Fiber photometry is increasingly utilized to monitor fluorescent sensors of neural activity in
the brain. However, most implementations are based on flat-cleaved optical fibers that can …

Integration of plasmonic nanostructures with fiber‐optics‐based neural probes enables label‐free
detection of molecular fingerprints via surface‐enhanced Raman spectroscopy (SERS)…

Deciphering the neural patterns underlying brain functions is essential to understanding
how neurons are organized into networks. This deciphering has been greatly facilitated by …

Optogenetic control of neural activity in deep brain regions ideally requires precise and
flexible light delivery with non-invasive devices. To this end, Tapered Optical Fibers (TFs) …

Fiber photometry is used to monitor signals from fluorescent indicators in genetically-defined
neural populations in behaving animals. Recently, fiber photometry has rapidly expanded …

The necessity to continuously and seamlessly monitor human health is calling for compliant,
comfortable, and safe wearables. The employment of piezoelectric biopolymers in form of …

Neurophotonics was launched in 2014 coinciding with the launch of the BRAIN Initiative
focused on development of technologies for advancement of neuroscience. For the last seven …

With the advent of optogenetic techniques, a major need for precise and versatile light-delivery
techniques has arisen from the neuroscience community. Driven by this demand, …

Optogenetics offers many advantages in terms of cell-type specificity, allowing to investigate
functional connectivity between different brain areas at high spatial and neural population …

Integration of plasmonic structures on step‐index optical fibers is attracting interest for both
applications and fundamental studies. However, the possibility to dynamically control the …