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Anaesthetics stop diverse plant organ movements, affect endocytic vesicle recycling and ROS homeostasis, and block action potentials in Venus flytraps
K. Yokawa, T. Kagenishi, A. Pavlovic, S. Gall, M. Weiland, S. Mancuso, F. Baluška,
Language English Country Great Britain
Document type Journal Article, Research Support, Non-U.S. Gov't
NLK
PubMed Central
from 1995 to 1 year ago
Europe PubMed Central
from 1995 to 1 year ago
Open Access Digital Library
from 1993-01-01
Medline Complete (EBSCOhost)
from 1996-01-01 to 1 year ago
PubMed
29236942
DOI
10.1093/aob/mcx155
Knihovny.cz E-resources
- MeSH
- Action Potentials drug effects physiology MeSH
- Anesthetics adverse effects MeSH
- Arabidopsis drug effects physiology MeSH
- Chlorophyll metabolism MeSH
- Drosera drug effects physiology MeSH
- Droseraceae drug effects physiology MeSH
- Ether adverse effects MeSH
- Homeostasis * MeSH
- Pisum sativum drug effects physiology MeSH
- Germination drug effects MeSH
- Lepidium sativum drug effects physiology MeSH
- Plant Leaves drug effects physiology MeSH
- Magnoliopsida drug effects physiology MeSH
- Mimosa drug effects physiology MeSH
- Organelles drug effects physiology MeSH
- Reactive Oxygen Species metabolism MeSH
- Transport Vesicles drug effects physiology MeSH
- Publication type
- Journal Article MeSH
- Research Support, Non-U.S. Gov't MeSH
Background and Aims: Anaesthesia for medical purposes was introduced in the 19th century. However, the physiological mode of anaesthetic drug actions on the nervous system remains unclear. One of the remaining questions is how these different compounds, with no structural similarities and even chemically inert elements such as the noble gas xenon, act as anaesthetic agents inducing loss of consciousness. The main goal here was to determine if anaesthetics affect the same or similar processes in plants as in animals and humans. Methods: A single-lens reflex camera was used to follow organ movements in plants before, during and after recovery from exposure to diverse anaesthetics. Confocal microscopy was used to analyse endocytic vesicle trafficking. Electrical signals were recorded using a surface AgCl electrode. Key Results: Mimosa leaves, pea tendrils, Venus flytraps and sundew traps all lost both their autonomous and touch-induced movements after exposure to anaesthetics. In Venus flytrap, this was shown to be due to the loss of action potentials under diethyl ether anaesthesia. The same concentration of diethyl ether immobilized pea tendrils. Anaesthetics also impeded seed germination and chlorophyll accumulation in cress seedlings. Endocytic vesicle recycling and reactive oxygen species (ROS) balance, as observed in intact Arabidopsis root apex cells, were also affected by all anaesthetics tested. Conclusions: Plants are sensitive to several anaesthetics that have no structural similarities. As in animals and humans, anaesthetics used at appropriate concentrations block action potentials and immobilize organs via effects on action potentials, endocytic vesicle recycling and ROS homeostasis. Plants emerge as ideal model objects to study general questions related to anaesthesia, as well as to serve as a suitable test system for human anaesthesia.
References provided by Crossref.org
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