
A novel graphene and silicon nano-particle hybrid anode material for Li-ion batteries
This project will develop novel graphene and silicon nanoparticle hybrid anode for Li-ion and Li-S batteries.
Globally, the contamination of groundwater from naturally-occurring arsenic is a major public health threat impacting the health and livelihoods of millions of people, particularly in South/Southeast Asia. In India, groundwater arsenic is a major problem particularly in shallow, reducing aquifers of the Gangetic Basin where groundwater reliance is increasingly high.
Despite the prevalence of a number of remediation strategies, effective and sustainable implementation of these strategies remains very challenging for a number of technical and non-technical reasons.
Further, rapidly developing urban areas (including northern India for example in Patna, Bihar) create unique challenges such as high groundwater pumping rates (which may impact the hydrogeochemical controls on arsenic mobilisation), the presence of potential competing water quality risks such as emerging organic contaminants and highly variable socio-economic conditions, all of which may vary greatly on the local or regional scale.
There is a clear need for improved decision support tools for the selection and management of arsenic remediation strategies, particularly in this context.
The graduate researcher on this project is: Ajmal Roshan
This project will develop novel graphene and silicon nanoparticle hybrid anode for Li-ion and Li-S batteries.
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