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从薄荷(Mentha piperita L.)的腺毛中分离的分泌细胞簇的形态和单萜生物合成能力。

Morphology and monoterpene biosynthetic capabilities of secretory cell clusters isolated from glandular trichomes of peppermint (Mentha piperita L.).

机构信息

Institute of Biological Chemistry, Washington State University, 99164-6340, Pullman, WA, USA.

出版信息

Planta. 1992 Jul;187(4):445-54. doi: 10.1007/BF00199962.

DOI:10.1007/BF00199962
PMID:24178138
Abstract

Secretory cells were isolated from the monoterpene-producing glandular trichomes (peltate form) of peppermint as clusters of eight cells each. These isolated structures were shown to be non-specifically permeable to low-molecular-weight, water-soluble cofactors and substrates. Short incubation periods with the polar dye Lucifer yellow iodoacetamide (Mr=660) resulted in a uniform staining of the cytoplasm, with exclusion of the dye from the vacuole. The molecular-weight exclusion limit for this permeability was shown to be less than approx. 1800, based on exclusion of fluorescein-conjugated dextran (Mr ∼ 1800). Intact secretory cell clusters very efficiently incorporated [(3)H]geranyl pyrophosphate into monoterpenes. The addition of exogenous cofactors and redox substrates affected the distribution of monoterpenes synthesized from [(3)H]geranyl pyrophosphate, demonstrating that the cell clusters were permeable to these compounds and that the levels of endogenous cofactors and redox substrates were depleted in the isolated cells. When provided with the appropriate cofactors, such as NADPH, NAD(+), ATP, ADP and coenzyme A, the isolated secretory cell clusters incorporated [(14)C]sucrose into monoterpenes, indicating that these structures are capable of the de-novo biosynthesis of monoterpenes from a primary carbon source, and that they maintain a high degree of metabolic competence in spite of their permeable nature.

摘要

从薄荷的单萜生产腺毛(盘状)中分离出的分泌细胞,每个细胞都有八个细胞簇。这些分离的结构被证明对低分子量、水溶性辅助因子和底物具有非特异性通透性。用极性染料 Lucifer yellow iodoacetamide(Mr=660)短时间孵育会导致细胞质均匀染色,而染料被排除在液泡之外。这种通透性的分子量排除限制被证明小于约 1800,基于荧光素结合葡聚糖(Mr ∼ 1800)的排除。完整的分泌细胞簇非常有效地将[(3)H]香叶基焦磷酸酯掺入单萜中。添加外源辅助因子和氧化还原底物会影响从[(3)H]香叶基焦磷酸酯合成的单萜的分布,这表明细胞簇对这些化合物具有通透性,并且分离细胞中的内源性辅助因子和氧化还原底物水平被耗尽。当提供适当的辅助因子,如 NADPH、NAD(+)、ATP、ADP 和辅酶 A 时,分离的分泌细胞簇将[(14)C]蔗糖掺入单萜中,这表明这些结构能够从初级碳源从头合成单萜,并且尽管它们具有通透性,但它们仍保持高度的代谢能力。

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