Li2Ti3FeO8

Li2Ti3FeO8 is a semiconducting titanate compound investigated as a potential anode material for electrochemical energy storage.

Crystal structure of Li2Ti3FeO8 (trigonal, R32 (No. 155))
Ground-state structure · Materials Project
Overview

About Li2Ti3FeO8

Li2Ti3FeO8 is a complex titanate compound that functions as a semiconducting material within the broader family of lithium-based anode candidates. Its electronic structure and composition suggest it is a viable candidate for charge storage applications where structural integrity is paramount.

This material is recognized for being near-hull in thermodynamic stability, indicating it is likely synthesizable under standard laboratory conditions. With multiple reported structures across major materials databases, it serves as an important subject for research into transition metal-doped oxide frameworks.

At a glance

Key Properties

Cross-validated computational properties for Li2Ti3FeO8, aggregated across 3 databases.

Band Gap

1.37–1.96 eV
Range across DFT structures

Energy Above Hull

0.004 eV/atom
Best (lowest) across sources

Stability

Near hull (likely stable)
2 DFT sources

Structures

13
3 databases, 5 space groups
Crystallography

Reported Structures

Lowest-energy structures reported for Li2Ti3FeO8, ranked by energy above hull.

Space GroupCrystal SystemBand Gap (eV)E above hull (eV/atom)E/atom (eV)Density (g/cm³)
R32 (No. 155)trigonal1.960.0041-8.3973.67
R3m (No. 160)trigonal0.000.0299-8.3723.71
P63mc (No. 186)hexagonal1.370.0303-8.3713.74
P213 (No. 198)cubic0.010.0593-8.3423.70
R-3m (No. 166)trigonal0.000.0702-8.3313.83
R-3m (No. 166)Trigonal3.83
R-3m (No. 166)Trigonal4.10
R-3m (No. 166)Trigonal3.97
R-3m (No. 166)
R3m (No. 160)
R3m (No. 160)Trigonal3.93
R3m (No. 160)Trigonal3.71
Uses

Applications

Where Li2Ti3FeO8 is used.

Lithium-ion battery anodesElectrochemical energy storage research
Reference

Frequently Asked Questions

Common questions about Li2Ti3FeO8, answered from cross-validated data.

What is Li2Ti3FeO8?

Li2Ti3FeO8 is a semiconducting titanate compound investigated as a potential anode material for electrochemical energy storage.

More questions
What is Li2Ti3FeO8 used for?
Li2Ti3FeO8 is used in lithium-ion battery anodes and electrochemical energy storage research.
What is the band gap of Li2Ti3FeO8?
Li2Ti3FeO8 has a DFT-computed band gap of 1.37–1.96 eV across 13 reported structures.
Is Li2Ti3FeO8 a metal, semiconductor, or insulator?
With a band gap up to 1.96 eV it is a semiconductor.
Is Li2Ti3FeO8 thermodynamically stable?
Li2Ti3FeO8 has a lowest energy above hull of 0.004 eV/atom (near hull (likely stable)).
What is the crystal structure of Li2Ti3FeO8?
The lowest-energy reported polymorph of Li2Ti3FeO8 is trigonal symmetry, space group R32 (No. 155).
What is the density of Li2Ti3FeO8?
The computed density of the ground-state structure of Li2Ti3FeO8 is 3.67 g/cm³.
How many polymorphs of Li2Ti3FeO8 are known?
13 structures of Li2Ti3FeO8 are reported across 3 databases, spanning 5 distinct space groups.
What elements does Li2Ti3FeO8 contain?
Li2Ti3FeO8 contains Fe, Li, O, and Ti (4 elements).
Where does the data for Li2Ti3FeO8 come from?
Li2Ti3FeO8 data is cross-referenced from materials_project, mpaloe, jarvis.
Comparison

How It Compares

Within the titanate anodes class.

Within the class of titanate anodes, Li2Ti3FeO8 occupies a unique space by incorporating iron into a lithium-titanium-oxygen framework, distinguishing it from simpler binary or ternary systems like Li2TiO3 or Li2Ti3O7. While compounds such as Li2TiCr3O8 or Li2TiV3O8 explore different transition metal substitutions, Li2Ti3FeO8 provides a specific electronic profile that helps researchers map the influence of iron on the electrochemical performance of these complex oxide structures.

Explore

Related Compounds

Other Titanate Anodes in the database.

Data sources & attribution
  • materials_project — Data from the Materials Project. Cite: Jain et al., APL Materials 1, 011002 (2013).
  • mpaloe — Data from mpaloe.
  • jarvis — Data from JARVIS (NIST). Cite: Choudhary et al., npj Comp. Mater. 6, 173 (2020).

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