1,10-Dichlorodecane: Chemical Profile and Uses
What is 1,10-Dichlorodecane?
1,10-Dichlorodecane carries the molecular formula C10H20Cl2 and falls into the family of aliphatic organochlorides. A linear decane backbone gives this compound ten carbons in a straight chain, with chlorine atoms positioned at each end of the molecule. Its structural clarity helps not only chemists but also workers on the production line who see it as a clear, colorless to pale liquid. That liquid form brings both opportunity and risk, as handling chemical liquids always reminds those on the job of the importance of personal protective equipment and good ventilation.
Physical Properties and Practical Considerations
With a molecular weight near 211.18 g/mol, 1,10-Dichlorodecane sticks out from simpler hydrocarbons due to the presence of two chlorine atoms, which influence density and reactivity. You can expect a density around 1.02 g/cm³ at room temperature, so it’s slightly heavier than water. High chemical purity leaves little room for mystery in material performance, whether it’s delivered in steel drums or glass bottles. The liquid remains stable under standard storage but needs a cool, dry place, since prolonged sunlight or heat risks decomposition. Those working in warehouses learn quickly that vapor from this liquid, with its faint, somewhat sweet odor, means ventilation comes before comfort. There’s always a story about spilled chemicals on a loading dock, and no one wants to become the cautionary tale that’s passed down to the new hires.
Chemical Structure and Specifications
From a chemical structure perspective, 1,10-Dichlorodecane—also called decamethylene dichloride—has chlorine atoms bonded to both terminal carbons on a straight line of ten carbon atoms. This setup brings symmetry and certain stability, but those chlorines also open the door for chemical reactions that wouldn’t occur with plain decane. Technical specifications often focus on purity, boiling and melting points, and maximum trace contaminants. Melting point lands well below freezing, and the boiling point ranges above most water-based solvents, often around 315 °C under atmospheric pressure. Big chemical companies stamp the HS Code 2903.19.90 on shipping manifests, signaling customs agents that this is a halogenated hydrocarbon, with specific import/export regulations attached.
Forms and Handling: Liquid, Flakes, Powder, and Pearls
You usually meet 1,10-Dichlorodecane in a flowing liquid state, but production or storage quirks sometimes produce semi-solid forms—flakes or even crystalline deposits on cooled surfaces. In larger operations, solid or semi-solid variants don’t appear unless storage temperatures dip too low in winter. I've watched coworkers scrape crystals out of drums after a cold snap, only to spend hours blending the material back into solution for processing. This highlights why warehouse managers track not just chemical inventory, but ambient temperature. Attempts to work with this compound as a solid or powder remain rare due to its physical nature, which leans toward a fluid liquid at typical working conditions. Still, processing improvements might someday bring new forms for specialized uses, so material scientists keep experimenting.
Material Properties and Industrial Application
As a chemical intermediate, 1,10-Dichlorodecane fits into formulations for surfactants, specialty chemicals, and sometimes as a building block for synthesizing polymers or lubricants. Its chemical stability in closed systems and under controlled laboratory conditions means fewer surprises during reactions, but the chlorinated backbone brings environmental and health hazards that nobody ignores. Chemists know the risks: Inhalation, dermal exposure, and accidental spills need careful controls. Workers often wear gloves made of nitrile or neoprene, and eye protection. Chronic exposure concerns drive plant managers to install fume hoods and air monitors, especially when mixing this compound with other reactive agents.
Environmental, Health, and Safety Perspective
Risk management in facilities using 1,10-Dichlorodecane centers on its status as a hazardous, harmful chemical. The chlorinated structure means if it leaks, it doesn’t just disappear—it can linger in soil or water, presenting long-term disposal headaches. Environmental teams track every gram, and waste must be handled as hazardous material, never just rinsed down a drain. There’s a lesson in every safety data sheet: always have spill kits nearby, and always know how to use the emergency eyewash. From a health viewpoint, brief exposure might lead to skin or eye irritation, but chronic inhalation or repeated contact calls for careful medical assessment. Regulatory bodies demand clear labelling, comprehensive worker training, and up-to-date material safety data, for good reason.
Raw Materials and Future Solutions
On the supply side, production of 1,10-Dichlorodecane relies on chlorination of decane in tightly controlled industrial reactors. Shifting to greener chemistry—and reducing raw material waste—rests on improved catalysts and byproduct minimization. In my experience, facility engineers constantly tinker with reagent ratios and process temperatures, seeking efficiency and cleaner output. This matters as regulations tighten worldwide against persistent organic pollutants. Ongoing research into biodegradable alternatives and better capture of exhaust streams from chlorinated processes could ease environmental burdens. Industries using 1,10-Dichlorodecane as a raw material have a stake in stricter oversight and smarter redesigns, not just for compliance, but for safe, sustainable operations that protect both workers and communities.