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UOO

PhD on Materials, Manufacturing, and Recycling of Electrochemical Energy Storage Systems

University of Oklahoma School of Aerospace and Mechanical Engineering
Self-funded 🎓 Chemical Engineering 🎓 Materials Science 🎓 Mechanical Engineering battery materials energy storage li-ion batteries solid-state batteries electrochemical storage materials recycling manufacturing battery coatings

Explore the science of next-generation batteries focusing on materials and recycling techniques. Investigate coatings and stress dynamics to boost battery durability and efficiency in real applications.

AI-generated overview

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Why This Research Matters

This research is critical for developing longer-lasting, safer, and more sustainable batteries essential for electric vehicles and renewable energy integration. By improving materials recycling and reducing degradation, it addresses environmental concerns and enhances energy storage technologies, contributing to cleaner energy systems and resource conservation.

Electrochemistry Materials Engineering Coating Interfaces Li-ion Batteries Solid-state Batteries

Project Description

Project Overview

This project focuses on materials, manufacturing, and recycling technologies for electrochemical energy storage systems including Li-ion batteries, solid-state batteries, and emerging beyond Li-ion technologies. Students will explore battery material properties, interfaces, and degradation mechanisms to innovate higher performance and more sustainable energy storage solutions.

What You Will Do

You will investigate the design and recycling of advanced battery materials with a strong focus on electrochemical behavior, manufacturing methods, and materials engineering. Techniques will include materials synthesis, real-time stress monitoring during electrochemical cycling, and coating development to enhance battery lifetime and safety.

Expected Outcomes

Outcomes include deeper mechanistic understanding of battery anode and cathode materials, improved stability through novel coatings and interfaces, and strategies for material recycling aiming to reduce environmental impact. The work will contribute towards more durable, efficient, and sustainable battery systems.

Why This Matters

Advances in battery materials and recycling are essential to address challenges in energy storage for electric vehicles and renewable energy. This research supports cleaner technologies by extending battery life, improving safety, and reducing resource depletion through improved recycling methods.

Entry Requirements

Background in Materials, Chemical, or Mechanical Engineering. Prior research experience in battery materials is preferred. Candidates currently residing in the USA are preferred.

How to Apply

Email your CV to Dr. Manoj Jangid at manoj.jangid@ou.edu

Eligibility

UK/Home
EU
International

Supervisor Profile

DM
Dr. Manoj Jangid
University of Oklahoma, School of Aerospace and Mechanical Engineering
1050 Citations
20 h-index
Google Scholar

Dr. Manoj K. Jangid specializes in electrochemistry and materials engineering with expertise in battery coatings, interfaces, and cycling stress monitoring. Affiliated with the University of Oklahoma, his research advances Li-ion and solid-state batteries focused on improving stability and performance through innovative materials solutions. He is recognized for linking fundamental electrochemical phenomena with applied battery technology advancements.

Key Publications

2016 133 citations
Cation/anion substitution in Cu2ZnSnS4 for improved photovoltaic performance
This paper improved photovoltaic performance through cation/anion substitution in Cu2ZnSnS4.
2018 103 citations
Li metal battery, heal thyself
This work discusses self-healing mechanisms in Li metal batteries to enhance their durability.
2019 102 citations
Real-time monitoring of stress developments during electrochemical cycling of electrode materials for Li-ion batteries: Overview and perspectives
Provided an overview and perspectives on real-time stress monitoring in electrode materials during Li-ion battery cycling.
2017 93 citations
Understanding the Li-storage in few layers graphene with respect to bulk graphite: experimental, analytical and computational study
Presented an in-depth study on lithium storage mechanisms in few-layer graphene compared to bulk graphite.
2017 83 citations
Insights into Electrochemical Behavior, Phase Evolution and Stability of Sn upon K-alloying/de-alloying via In Situ Studies
Revealed electrochemical behavior and phase changes in tin during potassium alloying/de-alloying using in situ methods.

Research Contributions

Development and analysis of lithium and potassium storage mechanisms in graphene and tin-based anodes.
Enhanced understanding leads to improved battery anode materials for higher performance and stability.
Real-time monitoring of stress in electrode materials during battery cycling.
Provides insights to mitigate mechanical degradation, improving battery lifecycle.
Innovations in solid-state and Li-ion battery coatings to reduce chemo-mechanical degradation.
Enables more durable and efficient battery cathodes, advancing solid-state battery technology.

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