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Allylamine

Appearance: Colorless transparent liquid; Ammonia odor; Melting point: -88°C; Boiling point: 55-58°C; Flash point: -29°C (closed cup); Ignition temperature: 371°C; Upper explosive limit % (V/V): 22; Lower explosive limit % (V/V): 2.2; Relative density (water=1): 0.76 g/cm³; Relative vapor density (air=1): 2.0.

Classification :

Allylamine

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PRODUCT DETAILS

CAS NO: 107-11-9

Applications: Used as an intermediate in pharmaceutical intermediates, household chemicals, emulsion modifiers, organic synthesis, resin modifiers, silicone products, etc.

Packaging: 150 kg/drum. Purity >99.0%; Moisture <0.50%.

APPLICATION FIELD

Rubber Products

Ceramics

Medicine

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Water Treatment

Petrochemical

Polymer Materials

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N-Methylallylamine Hydrochloride: Properties, Preparation and Applications

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N-Methylallylamine: Properties, Preparation and Applications

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Diallylamine: Characteristics, Preparation and Industrial Applications of Diallyl Substituted Amines

Diallylamine, also known as diallylamine and N,N-diallylamine, is a secondary alkylated derivative of allylamine. Its molecular formula is C₆H₁₁N, its simplified structural formula is (CH₂=CH-CH₂)₂NH, CAS number 124-02-7, and molar mass 97.16 g·mol⁻¹. As a bifunctional organic amine containing two allyl double bonds and one secondary amino group, it combines the high reactivity of allyl groups with the basic characteristics of secondary amines. Compared with primary allyl amines, the alkalinity after alkyl substitution is slightly weakened but the chemical stability is improved. At the same time, the double double bond structure gives it better polymerization and cross-linking capabilities. It has become a key intermediate in the fields of organic synthesis, polymer materials, water treatment, etc., filling the performance gap between monoallylamine and triallylamine.

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