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栀子姜制前后化学成分差异及质量分析
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          唐莉华 ,吴 宇 ,黄学娣 ,胡晓莲 ,唐 怡 ,陈子龙 ,肖小凡 ,叶喜德 (1.江西省中西医结合医院药剂科,
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          南昌 330003;2.江西中医药大学药学院,南昌 330004)
          中图分类号  R917;R283.1      文献标志码  A      文章编号  1001-0408(2026)02-0168-06
          DOI  10.6039/j.issn.1001-0408.2026.02.06
          摘   要  目的  分析栀子姜制前后化学成分的差异,评价不同产地姜栀子的质量差异。方法  采用超高效液相色谱-飞行时间串联
          质谱法分析栀子姜制前后的成分差异,根据2020年版《中国药典》测定姜栀子的水分、总灰分、醇溶性浸出物含量,采用高效液相
          色谱法测定姜栀子中京尼平龙胆双糖苷、栀子苷、西红花苷Ⅰ、西红花苷Ⅱ的含量。结果  从生栀子与姜栀子中共鉴定出49个成
          分,包括黄酮类14个、环烯醚萜类15个、有机酸类10个、生物碱类2个、其他类8个,其中生栀子中有42个成分,姜栀子中有28个
          成分,二者共有成分21个。姜制后,生栀子减少了21个成分(包括环烯醚萜类、黄酮类、生物碱类、其他类),新增了7个成分(包括
          香豆素类、有机酸类、有机酸酯类、黄酮类)。15批姜栀子的水分含量为5.64%~7.11%、总灰分含量为2.92%~4.87%、醇溶性浸出
          物含量为40.61%~58.02%;京尼平龙胆双糖苷、栀子苷、西红花苷Ⅰ、西红花苷Ⅱ的平均含量分别为0.108 7、0.542 2、0.565 0、0.012 5
          mg/g。结论  栀子姜制后减少了21个成分,新增了7个成分;不同产地姜栀子的水分、总灰分、醇溶性浸出物和京尼平龙胆双糖苷、
          栀子苷、西红花苷Ⅰ、西红花苷Ⅱ含量存在差异,其中福建产地样品中京尼平龙胆双糖苷和醇溶性浸出物含量较高,江西产地样品
          中西红花苷Ⅰ含量较高。
          关键词  栀子;姜栀子;炮制;UPLC-TOF-MS/MS;化学成分;质量差异


          Differences  in  chemical  components  and  quality  analysis  of  Gardenia  jasminoides  before  and  after
          processing with ginger
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          TANG Lihua ,WU Yu ,HUANG Xuedi ,HU Xiaolian ,TANG Yi ,CHEN Zilong ,XIAO Xiaofan ,YE Xide(1.
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          Dept.  of  Pharmacy,  Jiangxi  Provincial  Hospital  of  Integrated  Traditional  Chinese  and  Western  Medicine,
          Nanchang  330003,  China;2.  School  of  Pharmacy,  Jiangxi  University  of  Chinese  Medicine,  Nanchang  330004,
          China)
          ABSTRACT    OBJECTIVE  To  analyze  the  differences  in  chemical  components  of  Gardenia  jasminoides  before  and  after
          processing  with  ginger,  and  to  evaluate  the  quality  differences  among  different  producing  areas.  METHODS  Ultra-high
          performance  liquid  chromatography-tandem  time-of-flight  mass  spectrometry  was  used  to  analyze  the  compositional  differences  of
          G. jasminoides before and after processing with ginger. The water content, total ash, and ethanol-soluble extract content of ginger-
          processed  G.  jasminoides  were  determined  according  to  the  2020  edition  of  Chinese  Pharmacopoeia.  High  performance  liquid
          chromatography  was  adopted  to  determine  the  contents  of  genipin  gentiobioside,  geniposide,  crocin  Ⅰ  and  crocin  Ⅱ  in  ginger-
          processed  G.  jasminoides.  RESULTS  A  total  of  49  chemical  components  were  identified  from  raw  G.  jasminoides  and  ginger-
          processed  G.  jasminoides,  including  14  flavonoids,  15  iridoids,  10  organic  acids,  2  alkaloids  and  8  other  compounds.  Among
          them,  42  components  were  detected  in  raw  G.  jasminoides,  28  in  ginger-processed  G.  jasminoides,  and  21  components  were
          common  to  both. After  processing  with  ginger,  raw  G.  jasminoides  lost  21  components (including  iridoids,  flavonoids,  alkaloids,
          and others), while 7 chemical components were added (including coumarins, organic acids, organic acid esters, and flavonoids).
          For  the  15  batches  of  ginger-processed  G.  jasminoides,  the  water  content  ranged  from  5.64%  to  7.11%,  total  ash  from  2.92%  to
          4.87%,  and  ethanol-soluble  extract  from  40.61%  to  58.02%. The  average  contents  of  genipin  gentiobioside,  geniposide,  crocin  Ⅰ
          and crocin Ⅱ were 0.108 7, 0.542 2, 0.565 0, and 0.012 5 mg/g, respectively. CONCLUSIONS After processing with ginger, G.
          jasminoides  loses  21  components,  while  7  new  components  are  added.  Differences  are  observed  in  the  water  content,  total  ash,
                                                              ethanol-soluble  extract,  and  the  contents  of  genipin
              Δ 基金项目 江西省重点研发计划项目(No.20232BBG70013);
                                                              gentiobioside, geniposide, crocin Ⅰ, and crocin Ⅱ of ginger-
          江西省中医药管理局科技计划项目(No.2022Z013)                        processed  G.  jasminoides  from  different  producing  areas.
             *第一作者 副主任中药师。研究方向:中药炮制、中药药理、临床
          药学。E-mail:514133789@qq.com                          Notably,  samples  from  Fujian  exhibit  high  contents  of  genipin
              #  通信作者 教 授 ,博 士 。 研 究 方 向 :中 药 炮 制 。 E-mail:   gentiobioside  and  ethanol-soluble  extract,  while  samples  from
          552376722@qq.com                                    Jiangxi have a high content of crocin Ⅰ.


          · 168 ·    China Pharmacy  2026 Vol. 37  No. 2                               中国药房  2026年第37卷第2期
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