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土壤捕食螨长角巨螯螨(中气门目:寄螨科)的肠道内容物、消化半衰期及摄食状态预测

Gut contents, digestive half-lives and feeding state prediction in the soil predatory mite Pergamasus longicornis (Mesostigmata: Parasitidae).

作者信息

Bowman Clive E

机构信息

Mathematical Institute, University of Oxford, Oxford, OX2 6GG, UK.

出版信息

Exp Appl Acarol. 2017 Sep;73(1):11-60. doi: 10.1007/s10493-017-0174-2. Epub 2017 Sep 1.

DOI:10.1007/s10493-017-0174-2
PMID:28865060
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC5602048/
Abstract

Mid- and hind-gut lumenal changes are described in the free-living predatory soil mite Pergamasus longicornis (Berlese) from a time series of histological sections scored during and after feeding on fly larval prey. Three distinct types of tangible material are found in the lumen. Bayesian estimation of the change points in the states of the gut lumenal contents over time is made using a time-homogenous first order Markov model. Exponential processes within the gut exhibit 'stiff' dynamics. A lumen is present throughout the midgut from 5 min after the start of feeding as the gut rapidly expands. It peaks at about 21.5 h-1.5 days and persists post-feeding (even when the gut is contracted) up until fasting/starvation commences 10 days post start of feeding. The disappearance of the lumen commences 144 h after the start of feeding. Complete disappearance of the gut lumen may take 5-9 weeks from feeding commencing. Clear watery prey material arrives up to 10 min from the start of feeding, driving gut lumen expansion. Intracellular digestion triggered by maximum gut expansion is indicated. Detectable granular prey material appears in the lumen during the concentrative phase of coxal droplet production and, despite a noticeable collapse around 12 h, lasts in part for 52.5 h. Posterior midgut regions differ slightly from anterior regions in their main prey food dynamics being somewhat faster in processing yet being slightly delayed. Posterior regions are confirmed as Last-In-Last-Out depots, anterior regions confirmed as First-In-First-Out conveyor belt processes. Evidence for differential lability of prey fractions is found. A scheme is presented of granular imbibed prey material being first initially rapidly absorbed ([Formula: see text] = 23 min), and also being quickly partly converted to globular material extra-corporeally/extracellularly ([Formula: see text] = 36 min)-which then rapidly disappears ([Formula: see text] = 1.1 h, from a peak around 4 h). This is then followed by slow intracellular digestion ([Formula: see text] = 6.9 h) of the resultant resistant prey residue matching the slow rate of appearance of opaque pre-excretory egestive refractive grains (overall [Formula: see text] = 4.5 days). The latter confirmed latent 'catabolic fraction' (along with Malpighian tubule produced guanine crystals) drives rectal vesicle expansion as 'faeces' during the later phases of gut emptying/contraction. Catabolic half-lives are of the order of 6.3-7.8 h. Membraneous material is only present in the lumen of the gut in starving mites. No obvious peritrophic membrane was observed. The total feeding cycle time may be slightly over 52.5 h. Full clearance in the gut system of a single meal including egestive and excretory products may take up to 3 weeks. Independent corroborative photographs are included and with posterior predictive densities confirm the physiological sequence of ingestion/digestion, egestion, excretion, defecation, together with their timings. Visually dark midguts almost certainly indicate egestive refractive grains (xanthine?) production. Nomograms to diagnose the feeding state of P. longicornis in field samples are presented and show that the timing of these four phases in the wild could be inferred by scoring 10-12 mites out of a sample of 20. Suggestions to critically confirm or refute the conclusions are included.

摘要

通过对取食蝇幼虫猎物期间及之后的一系列组织学切片进行评分,描述了自由生活的捕食性土壤螨长角巨螯螨(Pergamasus longicornis,Berlese)中肠和后肠腔的变化。在肠腔中发现了三种不同类型的有形物质。使用时间齐次一阶马尔可夫模型对肠腔内容物状态随时间的变化点进行贝叶斯估计。肠道内的指数过程表现出“刚性”动态。从进食开始5分钟后,中肠全程都有肠腔,此时肠道迅速扩张。它在约21.5小时 - 1.5天达到峰值,并在进食后持续存在(即使肠道收缩),直到进食开始10天后开始禁食/饥饿。肠腔的消失在进食开始144小时后开始。从进食开始,肠腔完全消失可能需要5 - 9周。清澈的水样猎物物质在进食开始后10分钟内到达,促使肠腔扩张。表明由肠道最大扩张引发细胞内消化。在基节液滴产生的浓缩阶段,可检测到的颗粒状猎物物质出现在肠腔中,并尽管在约12小时左右有明显的塌陷,但部分持续52.5小时。中肠后部区域在主要猎物食物动态方面与前部区域略有不同,处理速度稍快但稍有延迟。后部区域被确认为后进后出的储存库,前部区域被确认为先进先出的传送带过程。发现了猎物组分不同稳定性的证据。提出了一个方案,即摄入的颗粒状猎物物质首先最初迅速被吸收([公式:见正文] = 23分钟),并且也迅速部分地在体外/细胞外转化为球状物质([公式:见正文] = 36分钟) - 然后迅速消失([公式:见正文] = 1.1小时,从约4小时的峰值开始)。随后是对所得抗性猎物残渣的缓慢细胞内消化([公式:见正文] = 6.9小时),与不透明的排泄前排出性折射颗粒出现的缓慢速率相匹配(总体[公式:见正文] = 4.5天)。后者证实的潜在“分解代谢部分”(连同马氏管产生的鸟嘌呤晶体)在肠道排空/收缩的后期阶段驱动直肠泡作为“粪便”扩张。分解代谢半衰期约为6.3 - 7.8小时。膜状物质仅存在于饥饿螨的肠腔中。未观察到明显的围食膜。整个进食周期时间可能略超过52.5小时。肠道系统中一餐的完全清除,包括排出物和排泄物,可能需要长达3周。包含独立的佐证照片,并通过后验预测密度证实了摄取/消化、排泄、分泌、排便的生理顺序及其时间。视觉上深色的中肠几乎肯定表明产生了排泄性折射颗粒(黄嘌呤?)。给出了用于诊断野外样本中长角巨螯螨进食状态的列线图,表明通过对20个样本中的10 - 12只螨进行评分,可以推断出野外这四个阶段的时间。包括了用于严格证实或反驳这些结论的建议。

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J Insect Physiol. 2015 Jul;78:69-77. doi: 10.1016/j.jinsphys.2015.05.002. Epub 2015 May 7.
7
Understanding the biology and control of the poultry red mite Dermanyssus gallinae: a review.了解鸡皮刺螨的生物学特性与防治:综述
Avian Pathol. 2015;44(3):143-53. doi: 10.1080/03079457.2015.1030589.
8
Gut expansion and contraction in the predatory soil mite Pergamasus longicornis (Mesostigmata: Parasitidae): a stiff system.捕食性土壤螨长角巨螯螨(中气门目:寄螨科)的肠道扩张与收缩:一个刚性系统
Exp Appl Acarol. 2014 Nov;64(3):337-59. doi: 10.1007/s10493-014-9827-6. Epub 2014 Jun 14.
9
Survival of host blood proteins in Ixodes scapularis (Acari: Ixodidae) ticks: a time course study.宿主血液蛋白在肩突硬蜱(蜱螨目:硬蜱科)中的存活:时间进程研究。
J Med Entomol. 2013 Nov;50(6):1282-90. doi: 10.1603/me12125.
10
Ultrastructure features of the midgut of the female adult Amblyomma cajennense ticks Fabricius, 1787 (Acari: Ixodidae) in several feeding stages and subjected to three infestations.雌性美洲钝缘蜱(Amblyomma cajennense)在不同取食阶段和经历三次感染后的中肠超微结构特征。(节肢动物门:硬蜱科)
Micron. 2010 Oct;41(7):710-21. doi: 10.1016/j.micron.2010.05.015. Epub 2010 Jun 4.