From: Functional nanoparticle-enabled non-genetic neuromodulation
Signal types | Transform paths | Ion channels involved | Typical materials | Disease/process examples |
---|---|---|---|---|
Light irradiation | Photothermal | TRP and TREK | Photothermal nanoparticles | Atherosclerosis |
Photoconversion | ChR2 | Upconversion nanoparticles | Sensing activities | |
Photochemical-catalytic | CRAC | Upconversion nanoparticles | Traumatic spinal cord injury, stormorken syndrome | |
Photoelectric | voltage-gated calcium channels | Photoelectric nanocomposites | Epilepsy | |
Photomechanical | Piezo1, Piezo2 | Optomechanical nanoparticles | Molecule movement, cell displacement and activation | |
Magnetic field | Magnetothermal | TRPV1 | Superparamagnetic nanoparticles Magnetothermal nanoparticles | Wireless deep brain stimulation |
Magneto-mechanical | Piezo1 | Magneto-mechanical nanoparticles | Motor function | |
Magnetoelectrical | voltage-gated calcium channels | Core–shell magnetostrictive piezoelectric nanoparticles | wireless deep brain stimulation | |
Magnetically induced microenvironmental | ASICs | Magnetothermal nanoparticles | Spinal cord injury, proton regulated neural activities | |
Ultrasound | Ultrasound-mechanical | Mechanosensitive ion channels | Nanoscale gas vesicles | Precise deep brain modulation |
Ultrasound-electric | voltage-gated calcium channels | Piezoelectric nanoparticles | Parkinson’s disease | |
Mechanical force | Self-powered mechanical | Mechanically sensitive ion channels | Piezoelectric nanofibers | Wound heal, osteoarthritis |