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Effects of enteral feedback inhibition on motility, luminal flow, and absorption of nutrients in proximal gut of minipigs

  • Motility, Nerve-Gut Interactions, Hormones, And Receptors
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Abstract

We wanted to clarify whether the postprandial intestinal feedback control activated by nutrients in the distal gut exerts different effects on motility, transit of digesta, and absorption of nutrients in the proximal gut. Additionally, interrelationships among motility, transit, and absorption were to be elucidated because these relationships have only been investigated in the fasted state. In five minipigs, a 150-cm segment of the proximal jejunum was isolated by two cannulas. Motility of the jejunal segment was recorded by multiple strain gauges and analyzed by computerized methods. Markers (Cr- and Cu-EDTA) were used for the measurement of the flow rate, transit time, and absorption of nutrients. After a meal, the test segment was perfused with 2 kcal/min of an elemental diet over a period of 90 min. A feedback inhibition was activated by infusion of nutrients into the midgut at rates of 1–4 kcal/min. Saline was infused as control. With increasing energy loads infused into the midgut, the motility index and the length of contraction waves decreased, whereas the incidence of stationary contractions increased, ie, the motility changed from a propulsive to a segmenting pattern. These modulations of motility were associated with a linear decrease in the flow rate and a linear increase in transit time. Flow and transit were linearly correlated with each other. Additionally, the reduction in flow rate and the delay in luminal transit were associated with a linear increase in the absorption of nutrients. However, the increase in absorption induced by the feedback mechanism was small (7.3–13.4%) compared to the marked inhibition of the motility parameters (54–64%), the flow rate (59%), and the delay of transit (5.8-fold). Feedback control primarily modulated motor patterns and luminal flow, whereas the small increase in absorption was only a side effect due to the longer contact time of the nutrients with the mucosa.

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Authors and Affiliations

  1. From the Institute of Zoophysiology, Division of Gastrointestinal Physiology, University of Hohenheim, D 70593, Stuttgart, Germany

    Andreas Huge, Eckhard Weber &  Hans-Jörg Ehrlein

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  1. Andreas Huge
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  2. Eckhard Weber
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  3. Hans-Jörg Ehrlein
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The study was supported by the Deutsche Forschungsgemeinschaft, grant Eh 64/6-3.

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Huge, A., Weber, E. & Ehrlein, HJ. Effects of enteral feedback inhibition on motility, luminal flow, and absorption of nutrients in proximal gut of minipigs. Digest Dis Sci 40, 1024–1034 (1995). https://doi.org/10.1007/BF02064192

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  • DOI: https://doi.org/10.1007/BF02064192

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