Shandong Jiurunfa Chemical Technology Co., Ltd. manager@chemical-sales.com 86-531-88978007
Shandong Jiurunfa Chemical Technology Co., Ltd. company profile
Products
Home > Products > DME Dimethyl > ODM DME Dimethyl Solvent For Fuel Aerosol Propellant Refrigerant

ODM DME Dimethyl Solvent For Fuel Aerosol Propellant Refrigerant

Product Details

Place of Origin: Shandong China

Brand Name: JIURUNFA

Certification: ISO9001

Model Number: DEM

Payment & Shipping Terms

Minimum Order Quantity: 1T

Price: Negotiable

Packaging Details: 50kg/100kg cylinders or ISO tanks

Delivery Time: 7-15 Days

Payment Terms: L/C,D/A,D/P,T/T

Supply Ability: 100000T

Get Best Price
Chat Now
Product Details
Highlight:

ODM DME Dimethyl

,

Fuel DME Dimethyl

,

dme solvent Aerosol Propellant

Vapor Pressure:
5.3 Bar At 20 °C
Density:
0.664 G/cm3
Lower Explosive Limit:
3.2%
Heat Of Combustion:
-48.2 KJ/mol
Odor:
Ethre-like
Molecular Weight:
46.07 G/mol
Flash Point:
-41 °C
Boiling Point:
-24.9 °C
Vapor Pressure:
5.3 Bar At 20 °C
Density:
0.664 G/cm3
Lower Explosive Limit:
3.2%
Heat Of Combustion:
-48.2 KJ/mol
Odor:
Ethre-like
Molecular Weight:
46.07 G/mol
Flash Point:
-41 °C
Boiling Point:
-24.9 °C
Product Description
ODM DME Dimethyl Solvent For Fuel Aerosol Propellant Refrigerant
Product Introduction

DME (Dimethyl ), also known as methyl and methoxymethane, is the simplest fatty . It is derived from the dehydration condensation of two methanol molecules. At room temperature, it appears as a colorless, non-toxic gas or compressed liquid with a slight aroma. As an important organic chemical product and intermediate, DME serves multiple industrial purposes.

Specification Parameters
Chemical Formula C2H6O
Molecular Weight 46.07 g/mol
State Gas at normal temperature and pressure
Density Approximately 1.908 kg/m³ (at 21.1°C, 1 atm)
Melting Point -141.5°C
Boiling Point -24.8°C
Flash Point -41.1°C
Ignition Point 350°C
Explosion Limits Lower: 3.4%, Upper: 18% (in air)
Octane Number High (>55)
Properties

DME demonstrates excellent stability in air, is non-corrosive, slightly toxic, and non-carcinogenic. It exhibits good miscibility with most polar and non-polar organic solvents.

As a chemical intermediate, DME participates in various reactions:

  • Alkylation with benzene (catalyzed)
  • Reaction with carbon monoxide to produce methyl acetate
  • Homologation reactions forming ethyl acetate and acetic anhydride
  • Reaction with carbon dioxide yielding methoxyacetic acid
  • Reaction with fuming sulfuric acid producing dimethyl sulfate
  • Reaction with hydrogen cyanide forming acetonitrile
Stability
  • Exhibits methylation reaction properties with various compounds
  • Forms explosive mixtures when combined with air
  • Stable under normal conditions
  • Incompatible with: strong oxidizers, acids, halogens, sulfur compounds
  • Avoid contact with air and light
  • No polymerization hazard
Applications
  • Fuel:
    • LPG replacement for domestic/industrial cooking
    • Alternative diesel fuel for vehicles and power generation
  • Aerosol Propellant:
    • Cosmetics, pharmaceuticals, and household sprays
  • Chemical Feedstock:
    • Synthesis of dimethyl sulfate, acetic acid, and other intermediates
  • Refrigerant:
    • Efficient cooling agent in refrigeration systems
  • Welding and Cutting:
    • Fuel for oxy-DME welding applications
Technology

Our DME production utilizes advanced methanol gas-phase catalytic dehydration technology, yielding fuel-grade dimethyl exceeding 99.0% concentration. Further purification through a lightness removal tower (employing high-efficiency corrugated rolled perforated plate filler) achieves refined (99.9%) and high-purity (99.99%) grades.

Theory

DME's chemical stability and low molecular weight enable high reactivity for energy and chemical processes. Combustion reaction:

CH₃OCH₃ + 3O₂ → 2CO₂ + 3H₂O + Energy
Service
  • Customized solutions for various industries
  • Global logistics support with safe transport
  • Technical assistance including on-site troubleshooting
  • 24/7 customer support
Production Process
  1. Methanol dehydration using solid acid catalysts
  2. Purification to achieve >99.99% purity
  3. Pressurized tank storage for distribution
Operation Instructions
  • Handle in well-ventilated areas; avoid inhalation/skin contact
  • Store in sealed, pressurized containers away from heat/sunlight
  • Transport as liquefied gas following safety regulations
Precautions
  • Prevent high temperature exposure to avoid vaporization
  • Use leak-proof containers and proper safety protocols
  • Install flame arrestors in DME handling systems
  • Wear appropriate PPE (gloves, masks) during use