We explore materials and interfacial chemistries for rechargeable batteries. Our research mainly focuses on designing functional electrolyte solutions for Li-ion batteries and developing novel sulfur composite cathodes for all-solid-state batteries. While our research covers Li-ion, Li-metal, Li-S, and all-solid-state batteries, it is not limited to any specific chemistry as long as it targets safe, high-energy systems. At KFUPM, we also aims to explore stable battery chemistries tailored to the local climate while leveraging AI-driven approaches to investigate battery degradation behaviors.
Novel Materials
Development & Analysis
for secondary batteries
(will be expanded to other energy
storage systems)
Various applications targeting
Safe Battery Design
& Thermal Diagnosis
Using ARC, DSC, IMC
and so on
(The first result will be published soon)
Even under high temp. ☀️
Accelerating Research
using AI/ML
Clarity in Inter-Factor Relationships
Deciphering Complex Factor Relationships
We design electrode composite materials and electrolyte membranes for sulfide-based all-solid-state batteries using Ni-rich NCM and Chalcogen-based CAMs (S, Li2S, Se, and SeS2).
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We develop functional electrolyte solutions for wide-voltage/temperature range Li-ion batteries and Li-metal batteries by tuning solvents, salts, additives, and solvation structures.
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We investigate how electrolyte and electrode components affect the electrode-electrolyte interface, and how these interactions influence material, electrode, and cell degradation, using electrochemical and surface-sensitive characterization techniques.
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We explore emerging battery chemistries and advanced electrode-processing strategies. As long as the approach targets safe, high-energy batteries with promising potential, we are ready to explore and tackle any challenge, no matter what it is.
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