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Bulk Dimethyl Ether DME Compound Solvent LPG Substitute Cas 115-10-6

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

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Product Details
Highlight:

Bulk DME compound

,

DME compound Solvent

,

cas 115-10-6

Odor:
Ethre-like
Refractive Index:
1.325
Density:
0.664 G/cm3
Flammability:
Highly Flammable
Chemical Formula:
C2H6O
Autoignition Temperature:
160 °C
Solubility In Water:
Slightly Soluble
Melting Point:
-141.5 °C
Odor:
Ethre-like
Refractive Index:
1.325
Density:
0.664 G/cm3
Flammability:
Highly Flammable
Chemical Formula:
C2H6O
Autoignition Temperature:
160 °C
Solubility In Water:
Slightly Soluble
Melting Point:
-141.5 °C
Product Description
Bulk Dimethyl Ether (DME) Compound Solvent LPG Substitute (CAS 115-10-6)
Main Uses of Dimethyl Ether (DME)
1. Replacement of Chlorofluorocarbons as Aerosols
With increasing global environmental awareness, DME serves as an eco-friendly alternative to chlorofluorocarbons previously used in aerosol applications.
2. Refrigerant and Foaming Agent Applications
DME's low boiling point, high heat of vaporization, and vaporization characteristics similar to chlorofluorocarbons make it ideal for:
  • Refrigerators and air conditioning systems
  • Food preservation applications
  • Foaming agent for polystyrene, polyurethane, and thermoplastic polyester foams
Foamed products using DME exhibit uniform pore size with enhanced flexibility, pressure resistance, and crack resistance.
3. Fuel Applications
DME's properties make it an excellent clean energy alternative:
  • Similar vapor pressure to LPG (liquefies under low pressure, gasifies at normal conditions)
  • High cetane number (~55) suitable for diesel engine applications
  • Low toxicity and excellent combustion characteristics
  • Applications in clean civilian fuels, automotive engine fuels, and alcohol fuels
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, greater than 55
Production Methods
Methanol Dehydration Method
Primary industrial production method using methanol dehydration reaction with catalysts (γ-alumina, ion exchange resins):
2CH3OH → CH3OCH3 + H2O
Advantages include simple process and low production costs.
Synthesis Gas Production Method
Utilizes syngas (CO + H2 mixture) through:
  • One-step method: Direct DME synthesis from syngas
  • 2CO + 4H2 → CH3OCH3 + H2O
  • Two-step method: Syngas to methanol conversion followed by dehydration
Benefits include wide raw material availability and high production efficiency.
Market Prospects
Growing global demand for clean energy and chemical raw materials positions DME for significant market expansion, particularly in China where government policies strongly support DME industry development. Continuous technological advancements and expanding applications promise enhanced economic and environmental benefits.
Conclusion
DME's unique properties enable diverse applications across fuel, refrigeration, foaming, and chemical industries. With methanol dehydration and syngas methods as primary production technologies, DME is poised to play an increasingly vital role in sustainable industrial development and environmental protection.