
Dr. Simon Engelke
Founder, battery innovation and AI leader, and climate advocate
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Analysis of electrochemical impedance spectroscopy (EIS) data for electrochemical systems often consists of defining an equivalent circuit model (ECM)
This publication focuses on defining an equivalent circuit model for electrochemical impedance spectroscopy (EIS) data to optimize model parameters and deconvolute various resistance, capacitive, inductive, or diffusion responses in electrochemical systems.
Technological advances in membrane technology, catalysis, and electrochemical energy storage require the fabrication of controlled pore structures at ever smaller length scales.
This publication discusses the importance of developing processes for fabricating materials with controlled submicron porous structures to meet technological advances in membrane technology, catalysis, and electrochemical energy storage.
Li-O2 batteries offer a high theoretical discharge capacity due to the formation of light discharged species such as Li2O2, which fill the porous positive electrode.
This publication addresses the challenges in Li-O2 batteries to reach theoretical capacity and utilize the full electrode pore volume due to the formation of discharge products.
In this work we show for the first time that a continuous plasma process can synthesize materials from bulk industrial powders to produce hierarchical structures for energy storage applications.
This work demonstrates a continuous plasma process for synthesizing materials from industrial powders to create hierarchical structures for energy storage, highlighting its fast, inexpensive, and scalable production advantages.
Controlling the arrangement and interface of nanoparticles is essential to achieve good transfer of charge, heat, or mechanical load.
This publication explores a process to coat vertically aligned carbon nanotubes, focusing on controlling nanoparticle arrangement and interface for efficient charge, heat, or mechanical load transfer in hybrid nanoparticle mixtures.
Anisotropic battery electrodes that allow enhanced diffusion through the thickness of the electrode can be engineered to improve rate performance but direct measurement of 3D diffusion in these non-transparent nanoscale pores is extremely challenging.
This publication uses 1H and 7Li pulsed field gradient (PFG) NMR to measure anisotropic diffusion in non-transparent nanoscale pores of anisotropic battery electrodes, aiming to improve rate performance through enhanced diffusion.
The benefits of nanosized active particles in Li-ion batteries are currently ambiguous.
This publication discusses the ambiguous benefits of nanosized active particles in Li-ion batteries, noting their potential for enhancing cyclability and rate performance versus criticisms regarding side reactions and low packing density.
Flexible electronics are being pursued as replacements for rigid consumer electronic products such as smartphones and tablets, as well as for wearable electronics, implantable medical devices, and RFIDs.
This publication focuses on the development of flexible batteries with electrodes that maintain electrochemical performance during multiple bending cycles for applications in flexible electronics.
In this work, we investigated several titanates with lepidocrocite-type structures (general formula AxTi1-yMyO4 with A=Na and M=Li or Mg), having potential utility as anode materials for sodium-ion batteries.
This publication investigates lepidocrocite-type titanates as potential anode materials for sodium-ion batteries, using first principles calculations to determine key battery metrics.
Sodium titanates have emerged as attractive anode materials for sodium ion batteries due to their ability to reversibly intercalate sodium ions at low voltages, while exhibiting a rich compositional range with varying crystal structures.
This publication investigates two types of recently synthesized and tested titanates as attractive anode materials for sodium ion batteries, highlighting their ability to reversibly intercalate sodium ions at low voltages.
Lepidocrocite titanates are corrugated layered structures with the general formula A x \[Ti 2-y M y \]O 4 ·zH 2 O, where A is K, Rb, or Cs and M is Mg, Co, Ni, Cu, Zn, Mn, Fe, Li, or a vacancy.
This publication describes lepidocrocite titanates as corrugated layered structures and details their general formula, along with the positions of A and M cations.
Adequate storage technologies are needed to allow a transition to renewable energy sources from fossil fuels.
This publication discusses the early stage research on sodium-ion batteries and published discoveries, emphasizing their role in transitioning to renewable energy sources given the limitations of common Lithium-ion batteries.
Notes
Jan 2, 2026
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