Drosophila DM1 models suggest that elevated cardiac expression of straightjacket/α2δ3, a regulatory subunit of voltage-gated calcium channel, contributes to cardiac conduction defects in DM1.

Conduction velocity of action potentials in unmyelinated axons depends ultimately on the gating variables of the fast voltage-gated sodium current and can be predicted from the action potential peak and trough voltages.

Glial TDP-43 regulates splicing and expression of neurofascin and is required for proper assembly and maintenance of paranodal axoglial junctions.

Human hippocampal connectivity to network afferents varies continuously with the phase of the local theta oscillation, confirming a putative mechanism by which neural oscillations modulate human hippocampal function.

Modest changes in expression of interacting dose-dependent transcription factors Tbx5 and Prrx1, caused by disease-associated common regulatory variants, significantly impact on the cardiac gene regulatory network and disease susceptibility.

Node of Ranvier length is similar at successive nodes along single myelinated CNS axons, but differs between axons, and could potentially be tuned to adjust the conduction velocity of each axon.

Multiple variant transcriptional regulatory elements in >1 megabasepairs of noncoding DNA close to TBX3 affect gene expression and atrioventricular conduction system function in vivo.

The cAMP-HCN pathway can control action potential conduction velocity providing neuromodulators with the ability to tune energy consumption and temporal delays across axons in the brain.

Gamma-band synchronization behavior in area V1 was predicted by weakly coupled oscillator principles.

Correlative imaging of the heart at multiple spatial scales has the potential to revolutionize the way we understand deficiencies in congenital heart disease.