Zusammenfassung
Es ist sehr wahrscheinlich, dass die Evolution erster Zellen in der Frühzeit der Erdgeschichte in einem Medium stattfand, das geringe Konzentrationen abiotisch gebildeter, kleiner organischer Moleküle enthielt und reich an Mineralstoffen war. Es ist daher nicht überraschend, dass die ionale Zusammensetzung der Körperflüssigkeiten heute lebender Tiere in vielen Fällen Ähnlichkeiten mit der ionalen Komposition des Meerwassers erkennen lässt. Allerdings sind die Körperflüssigkeiten von Tieren nie exakt mit den jeweiligen Außenmedien identisch. Vielmehr ist die Aufrechterhaltung von Konzentrationsunterschieden (Gradienten) zwischen Körperinnerem und Außenwelt sogar ein wesentliches Merkmal lebender Systeme.
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Notes
- 1.
compatior (lat.) = Mitleid haben; kompatibel = verträglich
- 2.
homoios (griech.) = gleich, gleichartig
- 3.
eurys (griech.) = breit; halos (griech.) = Salz
- 4.
stenos (griech.) = eng
- 5.
isos (griech.) = gleich
- 6.
poikilos (griech.) = verschieden, verschiedenartig
- 7.
hyper- (griech.) = über
- 8.
hypo- (griech.) = unter
- 9.
plassein (griech.) = bilden, formen
- 10.
ana- (griech.) = hinauf, aufwärts; dromos (griech.) = Lauf
- 11.
kata (griech.) = hinab
- 12.
smolt (engl.) = Junglachs oder junge Meerforelle auf dem Weg ins Meer
- 13.
sub- (lat.) = unter, unterhalb; lingua (lat.) = Zunge
- 14.
tonos (griech.) = Spannung, Anspannung
- 15.
cavum (lat.) = Höhlung; forma (lat.) = Gestalt
- 16.
konos (griech.) = Kegel
- 17.
dipsa (griech.) = Durst, -genes (griech.) = -erzeugend, -herstellend
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Hildebrandt, JP., Bleckmann, H., Homberg, U. (2021). Osmo- und Ionenregulation. In: Penzlin - Lehrbuch der Tierphysiologie. Springer Spektrum, Berlin, Heidelberg. https://doi.org/10.1007/978-3-662-61595-9_7
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