BLISS Research Library

Interface engineering for bioelectronics

Explore interface engineering research by Jungmok Seo and BLISS Lab at Yonsei University: hydrogels that adhere to wet tissue, interconnects that carry current under deformation, packaging that joins different materials, and surfaces that control attachment and biological responses. Each summary connects the design and mechanism to observed results, test limitations and the original paper.

AI-generated concept illustration of a bioelectronic interface connecting soft tissue, hydrogel, stretchable electrical routing, an integrated chip and surrounding cells.
AI-generated illustration of bioelectronic interfaces. It is not experimental data or a photograph of a fabricated device.

01 / EXPLORE THE INTERFACES

Four research themes

Follow the materials, connections and tissue-facing surfaces that make up a bioelectronic device.

Papers are grouped by their main topic, with links to other relevant themes.

02 / RESEARCH

Research to start with

Discover the problem each study addresses, how it approaches it and what it reports. Each paper page includes experimental context and the sources used in the summary.

0852025Summary based on the full text

Bioadaptive liquid-infused multifunctional fibers for long-term neural recording via BDNF stabilization and enhanced neural interaction

Science Advances, 11(37), eadz1228 (2025)

Biological responses and surface designBiological interaction control

TAB combines a lubricated interface with immobilized BDNF to reduce nonspecific attachment and support neuronal interactions. Representative single-unit recordings in mice extend to 12 months; electrode-level statistical comparisons cover a separate 8-month period.

0802024Summary based on the full text

Universal hydrogel adhesives with robust chain entanglement for bridging soft electronic materials

npj Flexible Electronics, 8, 39 (2024)

Device integration and packagingComponent assembly and fabrication

d-HAPT joins dissimilar electronic materials through moisture-induced chain entanglement in dried PVA–tannic acid layers. Dry–dry bonding uses interfacial water and heat; wet–dry bonding uses hydrogel moisture. Wet–wet and dry-material–tissue adhesion remain limited.

0572020Summary based on the full text

Antibacterial infection and immune-evasive coating for orthopedic implants

Science Advances, 6 (44), eabb0025 (2020)

Biological responses and surface designImmune and foreign-body responses

A lubricant-infused stainless-steel implant coating prevented infection in all six rabbits given MRSA-preincubated fixation implants, versus six of six bare.

0212015Summary based on the full text

Ag Nanowire Reinforced Highly Stretchable Conductive Fibers for Wearable Electronics

Advanced Functional Materials, 25 (21), 3114-3121 (2015)

Stretchable conductors and interconnectsConductive fibers and stretchable electrodes

Silver nanowires inside wet-spun SBS fibres bridged silver nanoparticle networks, keeping conduction up to 220% strain; a five-fibre glove read sign letters.

03 / BEYOND THE PAPER

Research stories and news

Read university announcements, news articles and publisher features alongside the papers they discuss.

Explore research storiesAbout this library