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Lyten seeks a Staff Engineer, Battery Carbon Materials to advance carbon materials for energy storage. You will establish mechanistic links between carbon structure and electrochemical performance, including lithium wetting and intercalation, to guide material design and scale-up.
You will lead electrochemical evaluations with coin-cell and pouch-cell testing, partner with cross-functional teams, and mentor junior scientists to sustain a culture of scientific rigor and rapid learning.
Lyten is leading an industrial revolution through Lyten 3D Graphene™, a breakthrough supermaterial unlocking a new generation of products - from lithium-sulfur batteries and energy storage systems to concrete admixtures, lightweight composites, and next-generation sensors that are revolutionizing industries. Together, these innovations are making a massive global improvement and driving real-world impact across energy, mobility, construction, and defense.
At Lyten, we believe the most meaningful careers begin with purpose - and with people who want to make a difference. We're not just developing advanced supermaterials - we're about to change the world as we know it, reshaping how energy is stored, how products are built, and how progress is made.
We're entering an exciting growth phase, scaling production across the U.S. and Europe and expanding our team of engineers, scientists, and innovators.
Lyten is seeking a highly motivated Staff Engineer, Battery Carbon Materials with deep expertise in carbon materials and electrochemistry, together with a strong understanding of the synthesis and processing of advanced carbon materials. This role sits at the intersection of materials science and electrochemistry and is responsible for developing next-generation carbon materials for energy storage applications by establishing a fundamental understanding of how carbon structure and properties influence electrochemical performance.
The successful candidate will establish a mechanistic understanding of how carbon structure, morphology, porosity, surface chemistry, defects, and processing influence electrochemical performance and long-term stability. A key aspect of the role is uncovering how carbon materials interact with lithium and electrolytes across different electrode environments including the mechanisms governing lithium wetting, lithium intercalation, and related transport and interfacial behavior in graphene-based materials, graphite, and hard carbons. These insights will be used to guide material design, improve performance, and accelerate development.