Zusammenfassung
Der Begriff der Heterotrophic gilt nicht nur für ganze Individuen, denen die Fähigkeit zur Photosynthese oder Chemosynthese abgeht, sondern auch für einzelne Zellen, Gewebe oder ganze Organe (z. B. Wurzeln) an sich autotropher Pflanzen, wenn sie nicht unmittelbar an der Stoffsynthese beteiligt sind und daher ihren Stoffbedarf von anderen autotrophen Zellen und Geweben oder aus Reservestoffbehältern decken müssen; danach ist auch der Stoffwechsel etiolierter Pflanzen heterotroph. Im einzelnen Fall ist jeweils die Art der Heterotrophic (C-, N-, Wirkstoff-Heterotrophic) zu ermitteln, ferner aber auch, welche Kohlenstoff Verbindungen als Baustoffe oder Energielief eranten in Betracht kommen, welche Stickstoffverbindungen zu Körpereiweiß verarbeitet werden können, über welche Enzymsysteme die betreffenden Zellen oder Organismen verfügen, welche Wirkstoffe selbst synthetisiert werden können und welche zugeführt werden müssen u. dgl. mehr.
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Kisser, J.G., Härtel, O., Phaff, H.J., Vogel, H.J., Nielsen, N., Street, H.E. (1959). Methoden der Kultur mit organischen Verbindungen. In: Mothes, K. (eds) Heterotrophie / Heterotrophy. Handbuch der Pflanzenphysiologie / Encyclopedia of Plant Physiology, vol 11. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-642-94753-7_3
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