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Neutron imaging is one of the key technologies for non-destructivetransmission testing. Recent progress in the development of intensive neutronsources allows us to perform energy-resolved neutron imaging with high spatialresolution. Substantial efforts have been devoted to developing a high spatialand temporal resolution neutron imager. We have been developing a neutronimager aiming at conducting high spatial and temporal resolution imaging basedon a delay-line neutron detector, called the current-biased kinetic-inductancedetector, with a conversion layer $^{10}$B. The detector allowed us to obtain aneutron transmission image with four signal readout lines. Herein, we expandedthe sensor active area, and improved the spatial resolution of the detector. Weexamined the capability of high spatial resolution neutron imaging over thesensor active area of 15 $\times$ 15 mm$^2$ for various samples, includingbiological and metal ones. We also demonstrated an energy-resolved neutronimage in which stainless-steel specimens were discriminating of other specimenswith the aid of the Bragg edge transmission.

Energy-resolved neutron imaging with high spatial resolution using a superconducting delay-line kinetic inductance detector