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HS Code |
150272 |
| Chemical Name | Chlorantraniliprole |
| Iupac Name | 3-bromo-1-(3-chloro-2-pyridyl)-4'-cyano-2'-methyl-6'-(methylcarbamoyl)pyrazole-5-carboxanilide |
| Cas Number | 500008-45-7 |
| Molecular Formula | C18H14BrCl2N5O2 |
| Molecular Weight | 483.15 g/mol |
| Appearance | Off-white to beige crystalline solid |
| Solubility In Water | 0.88 mg/L at 20°C |
| Melting Point | 208.5°C |
| Mode Of Action | Ryanodine receptor modulator (insect muscle contraction disruptor) |
| Usage | Insecticide for crop protection |
| Toxicity To Humans | Low acute toxicity |
| Trade Names | Coragen, Ferterra, Altacor |
| Stability | Stable under normal storage conditions |
| Environmental Persistence | Moderate; degraded by sunlight and microorganisms |
| Target Pests | Lepidoptera larvae and certain other insect pests |
As an accredited Chlorantraniliprole factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The Chlorantraniliprole packaging is a white, sealed 500g plastic bottle with bold labeling, hazard symbols, and clear usage instructions. |
| Shipping | Chlorantraniliprole is shipped as a regulated chemical, typically in sealed, labeled containers meeting international transport standards. It must be protected from moisture, extreme temperatures, and incompatible substances. Packaging ensures no leakage or contamination, and transport documents comply with relevant chemical shipping regulations, such as UN or DOT guidelines. |
| Storage | Chlorantraniliprole should be stored in a cool, dry, well-ventilated area, away from direct sunlight, heat, and incompatible materials such as strong oxidizing agents. Keep the container tightly closed when not in use and store away from food, feed, and water sources. Ensure storage facilities are secure, properly labeled, and designed to prevent leaks or environmental contamination. |
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Purity 97%: Chlorantraniliprole Purity 97% is used in rice pest management, where it delivers high efficacy against stem borers. Particle size 3 µm: Chlorantraniliprole Particle size 3 µm is used in suspension concentrate formulations, where it ensures optimal leaf surface coverage. Stability temperature 45°C: Chlorantraniliprole Stability temperature 45°C is used in tropical climate applications, where it maintains active ingredient integrity during storage. Molecular weight 483.2 g/mol: Chlorantraniliprole Molecular weight 483.2 g/mol is used in residue analysis protocols, where it allows precise quantification in harvested crops. Water dispersibility 98%: Chlorantraniliprole Water dispersibility 98% is used in foliar spray treatments, where it provides rapid and uniform dispersion in tank mixtures. Melting point 208°C: Chlorantraniliprole Melting point 208°C is used in granule formulation processes, where it supports stable processing and product shelf life. Formulation type SC: Chlorantraniliprole Formulation type SC is used in horticultural crop protection, where it delivers consistent insect control with low phytotoxicity. Solubility in water 1.02 mg/L: Chlorantraniliprole Solubility in water 1.02 mg/L is used in slow-release applications, where it offers prolonged pest control duration. Photostability 90% after 14 days: Chlorantraniliprole Photostability 90% after 14 days is used in open field spraying, where it ensures long-lasting field performance under sunlight exposure. Emulsifier compatibility: Chlorantraniliprole Emulsifier compatibility is used in tank-mix programs, where it enables safe mixing with common agricultural adjuvants. |
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Anyone who spends time growing crops or tending to a home garden eventually runs into the trouble of insects threatening their hard work. Chemical solutions still play a big role in protecting crops, and among the options available, Chlorantraniliprole has built a solid reputation. Farmers, agronomists, and gardeners have turned to it for knocking out a range of pests while minimizing worry about harsh effects on other creatures and the land itself.
Chlorantraniliprole belongs to the anthranilic diamide class of insecticides. Structurally, it works in a different way compared to the older chemicals—it hits insects at the ryanodine receptors, which throws off their muscle function until they stop feeding altogether. This approach stands apart from a lot of traditional products that target the nervous system directly, often resulting in both immediate kill and collateral harm. With Chlorantraniliprole, the targeted pests face a powerful shutdown, but pollinators and other beneficial insects, including bees and earthworms, face significantly fewer risks. Data supports this claim; studies show bumblebee colonies remain healthy where Chlorantraniliprole gets applied according to label instructions.
The product commonly comes in formulations such as 0.5% or 1.0% granules and suspension concentrates, making it flexible for both foliar sprays and soil treatments. These models let users adapt the method to their operational scale, from the wide sweeps of row crop acreage to precisely measured plots in greenhouses or gardens. The choice sometimes depends on climate, pests present, crop type, or irrigation practices. Wheat farmers might apply the water-dispersible granules with boom sprayers, while tea or vegetable producers often prefer the granules for more targeted soil application. Based on my own experience visiting farms in both humid and arid climates, the versatility has proved handy, since there’s no one-size-fits-all solution in agriculture.
Pest outbreaks create widespread problems—if you walk through fields after a moth species, like the notorious fall armyworm, makes its rounds, you’ll witness the devastation firsthand. Leaves riddled with holes, stems wilting, and, in many cases, stunted growth or total crop loss. Growers need to respond quickly and efficiently. Here’s where Chlorantraniliprole steps up. It delivers what growers describe as “peace of mind” due to both its reliability and the reduced frequency of applications needed to contain tough pest species, such as Lepidoptera larvae, some beetles, and even notorious rice stem borers.
Applying Chlorantraniliprole often means less stress about residue and persistence. Compared with many organophosphate and pyrethroid products, Chlorantraniliprole breaks down in soil at a reasonable pace, showing a much lower risk of accumulation in the food chain. Regulatory reviews, like those from the U.S. EPA and EFSA, have backed up this safety profile. My experiences in extension work back this up—operators using correct application rates see reliable results without the blowback of resistance that hits older chemistries.
Anyone invested in sustainability knows the value of integrated pest management (IPM). Modern IPM asks us to combine cultural, biological, and chemical controls to curb pest populations without hurting soil or water quality. Chlorantraniliprole brings a tool that fits squarely here. It hits key pest populations hard, allowing space for beneficial insects and predators to thrive, which in turn puts a natural cap on secondary outbreaks. Using it strategically—say, just at peak moth emergence or with careful scouting—cuts down on unnecessary spraying.
I’ve seen firsthand how farmers using Chlorantraniliprole can revisit their fields days after application and spot active predator insects, like ladybird beetles and lacewings, working on aphid infestations. Regions with heavy pollinator presence draw particular benefit, with honey producers reporting little to no disruption after scheduled applications, as long as sprays avoid direct contact with blooming flowers.
The obvious way to judge a new chemistry is to stack it against old standbys. Organophosphates and synthetic pyrethroids set the baseline for decades. Chlorantraniliprole distinguishes itself not by brute force but by particular advantages in selectivity and duration. Whereas organophosphates can impact almost every insect in the field (including pollinators and sometimes vertebrates), Chlorantraniliprole’s specific mode of action means it mainly knocks out caterpillars and beetle larvae. Syngenta and other agricultural research bodies have run hundreds of field trials showing a marked drop in overall impact on non-target fauna, while still providing full pest suppression.
Farmers paying for chemical treatments keep an eye on total input costs. With some of the older chemistries, resistance often creeps in by mid-season—meaning more repeat sprays, wastage, and a spike in operating costs. Chlorantraniliprole, used according to resistance management guidelines, can sustain effectiveness over several cycles. It also doesn’t flare secondary pests as often, so there’s less time scrambling for backup interventions later in the season.
Exposure concerns matter for both field workers and people eating the produce. Chlorantraniliprole underwent extensive toxicology review before commercial launch. Acute toxicity for humans sits much lower than most rival broad-spectrum insecticides. Rates of reported skin irritation or acute allergic reactions run extremely low, and the World Health Organization has weighed in positively on its safety for both mixers and applicators with proper protective gear.
In my work training pesticide users, I consistently note far less physical discomfort or strong chemical odor compared to older options. This feedback typically comes from smallholder farmers who do most of the field work themselves. Groundwater and runoff studies in locations with sensitive watersheds—places where organophosphate contamination previously caused panic—show tangible improvement since the shift toward diamide chemistries like Chlorantraniliprole.
No chemical tool lasts forever, and resistance raises real concerns. Insects have a long history of evolving past well-intentioned solutions. Universities tracking resistance data have flagged pockets of reduced susceptibility to diamide insecticides in areas with heavy spraying for multiple years, especially in crops like cotton and rice.
A sustainable path forward comes from rotating Chlorantraniliprole with unrelated classes—like spinosyns, neonicotinoids, or biologicals—to keep resistance pressure down. Another tip I pass on: use scouting data and economic thresholds, so applications go out only when genuinely needed. Extension agents nationwide are picking up this message, and uptake of resistance management guidelines has slowly improved. When the public conversation keeps coming back to food security and sustainable agriculture, practices like these ought to get more attention and support.
I recall talking with a sweet corn grower on the edge of a major U.S. city about his pest woes. Every summer, armyworms wiped him out, even when he rotated older chemistries and did his best with cultural controls. The year he first tried Chlorantraniliprole, he admitted he braced for another season of spotty harvest. Weeks later, he reported noticeably fuller ears and only minor leaf damage. Public crop walks confirmed what he saw: broader canopy, fewer emergency sprays, and less concern about residues. Local bee keepers, who previously rang him up at every hint of a new spray campaign, voiced fewer complaints.
Community gardens tell another story. Budgets rarely stretch for repeat treatments or sophisticated application gear. Chlorantraniliprole, in granular form and applied lightly to infested beds, brought tangible relief without much labor, and without the telltale signs of harm to ladybirds or pollinators. When results like this filter through a network, trust builds rapidly, and use spreads through word of mouth, not advertising.
Across the world, growers face different pressures—drought, monsoons, or unique combinations of weeds and insects. Despite the diversity of agriculture, Chlorantraniliprole finds a place just about everywhere. It made big inroads in Asian rice production, where persistent stem borers cripple yields. Survey data from extension researchers in Vietnam and India document higher yields, improved panicle stability, and fewer re-treatments.
Greenhouse operators using hydroponics likewise pivoted to Chlorantraniliprole. Growing in water puts a spotlight on avoiding chemical runoff. Granular and suspension forms of this product dissolve well with low-volume, precision equipment, trimming down overspray and off-target movement. I’ve met Dutch and Canadian growers who cite fewer worker health complaints, easier equipment clean-up, and fewer reports of weed resurgence—something that often follows blanket use of broad-spectrum chemicals.
Ask any field technician what matters on a tough day: reliable results, easy measurement, and peace of mind regarding worker and consumer safety. Chlorantraniliprole brings these in one package. Application rates stay manageable, and the low volatility cuts down inhalation risks.
While not part of every grower’s lineup, its place keeps expanding as resistance to other chemicals deepens and as environmental standards tighten. The shift away from hard-hitting organophosphates, some of which drop out of the market through regulation, means Chlorantraniliprole meets a growing demand. Over time, this adaptability keeps it front-of-mind not just for big acreage but also small specialty growers, greenhouse caretakers, and even landscape stewards tasked with protecting parks against caterpillars and grubs.
No chemistry avoids debate. Some growers raise concerns about price per acre, especially in lower-margin crops, as Chlorantraniliprole does cost more upfront than legacy formulas. Labs tracking water quality sometimes flag Diamide residues in isolated cases, though levels seldom climb to thresholds set by environmental agencies. Responsible stewardship remains essential.
Organic growers still can’t tap into its benefits, and discussion continues around whether softer alternatives, including biological larvicides, will someday offer equivalent pest knockdown. In regions with high stewardship standards, calls grow louder for full disclosure of field safety data and for research into cumulative impacts when diamide chemistries are used back-to-back with other products.
Anyone logging years in agriculture learns the hard way how pest management isn’t a static science. New products roll out with fanfare, last several seasons, and sometimes fade as nature adapts. Yet, Chlorantraniliprole stands as a powerful reminder that targeted innovation, especially improvements that focus on pest selectivity and operator safety, really matter.
Regular training, strong scouting protocols, and committed stewardship partnerships define the way forward. My advice to both new and seasoned growers is to stay current with data—both independent and university trials—since chemistry demands informed handling. When communities band together to watch results and openly share setbacks, they break the cycle of dependency on any single mode of control.
The best solutions rarely come off-the-shelf with zero frustration. Chlorantraniliprole doesn’t claim to conquer every pest or sort out all agricultural headaches. It gives users a reliable front-line option, broadens the safety net for pollinators, and opens the door to blending chemical and biological tactics. Whether applied to vast acres of staple crops or small high-value plots, its record demonstrates that new chemistry, configured thoughtfully and used with care, really can move the needle on sustainable production.
As the industry reflects more on climate change, soil health, and the complex web of farm ecosystem service, the demand for smarter, safer solutions will only intensify. Chlorantraniliprole won’t solve every challenge, but it reminds all of us—farmers, researchers, and policy makers alike—that the best path forward lies in constant refinement, transparent information, and real-world feedback. Each season, each field, and each new pest outbreak offers a lesson. Products like Chlorantraniliprole mark progress in the science of stewardship, balancing the needs of food security, public health, and responsible land care for years to come.