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The adaptable lyonsite structure.

Jared P Smit¹, Peter C Stair, Kenneth R Poeppelmeier

¹Department of Chemistry, Northwestern University, 2145 Sheridan Road, Evanston, Illinois 60208-3113, USA.

Chemistry (Weinheim an Der Bergstrasse, Germany)

|June 7, 2006

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Lyonsite-type crystal structures offer a versatile framework for diverse elements and oxidation states. New oxides demonstrate the adaptability of this structure in solid-state chemistry.

Area of Science:

Solid-state chemistry
Materials science
Crystallography

Background:

Crystal frameworks are crucial for understanding material properties by allowing comparisons of different compositions with identical atomic arrangements.
The mineral Lyonsite (alpha-Cu(3)Fe(4)(VO(4))(6)) is recognized as a key archetypal structure for a broad category of materials.
Established frameworks like perovskite, garnet, apatite, and spinel highlight the importance of adaptable structural motifs.

Purpose of the Study:

To explore and advance the concept of the lyonsite structure as an adaptable framework.
To synthesize and characterize new lyonsite-type oxide materials.
To demonstrate the accommodation of various elements and oxidation states within the lyonsite framework.

Main Methods:

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Crystallographic analysis to define the lyonsite structure.

Synthesis of novel oxide compounds.

Characterization of material properties, including oxidation states and stoichiometry.

Main Results:

Successful synthesis of two new lyonsite-type oxides: Li(2.82)Hf(0.795)Mo(3)O(12) and Li(3.35)Ta(0.53)Mo(3)O(12).
Confirmation that hafnium and tantalum in these new compounds retain their highest oxidation states.
Demonstration of the lyonsite structure's capacity to incorporate diverse elements and maintain specific oxidation states.

Conclusions:

The lyonsite structure is a highly adaptable framework in solid-state chemistry.
This framework can accommodate a wide range of elements, oxidation states, and stoichiometries.
The presented new oxides expand the known family of lyonsite-type materials and underscore its potential for future material design.