Iridium iii Chloride Nanoparticles
Iridium iii Chloride Nanoparticles
Iridium iii Chloride Nanoparticles | |
Product No | NRE-5114 |
CAS No. | 10025-83-9 |
Formula | IrCl3 |
APS | <100nm (Can be Customized) |
Purity | 99.9% |
Color | Black/ Dark Green |
Molecular Weight | 298.58 g/mol |
Density | 5.30 g/cm³ |
Melting Point | 763 °C |
Boiling Point | NA |
Iridium iii Chloride Nanoparticles
Introduction
Iridium(III) chloride IrCl3 is a compound of iridium, a rare and precious metal from the platinum group, with a +3 oxidation state. When prepared in nanoparticle form, iridium(III) chloride displays enhanced properties compared to its bulk counterpart due to its small size, high surface area, and unique electronic and optical characteristics. Iridium(III) chloride nanoparticles are typically synthesized through methods such as sol-gel processes, chemical vapor deposition, or other nanofabrication techniques.
Properties
Catalytic Properties:
Iridium(III) chloride nanoparticles are highly effective catalysts in various chemical reactions, particularly in hydrogenation, dehydrogenation, and other reactions involving hydrogen or organic compounds.
They are also used in catalytic processes for fuel cells, where their ability to facilitate reactions without degrading over time is highly valued.
Luminescence and Photophysical Properties:
Iridium(III) complexes are known for their intense phosphorescence, and when reduced to nanoparticle form, these properties can be further tuned. The nanoparticles are often used in light-emitting devices, such as organic light-emitting diodes (OLEDs), and are also explored in sensing applications due to their ability to emit light upon stimulation.
These nanoparticles are also used in bioimaging, as they can act as fluorescent probes.
Electrical and Electrocatalytic Properties:
Iridium(III) chloride nanoparticles exhibit strong electrocatalytic activity, making them useful in electrochemical applications such as water splitting (for hydrogen production), fuel cells, and batteries. Their ability to facilitate electron transfer at the nanoscale is a significant advantage for energy conversion and storage devices.