Wearable energy storage with MXene textile supercapacitors for real-world use

  • Background - Future e-textiles will require textile-based energy storage solutions

  • Project - Integrate novel nanomaterials, MXene, directly into textiles to provide sufficient energy to power real-world electronics

  • Result - We designed and produced an MXene-textile supercapacitor capable of powering a microcontroller with environmental sensing for over 90 minutes

  • Skills - Softgoods, nanomaterials, energy storage, ink processing and deposition

  • Links - Paper, poster

MXene-enabled textile-based energy grid utilizing wireless charging

  • Background - Powering e-textiles requires an on-garment energy grid

  • Project - To develop an on-garment induction charging system

  • Result - We developed an on-garment induction coil by directly printing it onto textiles. We demonstrated the validity by powering microcontrollers and a wire-free joule heating element. This work led to a patent application through the Accenture Labs Future Technology Group.

  • Skills - Ink processing and printing, electrical engineering, rheology, soft goods, energy storage, Eagle CAD, MATLAB, Arduino IDE

  • Links - Poster

Shear delamination of multilayer MXene

  • Background - Typically the processing of MXene nanomaterials is done with hazardous chemical intercalants limiting the processability and contributing to hazardous waste

  • Project - Use high-shear methods to process MXenes

  • Result - Multiple types of MXenes were processed with high shear methods and the material produced had superior electrochemical energy storage properties when compared to traditionally processed materials.

  • Skills - High shear processing, electrochemistry, XRD, SEM

  • Links - Paper, Poster

High-yield and high-throughput delamination of multilayer MXene with high-pressure homogenization

  • Background - The large-scale production of MXene is slow, has low yield, and produces excessive waste

  • Project - Utilize high-energy methods for the delamination of MXene

  • Result - We improved yield by 60%, throughput by ~10X, and reduced hazardous waste to zero, all while expanding the application space and maintaining material properties, leading to a process patent application

  • Skills - High-energy processing, electrochemical analysis, SEM, XRD, Raman, UV-Vis

  • Links - Paper

Additional projects