DICHLOROBIS (p-CYMENE) RUTHENIUM (II) DIMER 33#Ufffd (Ru) For Synthesis

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MOQ : 1 Gram

DICHLOROBIS (p-CYMENE) RUTHENIUM (II) DIMER 33#Ufffd (Ru) For Synthesis Specification

Molecular Formula
C20H28Cl2Ru2

Melting Point
Decomposes before melting

Shape
Powder or Crystalline

Other Names
Ru(p-Cymene)Cl Dimer

HS Code
28432100

Form
Solid

Poisonous
No

Smell
Odorless

Storage
Store in a cool dry place under inert gas (e.g. argon)

Density
1.96 Gram per cubic centimeter(g/cm3)

Molecular Weight
609.64 g/mol

Solubility
Insoluble in water; soluble in organic solvents

Purity
99% or higher

Boiling point
(Decomposes)

Structural Formula
[RuCl2(p-Cymene)]2

Classification
Organic Compound

Chemical Name
Dichlorobis (p-Cymene) Ruthenium (II) Dimer

CAS No
52462-29-0

EINECS No
610-667-6

Grade
For Synthesis

Standard
Laboratory Grade

Type
Coordination Complex

Usage
Catalyst in chemical synthesis especially in organic and coordination chemistry reactions

Main Material
Ruthenium

Application
Catalysis in chemical reactions and research in organometallic chemistry

About DICHLOROBIS (p-CYMENE) RUTHENIUM (II) DIMER 33#Ufffd (Ru) For Synthesis

DICHLOROBIS (p-CYMENE) RUTHENIUM (II) DIMER is a high-purity organic compound primarily used as a catalyst in chemical synthesis and research applications in organometallic chemistry. This solid substance, classified under Laboratory Grade, features a molecular formula of C20H28Cl2Ru2 and a molecular weight of 609.64 g/mol. With a purity of 99% or higher, its structural formula is [RuCl2(p-Cymene)]2. The product is odorless, typically in powder or crystalline form, and of Ruthenium as the main material. Despite being poisonous, it is highly soluble in organic solvents while insoluble in water. Storage requirements include keeping it in a cool dry place under an inert gas like argon.

FAQs of DICHLOROBIS (p-CYMENE) RUTHENIUM (II) DIMER 33#Ufffd (Ru) For Synthesis:

Q: What are the primary applications of DICHLOROBIS (p-CYMENE) RUTHENIUM (II) DIMER?

A: The product is extensively used as a catalyst in chemical reactions, especially in organic and coordination chemistry, as well as in research within organometallic chemistry.