Antimony oxide (SbO2)
-
Antimony oxide (SbO2)
structure -
-
CAS No:
12786-74-2
-
Formula:
O2Sb
-
Chemical Name:
Antimony oxide (SbO2)
-
Synonyms:
Antimony oxide (SbO2);Antimony oxide (Sb4O8);Antimony dioxide;SNAP (oxide);58244-74-9
-
CAS No:
Description
Antimony Oxide (SbO₂) (CAS No: 12786-74-2) is an inorganic compound with the formula O₂Sb and a molecular weight of 153.759 g/mol. The exact mass of this compound is 152.89364, and the mass of a single isotope is the same. Antimony Oxide has two hydrogen bond receptors, a heavy atom number of 3, a complexity of 18.3, and a covalent bond unit number of 1. In order to ensure the consistency of its quality and characteristics, the compound has been normalized. This inorganic compound exhibits excellent chemical stability in the solid state. The topological pole surface area of Antimony Oxide is 34.1, which indicates that Antimony oxide has a large reaction surface area, which makes it show high activity in chemical reactions. This property makes Antimony Oxide valuable in many industrial applications, such as as a catalyst, flame retardant, and raw material for other chemicals. Due to its stable chemical properties and large reaction surface area, Antimony Oxide has a wide range of applications in materials science and chemical engineering.
Antimony oxide (SbO2) Use and Manufacturing
Antimony Oxide (SbO₂) is an important compound that plays a key role in several fields. First, SbO₂ is mainly used in the manufacture of fireproof materials and flame retardants, which are widely used in plastics, rubber and textiles to improve the fire resistance of these materials. By adding SbO₂, these materials can effectively slow down the combustion rate in the event of an ignition source, thus increasing safety. In addition to its applications in fire-resistant materials and flame retardants, SbO₂ also plays an important role in the ceramics and glass industry. As an additive, SbO₂ can improve the properties of ceramic and glass materials, such as increasing their mechanical strength and heat resistance. This allows these materials to maintain good stability and durability even at high temperatures. In addition, SbO₂ also has important applications in chemical synthesis and catalytic reactions due to its excellent oxidation resistance and chemical stability. Especially in the preparation and application of catalysts, SbO₂ plays an irreplaceable role. It can improve the activity and selectivity of the catalyst, thus improving the reaction efficiency and product quality in industrial production. Therefore, SbO₂ has an important industrial value in the chemical industry and is an integral part of many chemical reactions.
Computed Properties
Molecular Weight:153.759
Hydrogen Bond Acceptor Count:2
Exact Mass:152.89364
Monoisotopic Mass:152.89364
Topological Polar Surface Area:34.1
Heavy Atom Count:3
Complexity:18.3
Covalently-Bonded Unit Count:1
Compound Is Canonicalized:Yes
Learn More Other Chemicals
-
Bismuth lead ruthenium oxide (Bi2Pb2Ru4O13)
11116-83-9
-
Bismuth zirconium oxide (Bi2Zr3O9)
12048-52-1
-
Calcium iron oxide (Ca2Fe2O5)
12013-62-6
-
Aluminum zinc oxide (Al2ZnO4) Formula
12068-53-0
-
Antimony lead oxide (Sb2PbO4) Formula
16450-50-3
-
Ammonium tungsten oxide ((NH4)2W4O13) Formula
12398-61-7
-
Cerium zirconium oxide (Ce2Zr2O7) Structure
12157-80-1
-
Cerium oxide sulfide (Ce2O2S) Structure
12442-45-4
-
What is Niobium oxide (NbO)
12034-57-0
-
What is Magnesium titanium oxide (Mg2TiO4)
12032-52-9