Variations in precursor ratios lead to non-uniform electrochemical properties and poor batch-to-batch reproducibility. Precise control over composition ensures predictable energy density and structural stability.

Insufficient charge carrier mobility in magnesium salt formulations limits power density. Improving the transport properties of the electrolyte allows for higher rate performance in secondary batteries.

Uncontrolled chemical interactions between electrolyte components and electrode surfaces lead to rapid performance degradation. Mitigating these reactions prevents premature cell failure and maintains surface integrity.

Structural instability and transition metal dissolution in lithium-rich layered oxides lead to rapid loss of discharge capacity. Mitigating this degradation extends battery cycle life and maintains high energy density.