Heterodyne low-coherence interferometry demonstrates that the latency of the sound-induced reticular lamina vibration is significantly greater than that of the basilar membrane vibration in living gerbil cochleae.

Combined light and electron microscopy reveals a new function for Arp2/3-mediated actin assembly in nuclear envelope rupture, which leads to a separation of nuclear membranes and pores from the lamina.

Conditional silencing of long ascending propriospinal neurons disrupts interlimb coordination of the fore and hindlimb pairs, but in a highly context-specific manner.

Gamma rhythms and representation of visual information in the primary visual cortex are specifically modulated by somatostatin⁺ but not parvalbumin⁺ neurons in reticular thalamic nucleus.

Inner-ear drug delivery experiments show that the fluids in the cochlea circulate due to the peristaltic action of motile auditory receptor cells.

The most comprehensive neuroanatomical atlas on the expression of three glycoprotein hormone receptors, namely, TSHRs, LHCGRs, and FSHRs, was mapped using RNAscope, a technology that allows the detection of mRNA at single-transcript level.

Central SNS outflow sites originating from 87 brain nuclei and sub-nuclei in six brain divisions innervate bone.

A brain-wide mapping of the direct inputs to striatal cholinergic and parvalbumin interneurons reveals connectivity differences and implies their distinct roles in regulating striatal function.

A lipid mediator lysophosphatidic acid (LPA) derived from fibroblastic reticular cells regulates T-cell movement through the densely packed reticular network in lymph nodes in a manner dependent on the LPA receptor LPA₂-ROCK-myosin II.

In vitro and in vivo physiological analyses reveal that mammalian auditory neuron intrinsic mechanical sensitivity contributes to sound-evoked activity and explains other previously unexplained auditory neuron features.