Research Highlights

Check out this Nature Outlook article highlighting our group's work on designing skins that incorporate flexible electronics and replicate the body’s ability to sense touch.

Researchers rationally designed a topological supramolecular network for PEDOT:PSS to achieve both high stretchability and conductivity well suited for bioelectronics.

Researchers used rational design to build a highly conductive, stretchable and photo-patternable material for use in bioelectronics.

Researchers have created a new approach to simultaneously achieve mechanical robustness, facile patternability and high electrical performance for polymer electronic materials.

Researchers leveraged their expertise in flexible electronics to design a wearable strain sensor that allows real-time monitoring of tumor progression.

Researchers invented an implantable sensor for wireless, battery-free monitoring of arterial blood pressure across a wide range of artery sizes and types.

Stanford researchers have developed a technique that reprograms cells to use synthetic materials to build artificial structures able to carry out functions inside the body.

All-elastomer, scalable fabrication process to create strain-insensitive, intrinsically stretchable transistor arrays

Researchers use metal-ligand based mechanophores to improve the mechanical and electrical performance of polymer semiconductors

Stanford researchers have designed a new electrolyte for lithium metal batteries that could increase the driving range of electric cars.

Stanford researchers have developed a method to genetically reprogram cells to build artificial structures.

The experimental device promises to provide a safe and comfortable power source for technologies that must bend and flex with our bodies.