manufacturer, we keep tabs on resistance reports and shift synthesis routes when new data emerges, adjusting minor impurities or blend stabilizers. Real-world proof comes from multi-year survey data and direct sampling done side-by-side with ag extension teams. Results keep pointing to strong retention of effectiveness, especially where rotation schemes prevent overuse.
Manufacturing doesn’t end at the factory gate; years of seeing our own field teams respond to sticky tanks or clogged sprayer lines clue us in on real usage issues. Iprobenfos in EC form dissolves quickly in water, with minimal foaming—helpful for farmers with basic mixing equipment. Early powder versions occasionally left residues or formed cakes at tank bottoms—feedback that sent us back to the pilot plant to rework crystallization and grinding parameters.
Transportation can introduce its own drama. Hot storage yards in tropical stations accelerate breakdown unless formulations are cooled and stabilizers dosed correctly. We experienced fewer problems after switching to sealed, light-proof drums with tamper tabs and extra gaskets. None of these factory tweaks get listed as breakthrough technology, but in wet seasons and marginal storage conditions, they spell the difference between a working crop and a wasted investment.
More than compliance, environmental care comes from knowing how quickly a product can move from a paddy to a riverbank or village well. We’ve invested in improved degradation profiles, reducing persistent residues in soil and water testing. Internal batch analysis runs alongside occasional checks from independent labs, making sure breakdown curves match both green regulations and local cleanup capacity. Avoiding byproducts that linger in sediment or disrupt aquatic life sits at the top of our design focus.
Because of rising demand for rice and expanding paddy areas, volume shipments mean a greater stewardship responsibility lands in our lap. We’ve modified our process to reduce solvent use and improve worker safety without hitting price points that lock out small and medium farms. Solvent recovery, improved handling protocols, and safer tank cleaning standards all stem from both regulatory requirement and feedback from workers on-site. Cleaner air, lower water run-off, less hazardous loading—it’s both a safety gain and a practical business need, especially as scrutiny from agencies ramps up.
Returnable packaging, drum recycling, and end-user education take up more resources now than a decade ago. We carve out time for field team visits, both to check correct application and to collect used containers before disposal or recycling. Feedback loops remain central to our process—bad outcomes become redesigns, successful techniques get adopted by other manufacturers, raising the whole industry floor. This level of attention may not scale to mega-corporate levels, but in our size range, it brings genuine change.
Our technical support team does more than answer shipment questions. Most weeks, they assist with field diagnostics: was the infection rice blast or something else, did the weather allow good absorption, could stunting or leaf burn link back to incorrect dosing? Manufacturing may start inside a lab or reactor hall, but it only finishes in healthier fields and yields confirmed at harvest.
Direct relationships with both regional agronomy experts and major growers help us update application advice regularly, including ideal spray conditions, water dilution rates, and withdrawal intervals before harvest. The value of these interactions cannot be overstated—unique soil conditions or local water chemistry shift the uptake rate, and only persistent back-and-forth narrows in on best practices. A simple phone call or field trial at the beginning of the season will often prevent confusion or poor performance six months later.
Even a product with decades in the field needs continued investment. Our R&D chemists fine-tune Iprobenfos synthesis based on both global literature and local performance trends. We keep one eye on molecular advances that might bring safer, faster-acting or environmentally preferable versions, always aware that today’s gold standard can become outmoded in a handful of seasons.
Pilot scale trials, in cooperation with local research stations, map out risks of cross-resistance and trial application at varying paddy water levels. Engineering improvements—tighter controls for filtration, mix time, or microemulsion testing—feed directly back to mainline production. Failures are not setbacks but lessons that shape a more robust, future-ready product. Sometimes that means tweaking minor components, sometimes it means introducing a slightly revised product series tuned for specific climates or rice phenotypes.
Mature products gather a reputation over the years, both good and bad. Iprobenfos receives steady praise for dependability and field persistence, especially in regions prone to heavy rains and wind-driven pathogen spread. Some feedback points to sensitivity under drought or extremely variable water conditions—less an indictment of the product than a call for more precise timing and integrated field management.
Some season-to-season variation in performance underscores that fungicides never work in isolation. Combining Iprobenfos with good field hygiene, rotation between active ingredients, and balanced fertilizer regimens leads to fewer surprises and steadier yields. Where farmers let application slide, or compound chemical stress from other products, the end result drops off. All chemical manufacturers face these same cycles, but honesty about limitations drives long-term trust more than any bold claim.
Rice farming is not static—climate stresses, evolving pathogens, and economic swings force every participant to adapt. As a manufacturer, watching the long arc of product performance keeps us grounded. We invest not only in better synthesis and formulation, but also in field literacy, sustainable packaging, and transparent user feedback. Regulatory landscapes change. Rural populations demand safer, smarter farm inputs. Our job grows broader each year.
By focusing on practical, evidence-driven improvements and standing closely with both the distribution chain and the farmers themselves, we keep the cycle moving: careful synthesis, honest results, steady upgrades, and responsible stewardship of land and water. This approach doesn’t eliminate problems overnight, but it does add up—in harvest totals, in soil health, and in healthier communities at the receiving end of each harvest season.
As manufacturers, our greatest resource remains the knowledge earned in sweat, study, and steady back-and-forth with those who use, apply, and judge Iprobenfos year after year. Each drum tells a story—one rooted in chemistry, but lived out in the dirt, rain, and sun of real-world paddies.