🌊 How can a salinity gradient be converted into electricity?
Chemical-potential differences drive ion transport, while ion selectivity, EDLs and nanoconfinement enable charge separation and osmotic energy conversion.
🔗mp.weixin.qq.com/s/8qU6FvzM7…
🖌️How can electronic skin become intelligent?
In our latest #Iontronics interview, IEEE Fellow & FRSE Prof. @RavinderSDahiya discusses adaptive soft skins, sensing–memory–computing, and iontronics’ potential as an information-processing substrate.
oaepublish.com/interviews/io…
🆕 New Review in Iontronics!
❓️Is higher ionic conductivity always better?
📜Prof. @baiwubin and co-authors explore ionogel design, key performance trade-offs, and application-specific needs across energy storage and bioelectronics.
📖 oaepublish.com/articles/iont…
❓️Can spent Ni-rich cathodes be restored by adding lithium alone?
📚This #Iontronics review links cathode degradation to coupled failures in ion and electron transport—and examines strategies to repair both.
🔗Read the review:
oaepublish.com/articles/iont…
#BatteryRecycling
💡What makes an interface a chemical reactor?
💧Prof. Richard N. Zare explores how ions, electric fields and solvation couple chemical reactivity with energy conversion—and why interfacial chemistry matters for future #Iontronics.
oaepublish.com/articles/iont…
#Microdroplets
📊High thermovoltage—but can it deliver lasting power?
📝New in #Iontronics: Prof. Hulin Zhang’s team explores how ionic thermoelectric gels can achieve sustained output under load, examining coupled mechanisms, transport trade-offs and reliability.
oaepublish.com/articles/iont…
No p–n junction—so why can a nanopore still behave like a diode? ⚡
Ionic current rectification (ICR) emerges when opposite biases create different ion distributions, local fields and conductance states.
Read more: mp.weixin.qq.com/s/5rhimQU72…
#Iontronics #IonTransport #Nanofluidics
⚙️Can nature’s ion selectivity scale up?
📋This #Iontronics review explores 2D organic framework membranes with tunable sub-nanometer pores and chemistry for selective ion transport, energy conversion and water purification.
oaepublish.com/articles/iont…
#Nanofluidics
📢 Iontronics Volume 2, Issue 3 is out!
📚 10 articles exploring nanofluidics, ionic logic, neuromorphic computing, interfacial chemistry & bioelectronics.
🔬 Explore the latest advances in #Iontronics!
🔗 oaepublish.com/volumes/ions.…
🏆 37 Iontronics editorial team members named among the World's Top 2% Scientists (2026)!
🌟 Honorary EiC Prof.Zhong Lin Wang ranks #1 globally in BOTH career-long & single-year impact—7 consecutive years at #1 annually!
Congratulations to all! 🎉
#Iontronics #Top2Scientists
🤖 Made with AI
Salt crystals as an ionic switch? 🧂⚡
A new Nature Communications study uses in situ salt precipitation–dissolution for reversible nanofluidic ion gating, with ON/OFF ratios >100 and AND/OR ionic logic.
Read our take: mp.weixin.qq.com/s/OTxKkIbjT…
⚡ Fast ions, less water.
A Nature Materials study from Yuanwen Jiang’s team reports supramolecular ion channels enabling ~1.3 μs OECT response, 28-day aqueous stability, and in vivo dopamine sensing.
Read our highlight:
mp.weixin.qq.com/s/QSslCht3s…
#Iontronics #OECT #Bioelectronics
🌕 Iontronics wishes you a joyful Mid-Autumn Festival!
May your days be filled with peace, joy, and rewarding discoveries. ✨
#MidAutumnFestival #Iontronics
🤖 Made with AI
📜New perspective in #Iontronics 💧
📌How can hydrogel iontronics become stable, reliable & intelligent?
Prpf. Younghoon Lee et al. discuss ion transport, interface stability, device integration & Physical AI—key challenges shaping the field.
🔗 oaepublish.com/articles/iont…
💡How can ion transport enhance molecular sensing?
Asymmetric OmpF nanopores reshape electroosmotic flow, enabling robust peptide capture and single-molecule readout.
🫧 Follow Iontronics for more frontiers in ion transport & iontronics.
#Iontronics #Nanopore #IonTransport
Why do ions “line up” near a charged interface? 💧
🔬Latest Iontronics Micro Q&A explores how the electrical double layer shapes ion transport, nanoconfinement, energy conversion and information processing.
Read more: mp.weixin.qq.com/s/ZwavB5q91…
#Iontronics #EDL #IonTransport
🔎 Iontronics Research Highlight
How do ions move through an OECT channel—and where does failure begin?
A new Nature Electronics study by Wei Huang, Cong Chen, Liang-Wen Feng et al. maps swelling from channel edges inward, guiding 15M-cycle vOECTs.
#Iontronics #IonicTransport
🔎 Iontronics Research Highlight
We spotlight a Nature Electronics study by Ziguang Zhao, Lei Jiang et al. on cascaded heterointerface ion traps for ionic memory, plasticity & neural-signal modulation.
More frontiers 👉 oaepublish.com/ions
#Iontronics #Bioiontronics
⚡ Can contact-generated charges drive chemistry?
New in Iontronics: Di Wei, Carita Kvarnström et al. explore CE-Chemistry, connecting charge transfer, EDLs, local electric fields & reactivity.
🔗oaepublish.com/articles/iont…
#ContactElectrification #InterfacialChemistry #Iontronics
💡How can ion transport achieve both high flux and selectivity?
📃A new Iontronics Highlight explores dual-confinement COF nanofluidics for selective ion transport and osmotic energy conversion.
🔗oaepublish.com/articles/iont…
#Iontronics #Nanofluidics
































