In the article that we present below, we are going to address the topic of Terbium phosphide in a broad and detailed way. Terbium phosphide is a topic that has generated great interest and debate in recent years due to its importance in today's society. Throughout this article, we will analyze different aspects related to Terbium phosphide, from its historical origin to its relevance in the contemporary world. In addition, we will explore various perspectives and opinions of experts in the field, with the aim of offering a complete and in-depth vision of Terbium phosphide. Without a doubt, this article will be very useful for those who wish to learn more about this topic and its implications today.
| Names | |
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| Other names
Terbium monophosphide, phosphanylidyneterbium
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| Identifiers | |
3D model (JSmol)
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| ChemSpider | |
| EC Number |
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PubChem CID
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| Properties | |
| PTb | |
| Molar mass | 189.899 |
| Appearance | Black crystals |
| Density | 6.82 g/cm3 |
| Structure | |
| Cubic | |
| Related compounds | |
Other anions
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Terbium nitride Terbium arsenide Terbium antimonide Terbium bismuthide |
Other cations
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Gadolinium phosphide Dysprosium phosphide |
Except where otherwise noted, data are given for materials in their standard state (at 25 °C , 100 kPa).
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Terbium phosphide is an inorganic compound of terbium and phosphorus with the chemical formula TbP.[1][2]
TbP can be obtained by the reaction of terbium and red phosphorus at 800–1000 °C:
The compound can also be obtained by the reaction of sodium phosphide and anhydrous terbium chloride at 700~800 °C.[3]
TbP undergoes a phase transition at 40 GPa from a NaCl-structure to a CsCl-structure.[4] The compound can be sintered with zinc sulfide to make a green phosphor layer.[5]
TbP forms crystals of a cubic system, space group Fm3m.[6]
The compound is a semiconductor used in high power, high frequency applications and in laser diodes and other photo diodes.[1]