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不同海拔云南黄连生物量和主要有效成分变化

张霁1,2;蔡传涛1;蔡志全1;刘贵周1;罗媛1;杨志雄3   

  1. 1中国科学院西双版纳热带植物园, 昆明 650223;2中国科学院研究生院, 北京 100049;3云南福维临生物药业有限公司, 云南六库 673100
  • 收稿日期:2007-12-20 修回日期:1900-01-01 出版日期:2008-07-20 发布日期:2008-07-20

Variation patterns of Coptis teeta biomass and its major active compounds along an altitude gradient.

ZHANG Ji1,2;CAI Chuan-tao1;CAI Zhi-quan1;LIU Gui-zhou1; LUO Yuan1;YANG Zhi-xiong3   

  1. 1Xishuangbanna Tropical Botanical Garden, Chinese Academy of Sciences,
    Kunming 650223, China;2Graduate University of Chinese Academy of Sciences, Beijing 100049, China;3Fuweilin Biological Pharmacy Co. Ltd., Liuku 673100, Yunnan, China
  • Received:2007-12-20 Revised:1900-01-01 Online:2008-07-20 Published:2008-07-20

摘要: 研究了不同海拔(2 100~2 700 m)下,野生和人工栽培云南黄连的生物量、主要有效成分含量及产量.结果表明:野生云南黄连根茎和根生物量沿海拔梯度呈上升趋势,但无显著性差异(P>0.05);人工栽培云南黄连根茎生物量平均值在海拔2 600 m和2 700 m处分别为87.5 kg·hm-2和97.0 kg·hm-2,显著高于海拔2 300 m处(34.8 kg·hm-2,P<0.05),且海拔2 300、2 600和2 700 m的人工栽培云南黄连根茎和根生物量均大于野生云南黄连,但无显著性差异(P>0.05). 野生云南黄连的根茎和根生物量均与全株生物量呈显著正相关. 野生云南黄连根茎和根小檗碱含量在海拔2 700 m处最高,分别为4.60%和1.93%; 根茎巴马汀和药根碱含量、根药根碱含量在海拔2 600~2 700 m处最高;根巴马汀含量在2 300 m处最高.人工云南黄连根茎和根小檗碱含量在海拔2 600 m处最高,分别为4.41%和1.90%; 根茎巴马汀含量,根小檗碱、巴马汀和药根碱含量在海拔2 600~2 700 m处最高;根茎药根碱含量在海拔2 300 m处最高.海拔2 600~2 700 m处野生云南黄连根茎和根中各有效成分产量显著高于海拔2 100和2 300 m处(P<0.05). 野生云南黄连分株的根茎生物量、根生物量、叶生物量、总生物量、高度和冠幅沿海拔梯度呈先升后降趋势.增大种植密度和加强人工管理可以提高云南黄连生物量和主要有效成分产量.

关键词: 根际效应, 根序分级, Q10值, 中亚热带森林, 马尾松, 苦槠

Abstract: An investigation was made on the biomass and major active compounds of wild and cultivated Coptis teetaalong an altitude gradient in Nujiang of Yunnan. The results showed that the rhizome and root biomass of wild C. teeta increased from the altitude 2 100 m to 2 700 m, but the difference was not significant. The rhizome biomass of cultivated C. teeta was 87.5 kg·hm-2 at 2 600 m and 97.0 kg·hm-2 at 2 700 m, being much higher than 34.8 kg·hm-2 at 2 300 m (P<0.05). At the same altitudes (2 300 m, 2 600 m, and 2 700 m), cultivated C. teeta had higher rhizome and root biomass than wild C. teeta, but the difference was not significant. There was a significant positive correlation between the rhizome and root biomass and the whole plant biomass of wild C. teeta. Wild C. teeta had the highest content of berberine in rhizome (4.60%) and root (1.93%) at 2 700 m, plamatinein in rhizome, and jatrorrhizine in rhizome and root at 2 600-2 700 m, and plamatinein in root at 2 300 m; while cultivated C. teetahad the highest content of berberine in rhizome (4.41%) and root (1.90%) at 2 600 m, plamatinein in rhizome and root, and berberine and jatrorrhizine in root at 2 600-2 700 m, and jatrorrhizine in rhizome at 2 300 m. The content of major active compounds in wild C. teeta rhizome and root were significantly higher at 2 600 m and 2 700 m than at 2 100 m and 2 300 m (P<0.05), and the rhizome biomass, root biomass, leaf biomass, total biomass, height, and canopy diameter of wildC. teeta ramet increased first and decreased then from the altitude 2 100 m to 2 700 m. Increasing planting density and enhancing artificial management could improve the biomass of C. teeta and its major active compounds concentrations.

Key words: rhizopheric effect, root branch order,  , Q10 value, midsubtropical forest, Pinus massoniana, Castanopsis sclerophylla.