12680-36-3

Basic information

• Product Name: Rhodium oxide
• CAS NO: 12680-36-3
• Molecular Weight: 0
• Mol File: 12680-36-3.mol
• Article Data: 3

Chemical Properties

• Appearance: /
• CAS DataBase Reference: Rhodium oxide(CAS DataBase Reference)
• NIST Chemistry Reference: Rhodium oxide(12680-36-3)
• EPA Substance Registry System: Rhodium oxide(12680-36-3)

Safety Data

• Hazardous Substances Data: 12680-36-3(Hazardous Substances Data)

Upstream product

• 1173022-38-2 carbon dioxide 
• 378784-00-0 rhodium 
• 124-38-9 carbon dioxide 
• 80937-33-3 oxygen 

Related news

Hybrid architecture of Rhodium oxide (cas 12680-36-3) nanofibers and ruthenium oxide nanowires for electrocatalysts08/28/2019

We report the synthesis and electrochemical performances of the hybrid architecture of rhodium oxide (Rh2O3) nanofibers (NF) and highly single crystalline RuO2 nanowires (NW) by combining the electrospinning process and a simple recrystallization process. The amorphous Ru(OH)3·xH2O precursors a...detailed

Dual functional Rhodium oxide (cas 12680-36-3) nanocorals enabled sensor for both non-enzymatic glucose and solid-state pH sensing08/27/2019

Both pH-sensitive and glucose-responsive rhodium oxide nanocorals (Rh2O3 NCs) were synthesized through electrospinning followed by high-temperature calcination. The as-prepared Rh2O3 NCs were systematically characterized using various advanced techniques including scanning electron microscopy, X...detailed

Zinc Rhodium oxide (cas 12680-36-3) and its possibility as a constituent photocatalyst for carbon dioxide reduction using water as an electron source08/25/2019

We evaluated the potential of zinc rhodium oxide (ZnRh2O4) as a carbon dioxide (CO2) reduction photocatalyst with the aid of triethanolamine (TEOA) as an electron donor and demonstrated that ZnRh2O4 was able to reduce CO2 to carbon monoxide (CO) under infrared light. Gold (Au) loading onto ZnRh2...detailed

Electrochromic properties of Rhodium oxide (cas 12680-36-3) thin films prepared by reactive sputtering under an O2 or H2O vapor atmosphere08/23/2019

Rhodium (Rh) oxide thin films were prepared by reactive sputtering at different substrate temperatures under an oxygen or water (H2O) vapor atmosphere, and their crystal structure, density, optical properties, and electrochromic properties were investigated. The film density decreased with decre...detailed

Relevant articles and documents

Hybrid architecture of rhodium oxide nanofibers and ruthenium oxide nanowires for electrocatalysts

We report the synthesis and electrochemical performances of the hybrid architecture of rhodium oxide (Rh2O3) nanofibers (NF) and highly single crystalline RuO2 nanowires (NW) by combining the electrospinning process and a simple recrystallization process. The amorphous Ru(OH)3·xH2O precursors at relatively low temperature were efficiently transformed into highly single crystalline RuO2 nanowires with the tetragonal rutile structure on electrospun Rh2O3 nanofibers. Pure Rh2O3 NF and hybrid RuO2 NW-Rh2O3 NF exhibited different electroactivities toward H2O2 electrochemical reaction: Rh2O3 NF facilitates the H2O2 oxidation vs. hybrid RuO2 NW-Rh2O3 NF promotes H2O2 reduction more favorably. The H2O2 reduction free from O2 reduction interference at RuO2 NW-Rh2O3 NF is advantageous and finds the feasibility for selective H2O2 detection in various samples. Furthermore, RuO2 NW-Rh2O3 NF generated a greatly higher current induced by H2O2 reduction (i.e., enhanced sensitivity to H2O2) than bare Rh2O3 NF.

Preparation of intermetallic phases of noble metals and tin by thermolysis of metal-organic coordination polymers

Intermetallic phases of noble metals (Ru, Rh, Pd, Os, Ir, Pt and Au) were prepared by controlled thermolysis of coordination polymers on the basis of cyanometallates and trimethyltin units (super-prussian blue derivatives). The thermal reaction was carried out under different atmospheres: oxidizing, inert and reducing, upto 1000 °C. Under oxidizing conditions, intimate mixtures of oxides (SnO2 with RuO2, Rh2O3, IrO2, Pt3O4, respectively) were obtained that could be reduced in a second step to the pure noble metals and intermetallic phases incorporating tin (Ru3Sn7, RhSn2, IrSn4, Ir5Sn7, IrSn2, PdSn2, Pd20Sn13, Pd3Sn2, PtSn, PtSn4, Au5Sn, AuSn were all detected). Under reducing conditions, mixtures of metals and intermetallic phases were obtained that could subsequently be oxidized by further thermal treatment to noble metals on SnO2. This offers a new synthetic pathway to such intermetallics and to noble metals on SnO2 supports.