The aim of the study was to explore the coping strategy and the effects of self-efficacy of Chinese undergraduate nursing students when they face the stress in clinical practice. Convenience sampling was used to recruit undergraduate nursing students in Mainland China who have practiced 3 months in hospitals in their final college year. Self-report questionnaires including demographics, Perceived Stress Scale, coping behaviour inventory and Generalized Self-Efficacy Scale were collected. The results showed that during clinical practice, assignments and workload were the most common stress to students; transference was the most frequently used coping strategy by students. Self-efficacy not only had a positive main effect in predicting the frequency of use of staying optimistic and problem solving strategies but also moderated the effects of stress from taking care of patients on transference strategy, as well as stress from assignments and workload on problem solving strategy. It is essential to bolster the students' self-efficacy to reduce stress and adopt positively the coping strategies during clinical practice.

Spin excitations of magnetic thin films are the founding element for novel transport concepts in spintronics, magnonics, and magnetic devices in general. While spin dynamics have been extensively studied in bulk materials, their behaviour in mesoscopic films is less known due to experimental limitations. Here, we employ Resonant Inelastic X-Ray Scattering to investigate the spin excitation spectrum in mesoscopic Fe films, from bulk-like down to 3 unit cells thick. In bulk-like samples, we find isotropic, dispersive ferromagnons consistent with the dispersion observed by neutron scattering in bulk single crystals. As the thickness is reduced, these ferromagnons survive and evolve anisotropically: renormalising to lower energies along the out-of-plane direction while retaining their dispersion in the in-plane direction. This thickness dependence is captured by simple Heisenberg model calculations accounting for the confinement in the out-of-plane direction through the loss of Fe bonds. Our findings highlight the effects of mesoscopic scaling on spin dynamics and identify thickness as a knob for fine-tuning and controlling magnetic properties in films.

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