Introduction: Lockdowns during the COVID-19 pandemic had a disruptive effect on medical education when they prevented medical students accessing real patients. To address this, we piloted 35 medical students at home consulting remotely with patients. Method: We evaluated the intervention using qualitative analysis of post-experience interviews with a sample of 13 students and 10 clinical supervisors. Results: The experience was perceived by all those interviewed to be both acceptable and educationally valuable. Data analysis revealed different models of implementation according to type of patients involved (acute, recently treated or expert patients) and type of communication platform used (AccuRx, Microsoft Teams or telephone). Practical and educational challenges were identified in relation to the following elements of the experience: patients consulting with students remotely, students being remotely supervised and students undertaking patient contact from home. Strategies for addressing these challenges were directly suggested by interviewees and also inferred from our analysis of the data. Conclusions: Remotely supervised medical students at home undertaking remote consultations with patients can be acceptable and educationally valuable. The intervention was piloted in a UK graduate entry medical course and so it would be useful to replicate this study in other medical student populations.
Key points
Skeletal muscle energy requirements increase at birth but little is known regarding the development of mitochondria that provide most of the cellular energy as ATP.
Thyroid hormones are known regulators of adult metabolism and are important in driving several aspects of fetal development, including muscle fibre differentiation.
Mitochondrial density and the abundance of mitochondrial membrane proteins in skeletal muscle increased during late gestation. However, mitochondrial functional capacity, measured as oxygen consumption rate, increased primarily after birth.
Fetal hypothyroidism resulted in significant reductions in mitochondrial function and density in skeletal muscle before birth.
Mitochondrial function matures towards birth and is dependent on the presence of thyroid hormones, with potential implications for the health of pre‐term and hypothyroid infants.
Abstract
Birth is a significant metabolic challenge with exposure to a pro‐oxidant environment and the increased energy demands for neonatal survival. This study investigated the development of mitochondrial density and activity in ovine biceps femoris skeletal muscle during the perinatal period and examined the role of thyroid hormones in these processes. Muscle capacity for oxidative phosphorylation increased primarily after birth but was accompanied by prepartum increases in mitochondrial density and the abundance of electron transfer system (ETS) complexes I–IV and ATP‐synthase as well as by neonatal upregulation of uncoupling proteins. This temporal disparity between prepartum maturation and neonatal upregulation of mitochondrial oxidative capacity may protect against oxidative stress associated with birth while ensuring energy availability to the neonate. Fetal thyroid hormone deficiency reduced oxidative phosphorylation and prevented the prepartum upregulation of mitochondrial density and ETS proteins in fetal skeletal muscle. Overall, the data show that mitochondrial function matures over the perinatal period and is dependent on thyroid hormones, with potential consequences for neonatal viability and adult metabolic health.
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