|
HS Code |
148801 |
| CAS_Number | 142-28-9 |
| Molecular_Formula | C3H6Cl2 |
| Molar_Mass | 112.99 g/mol |
| Appearance | Colorless liquid |
| Odor | Sweet, chloroform-like |
| Melting_Point | -82.5°C |
| Boiling_Point | 120–121°C |
| Density | 1.18 g/cm3 (at 20°C) |
| Solubility_in_Water | Slightly soluble |
| Vapor_Pressure | 18 mmHg (at 25°C) |
As an accredited 1,3-Dichloropropane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 500 mL amber glass bottle, securely sealed, featuring hazard labels, chemical name "1,3-Dichloropropane," and safety handling instructions. |
| Shipping | 1,3-Dichloropropane should be shipped as a hazardous chemical under UN1992, PG III. It must be securely contained in approved, properly labeled containers, protected from heat and sparks. Shipping should comply with regulations for toxic, flammable liquids, including emergency response information and safety data sheets. Handle with appropriate protective equipment. |
| Storage | 1,3-Dichloropropane should be stored in a cool, dry, well-ventilated area, away from heat, sparks, open flames, and sources of ignition. Keep the container tightly closed and properly labeled. Store away from incompatible substances such as strong oxidizers. Use corrosion-resistant containers and ensure grounding for transfer operations to prevent static discharge. Comply with all local and national regulations for hazardous chemical storage. |
Applications of 1,3-Dichloropropane in Industrial Manufacturing1,3-Dichloropropane serves as a critical chlorinated intermediate in the synthesis workflows of several downstream industries. As a direct manufacturer, we supply high-purity product optimized for integration into well-established chemical conversion pathways. The applications below describe core industrial scenarios, each with a strict focus on process, compliance, and finished goods output. 1. Agrochemical Synthesis: Intermediate for Herbicide ManufactureIn agrochemical production facilities, 1,3-dichloropropane functions primarily as a process intermediate to build complex herbicide molecules, such as by acting as a chlorinated propyl source in alkylation stages. Manufacturers incorporate it where selectivity and controlled reactivity yield high-value actives for preemergent and soil-sterilant herbicide products. Because the transformation relies on halogenated backbone construction, the raw material’s feedstock integrity and batch traceability are scrutinized throughout QC cycles. Industry compliance standards
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2. Pharmaceutical Intermediate ProductionWithin pharmaceutical synthesis environments, 1,3-dichloropropane is utilized for the construction of linker molecules or as a source for selective propylation in building specialty intermediates. It is especially critical in multi-step synthesis pipelines requiring defined halogen placement, ensuring downstream purity and consistency. Regulatory audits emphasize traceability, impurity profiles, and validated cleaning protocols due to the critical downstream use of resulting compounds as APIs or advanced intermediates. Industry compliance standards
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3. Industrial Solvent Stabilizer SynthesisIn solvent manufacturing plants, 1,3-dichloropropane is integrated into production lines for chlorinated solvent stabilizer blends, particularly where performance depends on the presence of specific low molecular weight halogenated hydrocarbons. Process engineers incorporate the material to tailor solvent stability, retard decomposition, and meet stringent flashpoint and toxicity requirements for metal cleaning or degreasing sector applications. Industry compliance standards
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4. Fine Chemicals: Chlorinated Building Block SupplyIn the specialty and fine chemicals industry, manufacturers use this dichlorinated C3 building block to construct advanced specialty chemicals where chain structure and terminal chlorination determine downstream molecular properties. Integration focuses on the formation of target molecules for polymer modifiers, cross-linkers, or surface-active agents, and necessitates documented handling due to the material’s chlorinated nature and potential reactivity under certain processing conditions. Industry compliance standards
Typical usage ratio
Downstream process integration
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Working with 1,3-dichloropropane for years, we have witnessed its distinct role across many processes in chemical industries. Chemically, it takes the form of a colorless, combustible liquid with a faint, sweet odor. Its molecular formula, C3H6Cl2, matches its direct and reliable nature. From our warehouse to the shipping drum, every batch reflects painstaking attention to quality and purity. The product we ship arrives as a technical grade, and our purity range typically surpasses 98.5%. Color, specific gravity, and minimal moisture content become our daily checkpoints on every batch run.
Over the years, we've refined our production processes, starting from chlorination of propane under tightly regulated conditions. This direct synthesis keeps by-products at bay. Gas chromatography and titration methods let us assess purity and catch impurities like 1,2-dichloropropane, trichloropropanes, or residual starting material so these never sneak past into the hands of our customers.
Our customers in the agrochemical and polymer industries keep coming back for one reason: dependability. 1,3-dichloropropane acts as an intermediate in the synthesis of a wide circle of specialty chemicals. Its key use as a building block for pharmaceutical agents, pesticidal actives, and advanced polymer modifiers comes from the reactive chloro groups bracketed on each end of the propane backbone.
Manufacturers use it to create products such as herbicides, where specific reactivity with other halogenated compounds is paramount. Some also take advantage of its physical properties for deep solvent extraction or as a precursor for custom organics, moving quickly from laboratory development to industrial scale. Because we keep our process tightly controlled, research labs can rely on consistent material for reaction screening and process optimization.
The petrochemical sector continues to adopt 1,3-dichloropropane for applications in additives where flexible, predictable substitution patterns give them a practical edge over other chlorinated solvents. In polymer chemistry, it is picked up for cross-linking plasticizers and for making tailored resins, both in bulk and specialty runs. Factories designing custom performance coatings have found its structure particularly valuable—these projects count on every batch to behave predictably.
Years in the chemical business have drilled into us how much detail matters when choosing a chlorinated hydrocarbon. For those unfamiliar, the term “dichloropropane” covers multiple isomers, mainly 1,2-dichloropropane and 1,3-dichloropropane. These isomers share a formula but the location of chloride atoms impacts their chemistry and behavior in tough, real-world applications.
With 1,3-dichloropropane, both chlorine atoms sit at the ends of the molecule (the 1 and 3 positions on propane), producing more symmetrical reactivity than its 1,2- counterpart. This difference becomes clear on the production floor. In nucleophilic substitution, for example, customers report smoother reactivity which affects both selectivity and product yields. Our technical team frequently guides long-term clients through these distinctions—choosing 1,3-dichloropropane trims unnecessary steps from their synthetic routes, shaving costs on catalyst and separation.
1,2-dichloropropane, sometimes called propylene dichloride, sees much heavier use in the solvent industry and as an intermediate for epichlorohydrin production. Its profile differs not just in chemistry but in physical handling as well. Its boiling point and vapor pressure contrast with 1,3-dichloropropane in storage and process safety. For us, safely managing our own stock means understanding that 1,3-dichloropropane tends to be less volatile and more manageable at the drum-filling line, a quality our facility operators appreciate. The same, seemingly minor, difference keeps logistics tight and spills rare.
Industrial users searching for tailored reactivity push for 1,3-dichloropropane over its isomers. Chemical engineers at our end see better monomer formation, predictable chaining in polymerization, and more directed conversion in agrochemical precursors. Its reactivity is neither too aggressive nor too dull; it fits perfectly into those reactions where a predictable, clean transformation is needed. In contrast, neighboring isomers sometimes invite side reactions or inconsistent yields—not so much an academic point, but a real-world issue gripping production efficiency.
Every gallon of 1,3-dichloropropane handled in our plant is treated with the respect these chemicals demand. Storage in carbon steel drums keeps it stable. We inspect storage tanks for moisture intrusion. Operators take care with temperature control, since the compound remains stable at room temperature but can break down if exposed to excessive heat. Nitrogen blanketing gets deployed for large storage tanks, keeping the product pure and minimizing decomposition.
Our experience shows that even small traces of impurities can compromise the downstream reactions in pharmaceutical or agricultural manufacturing. For this reason, we purge lines meticulously during changeovers and use in-line monitoring for the first liters drawn off each production run. This vigilance prevents contamination and preserves the trace-level purity our partners expect.
On filling and dispensing, we have replaced older, open-pour systems with sealed transfer pumps. The change reduced fugitive vapor emissions and improved worker safety, which has mattered as more environmental controls take root in chemical industries around the world. For customers with large-scale needs, we offer customized tank deliveries in bulk isotainers. Coordination with their engineering teams guarantees compatibility with their process piping, avoiding loss and exposure on their end.
Many facilities around the globe still load material using older, unsealed drums or rely on makeshift siphons. That practice lets fumes escape. For anyone looking to start a project involving 1,3-dichloropropane, upgrading to closed transfer is one practical change bringing both safety and yield gains. Over the span of years, those avoided losses stack up to a serious cost saving for both plant and planet.
As manufacturers, we have seen the ebb and flow of supply, regulatory swings, and evolving customer requirements. Sourcing high-purity feedstocks demands careful monitoring of global supply lines—especially for the high-grade chlorinated propane needed for sensitive synthesis. Quality can’t be left to chance. Whenever shortages loom, some traders will offer cheaper splits, often blended or misrepresented as pure 1,3-dichloropropane. Over the years, we have seen how those cuts result in poor yields and expensive process cleanups for clients down the line.
Maintaining strict in-house quality control avoids nasty surprises. For our facility, routine analysis includes checking for trace chlorides, monitoring color with APHA methods, and setting red lines on water content—every fractional percent counts for those making high-value chemicals. Partners trust that each drum delivers the promised composition, batch after batch.
Regulatory changes put additional demands on manufacturers. Some jurisdictions require special registration or environmental reporting for compounds like 1,3-dichloropropane due to their persistence and potential health impacts. Our compliance team keeps a close ear to policy changes and works with local authorities. The goal: keep customer supply chains running without risk of non-conformance or interruption caused by distant rule changes.
For downstream users, challenges often start with basic safety issues—whether at the point of use or disposal. 1,3-dichloropropane must not end up in open drains, nor should it be incinerated without temperature-controlled, scrubbed facilities. The compound persists if released without treatment, so responsible users invest in containment, capture, and sanctioned disposal channels.
Our technical support teams work alongside customers to develop better handling and disposal systems. By sharing best practice protocols—closed pumping, vapor recovery, employee training—losses drop, exposure risks shrink, and public trust in the entire supply chain grows. Conversations with engineers in both established and startup industries keep us evolving, refining equipment, and tightening up standard operating procedures.
Any chemical is only as good as its performance for the end-user. Honest feedback from our customers has shaped improvements year after year. Polymer manufacturers let us know how critical trace purity is for consistent production runs: a slight shift can mean weeks lost on troubleshooting. The flexibility of 1,3-dichloropropane’s reactivity continues to surprise custom synthesis labs, shaving time on new molecule development.
We’ve learned when a client wants a different packaging size, rapid turnaround, or third-party certification, we gain from listening rather than assuming needs stay constant. Agricultural clients, for instance, have explained in detail how product quality links directly to the shelf-life and performance of their pest-management products. They show us the cost of reallocating resources after only modest failures in raw material quality.
Customers building new plants often ask for on-site assistance for their first orders—joint troubleshooting during first fills and line commissioning. We send our technical team to walk the process, check lines for compatibility, and offer step-by-step support. These collaborative efforts produce fewer bottlenecks later and tighter long-term relationships.
Strong, candid relationships—worked out over years—matter more than slogans or certifications alone. Picking up the phone when a batch doesn’t work quite right, sending a sample overnight, or rewriting a shipping process to avoid container delays all define our way of working. Our team prides itself on solving problems directly, not passing responsibility back to the customer or blaming a remote supplier.
Environmental responsibility remains a driving concern. As a company rooted in chemical production, we know the risks and the rewards of advanced chlorinated hydrocarbons. Investment grows in process improvements, capturing fugitive emissions, and tightening closed-loop systems, ensuring 1,3-dichloropropane, from tank to reaction vessel, is tracked and contained.
Internal research teams run pilot projects looking for ways to boost catalyst efficiency and reduce waste at each processing step. Trials on innovative recycling approaches for spent material now form part of our operational routine. By collaborating with large-scale polymer facilities and agricultural producers, we develop practical, achievable methods for recycling both our own process scraps and downstream waste streams.
Industry experts, academic partners, and on-the-ground engineers have started pushing research further—exploring bio-based routes to dichloropropanes. The goal is to build on existing supply chains and transition to greener feedstocks, conserving overall resource use without sacrificing product quality. Progress is incremental but persistent. Each experimental batch teaches us more; each failure narrows gaps in understanding. As more renewable energy and carbon capture techniques integrate into our plant, we expect further reductions in environmental footprint.
We encourage downstream users to join research consortia and open discussions, because practical advances rarely happen in isolation. By publishing our process data and collaborating with innovation hubs, advances made in our plants benefit the entire industry. Responsible handling, rigorous technical support, and a willingness to share hard-won experience define our approach.
Decisions on sourcing, handling, and applying chlorinated hydrocarbons don’t happen in a vacuum. Each batch of 1,3-dichloropropane carries years of hands-on learning, ongoing investment in quality control, and the silent partnership of field technicians, process operators, engineers, and environmental stewards all the way from manufacturer to end-user.
No isomer or substitute fits every application. Success, in our experience, hinges on close consultation between supplier and user, honest reporting of needs, and stubborn focus on both craft and compliance. The stories we hear—about processes gone awry due to low-grade imports, or breakthroughs unlocked by choosing the right material and the right partner—remind us why we hold the line on standards, transparency, and direct support.
We believe that manufacturing 1,3-dichloropropane means more than blending chemicals and sealing drums. It involves attentive listening, rigorous improvement of every process, and a practical sense of responsibility. We work alongside our customers as they invent tomorrow’s products, conserve resources, and demonstrate leadership in safety and sustainability. Those of us in the industry know that real trust gets built in every shipment—year after year, drum by drum.
For those considering their first project or seeking a new supply chain partner, engaging with a manufacturer who brings both technical depth and a willingness to stand beside its users pays lasting dividends. 1,3-dichloropropane, supplied with commitment to quality and support, provides a foundation for success—not just as a chemical intermediate, but as a link in industrial progress driven by real-world experience.