Article(id=1210516639607559038, tenantId=1146029695717560320, journalId=1189982191388893191, issueId=1210516638089212895, articleNumber=null, orderNo=null, doi=10.16438/j.0513-4870.2022-0504, pmid=null, cstr=null, oa=null, hot=null, price=null, onlineType=0, articleFormat=0, articleType=null, articleTypeStr=research-article, receivedDate=1650988800000, receivedDateStr=2022-04-27, revisedDate=1655827200000, revisedDateStr=2022-06-22, acceptedDate=null, acceptedDateStr=null, onlineDate=1766539257194, onlineDateStr=2025-12-24, pubDate=1662912000000, pubDateStr=2022-09-12, doiRegisterDate=null, doiRegisterDateStr=null, onlineIssueDate=1766539257194, onlineIssueDateStr=2025-12-24, onlineJustAcceptDate=null, onlineJustAcceptDateStr=null, onlineFirstDate=null, onlineFirstDateStr=null, sourceXml=null, magXml=null, createTime=1766539257194, creator=13701087609, updateTime=1766539257194, updator=13701087609, issue=Issue{id=1210516638089212895, tenantId=1146029695717560320, journalId=1189982191388893191, year='2022', volume='57', issue='9', pageStart='1', pageEnd='2888', issueExtLink='null', onlineDate='null', pubDate='null', beforeIssueId=null, nextIssueId=null, price=null, status=1, issueComplete=1, articleOrder=1, issueType=-1, specialIssue=null, createTime=1766539256832, creator=13701087609, updateTime=1766539546411, updator=13701087609, preIssue=null, nextIssue=null, ext={EN=IssueExt(id=1210517852726096743, tenantId=1146029695717560320, journalId=1189982191388893191, issueId=1210516638089212895, language=EN, specialIssueTitle=, coverIllustrator=null, specialIssueEditor=, specialIssueAbout=), CN=IssueExt(id=1210517852726096744, tenantId=1146029695717560320, journalId=1189982191388893191, issueId=1210516638089212895, language=CN, specialIssueTitle=, coverIllustrator=null, specialIssueEditor=, specialIssueAbout=)}, issueFiles=null}, startPage=2821, endPage=2838, ext={EN=ArticleExt(id=1210516640089904005, articleId=1210516639607559038, tenantId=1146029695717560320, journalId=1189982191388893191, language=EN, title=Analysis of flavonoids and phenylethanoid glycosides in the Tibetan herb Lagotis brevituba Maxim based on UHPLC-LTQ-orbitrap-MS, columnId=1190335348761793317, journalTitle=Acta Pharmaceutica Sinica, columnName=Original Articles, runingTitle=null, highlight=null, articleAbstract=

Ultra high performance liquid chromatography tandem linear ion trap orbitrap mass spectrometry (UHPLC-LTQ-orbitrap-MS) was applied to analyze and identify flavonoids and phenylethanoid glycosides in the Tibetan herb Lagotis brevituba Maxim. A method of data-dependent scan coupling with dynamic exclusion was developed for analyzing flavonoids and phenylethanoid glycosides under positive and negative ion mode of electrospray ionization (ESI). The compounds of Lagotis brevituba Maxim. were systematically identified through exact molecular mass, fragmentation patterns, retention time and reported references. A total of 167 compounds were detected, of which 84 were flavonoids and 83 were phenylethanoid glycosides, which greatly enriched the number and types of flavonoids and phenylethanol glycosides in Lagotis genus medicinal plants. Baohuoside Ⅰ, 4 disaccharide O-glycoside flavonoids (composed of deoxyhexose and glucuronic acid), 9 C-glycoside flavonoids, 15 tetrasaccharide phenylethanoid glycosides and 5 phenylethanoid glycosides with substituents on the β-position of the phenylethyl group were identified in Lagotis genus medicinal plants for the first time. This study provides scientific support for elucidating the material basis and improving the quality control of Lagotis brevituba Maxim.

, correspAuthors=Yan GOU, Yun-bin JIANG, authorNote=null, correspAuthorsNote=null, copyrightStatement=Copyright ©2022 Acta Pharmaceutica Sinica. All rights reserved., copyrightOwner=null, extLink=null, articleAbsUrl=null, sourceXml=null, magXml=null, pdfUrl=null, pdf=null, pdfFileSize=null, pdfExtLink=null, richHtmlUrl=null, mobilePdfUrl=null, reviewReport=null, pdfFirstPage=null, abstractGraph=null, abstractGraphContent=null, abstractVideo=null, citation=null, cebUrl=null, magXmlContent=null, mapNumber=null, authorCompany=null, fund=null, authors=null, authorsList=Zhao GENG, Bi-xing GAO, Lian ZHONG, Jing-liang QI, Yan GOU, Yun-bin JIANG, Lei YANG, Jun YUAN, Li GUO, Yi-tao WANG), CN=ArticleExt(id=1210516642744898498, articleId=1210516639607559038, tenantId=1146029695717560320, journalId=1189982191388893191, language=CN, title=基于UHPLC-LTQ-orbitrap-MS方法分析藏药洪连(短管兔耳草) 中黄酮与苯乙醇苷类成分, columnId=1190335348896011050, journalTitle=药学学报, columnName=研究论文, runingTitle=null, highlight=null, articleAbstract=

采用超高效液相色谱-串联线性离子阱-轨道阱组合高分辨质谱(UHPLC-LTQ-orbitrap-MS) 技术对藏药洪连(中国药典收载基原短管兔耳草) 中黄酮类和苯乙醇苷类成分进行定性分析。采用与动态排除相结合的数据依赖性扫描, 在电喷雾离子源正、负离子模式下分别分析黄酮类和苯乙醇苷类成分的精确分子量、碎片离子及保留时间等信息, 并结合相关文献系统全面地鉴别藏药洪连中这两类成分。最终共鉴定了167个化合物, 其中黄酮类成分84个, 苯乙醇苷类成分83个, 极大地丰富了洪连及兔耳草属植物中黄酮和苯乙醇苷类成分的数量和种类, 特别是首次从兔耳草属植物中发现了黄酮化合物宝藿苷I、脱氧己糖与葡萄糖醛酸组合的二糖氧苷黄酮4个、碳苷黄酮9个、四糖苯乙醇苷15个以及β位有取代基的苯乙醇苷5个, 为阐明洪连物质基础并整体提升其质量控制水平以及进一步规范相关基原品种的临床应用提供数据基础和科学依据。

, correspAuthors=苟琰, 蒋运斌, authorNote=null, correspAuthorsNote=
*苟琰, Tel: 86-28-87877195, E-mail: ;
蒋运斌, Tel: 13368082556, E-mail:
, copyrightStatement=版权所有©《药学学报》编辑部2022, copyrightOwner=null, extLink=null, articleAbsUrl=null, sourceXml=ot0k01RdqaSnnubIjVBVsg==, magXml=C3F9GfI+BTj8M/Chr74y8w==, pdfUrl=null, pdf=9G9Gmuzwg8+3xqtPpUI0rQ==, pdfFileSize=2098432, pdfExtLink=null, richHtmlUrl=null, mobilePdfUrl=null, reviewReport=null, pdfFirstPage=null, abstractGraph=DNNzLsjqlmy50eEvnqvbVA==, abstractGraphContent=null, abstractVideo=null, citation=null, cebUrl=null, magXmlContent=ZQ7ZOaAaA6ZDxExs5aUQFg==, mapNumber=null, authorCompany=null, fund=null, authors=null, authorsList=耿昭, 高必兴, 钟恋, 齐景梁, 苟琰, 蒋运斌, 杨蕾, 袁军, 郭力, 王一涛)}, authors=[Author(id=1210516643403404266, tenantId=1146029695717560320, journalId=1189982191388893191, articleId=1210516639607559038, orderNo=0, firstName=null, middleName=null, lastName=null, nameCn=null, orcid=null, stid=null, country=null, authorPic=null, dead=0, email=null, emailSecond=null, emailThird=null, correspondingAuthor=0, authorType=1, ext={EN=AuthorExt(id=1210516643495678964, tenantId=1146029695717560320, journalId=1189982191388893191, articleId=1210516639607559038, authorId=1210516643403404266, language=EN, stringName=Zhao GENG, firstName=Zhao, middleName=null, lastName=GENG, prefix=null, suffix=null, authorComment=null, nameInitials=null, affiliation=null, department=null, xref=1, 3, address=1. NMPA Key Laboratory for Quality Evaluation of Traditional Chinese Medicine (Traditional Chinese Patent Medicine), Sichuan Institute for Drug Control (Sichuan Testing Center of Medical Devices), Chengdu 611731, China
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A: Positive ion mode; B: Negative ion mode , figureFileSmall=O72JoPdAIwhmROCOaW+xrw==, figureFileBig=DNNzLsjqlmy50eEvnqvbVA==, tableContent=null), ArticleFig(id=1210516649585807778, tenantId=1146029695717560320, journalId=1189982191388893191, articleId=1210516639607559038, language=EN, label=null, caption=null, figureFileSmall=R45yG2Xgu5boZ3HHfi/r9A==, figureFileBig=IPInX09E6py8pspw3v7VIw==, tableContent=null), ArticleFig(id=1210516649715831215, tenantId=1146029695717560320, journalId=1189982191388893191, articleId=1210516639607559038, language=CN, label=Figure 2, caption= MS/MS spectrum of luteolin-7<i>-O-</i>glc and astragaline. A: Luteolin-7<i>-O-</i>glc in positive ion mode; B: Luteolin-7<i>-O-</i>glc in negative ion mode; C: Astragaline in positive ion mode; D: Astragaline in negative ion mode , figureFileSmall=R45yG2Xgu5boZ3HHfi/r9A==, figureFileBig=IPInX09E6py8pspw3v7VIw==, tableContent=null), ArticleFig(id=1210516649829077435, tenantId=1146029695717560320, journalId=1189982191388893191, articleId=1210516639607559038, language=EN, label=null, caption=null, figureFileSmall=l8WHHDkcxtlJ9nWOOQLYTg==, figureFileBig=AVKJ+Pl0oCbPdn4baI0A1w==, tableContent=null), ArticleFig(id=1210516649921352135, tenantId=1146029695717560320, journalId=1189982191388893191, articleId=1210516639607559038, language=CN, label=Figure 3, caption= MS/MS spectrum and fragmentation pathway of apigenin-6, 8-di-<i>C-</i>hexoside in positive ion modes , figureFileSmall=l8WHHDkcxtlJ9nWOOQLYTg==, figureFileBig=AVKJ+Pl0oCbPdn4baI0A1w==, tableContent=null), ArticleFig(id=1210516650026209740, tenantId=1146029695717560320, journalId=1189982191388893191, articleId=1210516639607559038, language=EN, label=null, caption=null, figureFileSmall=3zaa/zSaym9PfxMktE146A==, figureFileBig=KVoCzBLrWSzOt7rbmmUOgg==, tableContent=null), ArticleFig(id=1210516650143650263, tenantId=1146029695717560320, journalId=1189982191388893191, articleId=1210516639607559038, language=CN, label=Figure 4, caption= MS/MS spectrum and fragmentation pathway of apigenin-6, 8-di-<i>C-</i>hexoside in negative ion modes , figureFileSmall=3zaa/zSaym9PfxMktE146A==, figureFileBig=KVoCzBLrWSzOt7rbmmUOgg==, tableContent=null), ArticleFig(id=1210516650282062306, tenantId=1146029695717560320, journalId=1189982191388893191, articleId=1210516639607559038, language=EN, label=null, caption=null, figureFileSmall=E+sDgs6LrHFv/+PaydCbbQ==, figureFileBig=yYMH1mlq1cyJGnv2HrBz5A==, tableContent=null), ArticleFig(id=1210516650370142697, tenantId=1146029695717560320, journalId=1189982191388893191, articleId=1210516639607559038, language=CN, label=Figure 5, caption= MS/MS spectrum and fragmentation pathway of echinacoside in negative ion modes , figureFileSmall=E+sDgs6LrHFv/+PaydCbbQ==, figureFileBig=yYMH1mlq1cyJGnv2HrBz5A==, tableContent=null), ArticleFig(id=1210516651179643379, tenantId=1146029695717560320, journalId=1189982191388893191, articleId=1210516639607559038, language=EN, label=null, caption=null, figureFileSmall=EdB87GnsvzKm+ydtsl7h4A==, figureFileBig=jw8Y+4F5ncin/FOzQmQ03g==, tableContent=null), ArticleFig(id=1210516651288695295, tenantId=1146029695717560320, journalId=1189982191388893191, articleId=1210516639607559038, language=CN, label=Figure 6, caption= MS/MS spectrum and fragmentation pathway of echinacoside in positive ion modes , figureFileSmall=EdB87GnsvzKm+ydtsl7h4A==, figureFileBig=jw8Y+4F5ncin/FOzQmQ03g==, tableContent=null), ArticleFig(id=1210516651372581383, tenantId=1146029695717560320, journalId=1189982191388893191, articleId=1210516639607559038, language=EN, label=null, caption=null, figureFileSmall=null, figureFileBig=null, tableContent=
No.tR/minFormulaMS (+)Error (10-6) (+)MS/MS (+)MS (-)Error (10-6) (-)MS/MS (-)Identification
15.52C27H28O18641.132 633.45479, 303639.118 962.07463, 301Pentahydroxyflavone O-hex-O-gluA
25.58C21H20O10433.111 393.55415, 397, 379, 367, 337, 313, 283431.098 020.81-Trihydroxy flavone C-glc[21, 22]
35.95C27H30O16611.158 263.94593, 575, 565, 557, 545, 539, 527, 515, 497, 491, 473, 449, 355, 267, 221609.144 472.69591, 519, 489, 429, 399, 369Luteolin-6, 8-di-C-glc[21, 22]
45.95C27H30O15595.163 513.76577, 559, 541, 529, 523, 511, 499, 475, 457, 445, 415, 379, 337, 313593.150 511.15503, 473, 353, 311Apigenin-6, 8-di-C-hex[21, 22]
56.48C21H20O9417.116 822.86399, 381, 363, 351, 321, 297415.102 781.62295Dihydroxy flavone C-glc[21, 22]
66.71C27H30O15595.163 513.76577, 559, 541, 529, 523, 511, 499, 475, 457, 439, 421, 409, 379, 355593.150 571.05575, 503, 473, 383, 353Apigenin-6, 8-di-C-hex[21, 22]
76.87C22H22O10447.126 833.91429, 411, 393, 381, 351, 327445.115 02-2.24-Dihydroxy methoxyflavone C-glc[21, 22]
87.15C27H28O18641.133 242.50479, 303639.119 381.42-Pentahydroxyflavone O-hex-O-gluA
97.40C27H30O16611.158 453.62449, 431, 395, 383, 355, 329, 287, 267, 221609.145 021.78-Tetrahydroxyflavone O-dihex
107.56C27H26O18639.116 763.81463, 445, 287637.104 060.91475, 351, 285Luteolin-7-O-digluA[4]
117.68C27H30O16611.158 573.43593, 491, 449, 431, 413, 383, 355, 329, 287, 267, 221609.146 73-1.02489, 429, 357, 327Kaempferol-6, 8-di-C-glc[21, 22]
127.90C27H30O16611.158 453.62593, 565, 465, 449, 355, 303, 267, 221609.144 961.88463, 447, 301Pentahydroxyflavone O-rha-O-hex
138.05C21H20O11449.106 083.92431, 413, 395, 383, 353, 329, 299447.092 990.66429, 411, 357, 327, 297Isoorientin*
148.30C21H18O13479.080 263.68303477.067 200.55397, 373, 343, 301Pentahydroxy flavone O-gluA
158.46C21H20O12465.101 103.56303463.087 521.46301Pentahydroxyflavone O-hex
169.05C27H30O16611.158 693.23449, 355, 287609.144 712.29477, 447, 285Tetrahydroxyflavone O-dihex
179.13C27H26O17623.122 313.16463, 447, 271621.109 310.66445, 351Apigenin-7-O-digluA
189.59C29H36O16641.205 263.67623, 605, 487, 479, 461, 443, 325, 317639.191 103.06477, 315Tetrahydroxymethoxyflavone O-dihex
199.70C27H30O15595.163 763.34449, 287593.149 542.78-Luteolin-O-rutinoside or isomer[4]
209.78C27H30O16611.158 813.03465, 449, 371, 335, 303, 267609.145 081.69343, 301, 300, 271, 255, 179Rutin*
219.86C28H28O18653.132 573.48477, 459, 441, 397, 367, 343, 313, 301, 286, 258, 229651.119 750.89571, 457, 395, 371, 351, 299Diosmetin-7-O-digluA or isomer[4]
229.98C21H20O10433.111 393.55415, 397, 379, 367, 337, 313, 283431.098 020.81413, 341, 311Trihydroxy flavone C-glc[21, 22]
2310.02C21H20O12465.101 323.09303463.087 681.12301, 300Hyperoside*
2410.25C21H18O13479.080 752.65461, 443, 325, 303477.067 050.87301Pentahydroxyflavone O-gluA
2510.38C21H20O12465.100 983.82303463.087 591.31301, 300Isoquercitrin*
2610.42C21H20O11449.106 203.66287447.092 621.48327, 285, 284Kaempferol-3-O-galactoside[20]
2710.42C21H18O12463.085 273.97287461.071 901.41285, 175Scutellarin*
2810.42C28H28O18653.132 453.67477, 459, 397, 367, 343, 313, 301, 286, 258, 229651.119 381.39571, 457, 395, 371, 351, 341, 323, 299, 289Diosmetin-7-O-digluA or isomer[4]
2910.54C28H32O16625.174 263.29479, 317, 302623.162 29-0.85477, 315Tetrahydroxymethoxyflavone O-rha-O-hex
3010.57C21H18O12463.085 174.18287461.071 592.08381, 357, 327, 285Luteolin-O-gluA[4]
3110.58C21H18O13479.081 091.95461, 435, 317, 303, 285, 275, 259---Pentahydroxyflavone O-gluA
3210.61C21H20O11449.106 453.10287447.092 621.48327, 285Luteolin-7-O-glc*
3310.73C28H30O17639.153 633.05463, 301, 286, 258637.140 750.43619, 605, 447, 337, 299, 284, 256Trihydroxymethoxyflavone O-gluA-O-hex
3410.92C27H30O15595.163 703.44449, 287, 271593.149 742.45447, 285, 269Luteolin-O-rutinoside or isomer[4]
3511.13C28H30O17639.153 872.67477, 459, 323, 301, 286, 258637.139 472.43-Trihydroxymethoxyflavone O-hex-O-gluA
3611.15C28H32O16625.175 900.66479, 317, 302623.164 98-5.16-Tetrahydroxymethoxyflavone O-rha-O-hex
3711.21C22H20O13493.095 923.55317491.082 341.57357, 315Tetrahydroxymethoxyflavone O-gluA
3811.32C22H22O12479.116 733.50461, 317477.103 490.75462, 315, 314, 300, 299Tetrahydroxymethoxyflavone 3-O-hex
3911.44C28H32O16625.174 263.29479, 317, 302623.161 131.01477, 315Tetrahydroxymethoxyflavone O-rha-O-hex
4011.62C22H20O13493.095 893.61475, 317491.082 640.96357, 315Tetrahydroxymethoxyflavone O-gluA
4111.68C22H22O12479.116 673.62461, 317477.103 490.75462, 315, 300Tetrahydroxymethoxyflavone O-hex
4211.68C28H30O17639.153 503.25621, 477, 459, 301, 286, 258637.140 261.20-Trihydroxymethoxyflavone O-hex-O-gluA
4311.83C22H20O13493.095 833.73475, 317491.082 181.90-Tetrahydroxymethoxyflavone O-gluA
4411.84C22H22O12479.116 823.31461, 317477.104 25-0.84-Tetrahydroxymethoxyflavone O-hex
4512.54C21H20O11449.106 173.72431, 287447.092 900.86327, 285, 284, 255Astragaline*
4612.70C27H28O15593.147 773.93447, 271591.136 11-0.96-Trihydroxyflavone O-rha-O-gluA
4713.03C21H20O11449.106 812.29287447.092 322.15285Luteolin-4′-O-hex
4813.15C21H20O10433.111 793.69271431.097 531.94269Apigenin-7-O-β-D-glc[6]
4913.23C27H30O14579.169 073.05433, 271577.155 760.90269Trihydroxyflavone O-rha-O-hex
5013.26C21H18O11447.090 603.54271445.077 001.42269, 175Apigenin-7-O-β-D-gluA[13]
5113.49C28H30O16623.158 812.98447, 301, 286, 258621.145 391.15321, 299.284, 256Trihydroxymethoxyflavone O-rha-O-gluA
5213.73C28H32O15609.179 323.41463, 301, 286, 258607.165 771.77461, 443, 299, 285Diosimin*
5314.00C28H30O16623.158 263.86447, 301, 286, 258621.145 201.46477, 321, 299, 284Trihydroxymethoxyflavone O-rha-O-gluA
5414.07C22H22O11463.121 284.78301461.108 490.96446, 313, 299, 284Diosmetin-7-O-β-D-glc or chrysoeriol-7-O-β-D-glc or isomer[6, 16]
5514.14C22H20O12477.100 953.79301, 286475.087 621.22371, 341, 299, 284, 1755, 7, 4′-Dihydroxy-3′-methoxy flavone-7-O-β-D-galacturonide or isomer[13]
5614.14C28H32O15609.179 443.22463, 301, 286, 258607.166 021.35-Trihydroxymethoxyflavone O-rha-O-hex
5714.32C23H22O13507.111 333.93489, 331505.098 390.74-Trihydroxydimethoxyflavone O-gluA
5814.59C28H32O15609.179 203.61463, 301, 286, 258607.166 750.15-Trihydroxymethoxyflavone O-rha-O-hex
5914.63C28H24O14585.122 013.20567, 411, 345, 303, 283583.108 341.69463, 3016″-O-(4-Hydroxybenzoyl) hyperoside[13]
6014.68C22H22O11463.121 663.96301, 287461.108 760.38-Diosmetin-7-O-β-D-glc or chrysoeriol-7-O-β-D-glc or isomer[6, 16]
6114.71C22H20O12477.100 744.23301, 286475.087 681.09371, 341, 299, 284, 1755, 7, 4′-Dihydroxy-3′-methoxy flavone-7-O-β-D-galacturonide or isomer[13]
6215.07C23H24O12493.132 513.13331491.120 00-1.02-Tricin-7-O-glc[18, 19]
6315.18C23H22O13507.111 483.63331505.097 662.18329Trihydroxydimethoxyflavone O-gluA
6415.30C28H28O17637.138 003.03619, 461, 443, 327, 285, 242635.124 022.13351Acacetin-digluA[17]
6515.74C23H22O13507.111 393.81489, 331, 316505.098 021.47401, 371, 329, 175Trihydroxydimethoxyflavone O-gluA
6616.19C22H20O12477.100 834.04301, 287475.087 950.52299, 285Luteolin-7-O-gluA-6″-methyl ester[13]
6717.87C22H20O12477.100 804.10301475.087 740.97-5, 7, 4′-Dihydroxy-3′-methoxy flavone-7-O-β-D-galacturonide or isomer[13]
6817.87C22H22O11463.121 733.80301, 287461.109 47-1.16-Diosmetin-7-O-β-D-glc or chrysoeriol-7-O-β-D-glc or isomer[6, 16]
6918.63C23H22O12491.116 463.96315489.103 181.37313, 175Dihydroxydimethoxyflavanone O-gluA
7018.87C15H10O6287.054 143.06269, 259, 245, 241, 153285.040 131.16285, 243, 241, 217, 199, 175Luteolin*
7118.95C16H12O5285.073 916.48270, 253, 229, 225, 181, 137283.059 725.2268Calycosin*
7219.19C22H20O11461.106 323.30443, 271459.093 72-0.95283, 269, 268Trihydroxyflavone 3-O-gluA methyl ester
7319.35C28H30O15607.163 823.18461, 285605.150 630.93321, 283, 268Dihydroxymethoxyflavone O-rha-O-gluA
7419.59C28H32O14593.184 633.13575, 447, 285591.169 683.80445, 283, 268Dihydroxymethoxyflavone O-hex-O-rha
7519.71C23H22O12491.116 124.66315, 301489.103 520.67-Diosmetin-7-O-β-D-gluA methyl ester or isomer[13]
7619.82C30H26O13595.142 273.95329, 309, 287593.129 151.54327, 285Tiliroside[17]
7719.90C23H22O12491.116 583.72315, 301489.106 69-5.80-Diosmetin-7-O-β-D-gluA methyl ester or isomer[13]
7820.14C22H20O11461.106 233.49285459.092 860.92283, 175Wogonoside[17]
7920.29C23H22O12491.116 394.11315489.103 151.43-Dihydroxydimethoxyflavanone O-gluA
8020.33C17H14O7331.080 990.72316, 299, 271, 169, 123---Tricin or 5, 7, 4′-trihydroxy-3′, 5′-dimethoxyflavone[15, 18]
8121.03C15H10O5271.059 571.96271, 253, 243, 229, 225, 203, 163, 153, 145269.045 231.17269, 225, 201, 149Apigenin*
8221.51C16H12O6301.069 952.38286299.055 791.07284Hispidulin*
8324.02C16H12O5285.075 650.35285, 270, 257, 225, 211, 153---Apigenin-7-methyl ether[14]
8424.21C27H30O10515.189 213.82497, 479, 369, 313513.176 390.45367, 366, 351, 323Baohuoside Ⅰ*
), ArticleFig(id=1210516651536159244, tenantId=1146029695717560320, journalId=1189982191388893191, articleId=1210516639607559038, language=CN, label=Table 1, caption=

Identification analysis of flavonoids compounds in Lagotis brevituba Maxim. by UHPLC-LTQ-orbitrap-MS. *Compounds identified by comparison with reference standards. gluA: Glucuronic acid; glc: Glucose; hex: Hexose; rha: Rhamnose

, figureFileSmall=null, figureFileBig=null, tableContent=
No.tR/minFormulaMS (+)Error (10-6) (+)MS/MS (+)MS (-)Error (10-6) (-)MS/MS (-)Identification
15.52C27H28O18641.132 633.45479, 303639.118 962.07463, 301Pentahydroxyflavone O-hex-O-gluA
25.58C21H20O10433.111 393.55415, 397, 379, 367, 337, 313, 283431.098 020.81-Trihydroxy flavone C-glc[21, 22]
35.95C27H30O16611.158 263.94593, 575, 565, 557, 545, 539, 527, 515, 497, 491, 473, 449, 355, 267, 221609.144 472.69591, 519, 489, 429, 399, 369Luteolin-6, 8-di-C-glc[21, 22]
45.95C27H30O15595.163 513.76577, 559, 541, 529, 523, 511, 499, 475, 457, 445, 415, 379, 337, 313593.150 511.15503, 473, 353, 311Apigenin-6, 8-di-C-hex[21, 22]
56.48C21H20O9417.116 822.86399, 381, 363, 351, 321, 297415.102 781.62295Dihydroxy flavone C-glc[21, 22]
66.71C27H30O15595.163 513.76577, 559, 541, 529, 523, 511, 499, 475, 457, 439, 421, 409, 379, 355593.150 571.05575, 503, 473, 383, 353Apigenin-6, 8-di-C-hex[21, 22]
76.87C22H22O10447.126 833.91429, 411, 393, 381, 351, 327445.115 02-2.24-Dihydroxy methoxyflavone C-glc[21, 22]
87.15C27H28O18641.133 242.50479, 303639.119 381.42-Pentahydroxyflavone O-hex-O-gluA
97.40C27H30O16611.158 453.62449, 431, 395, 383, 355, 329, 287, 267, 221609.145 021.78-Tetrahydroxyflavone O-dihex
107.56C27H26O18639.116 763.81463, 445, 287637.104 060.91475, 351, 285Luteolin-7-O-digluA[4]
117.68C27H30O16611.158 573.43593, 491, 449, 431, 413, 383, 355, 329, 287, 267, 221609.146 73-1.02489, 429, 357, 327Kaempferol-6, 8-di-C-glc[21, 22]
127.90C27H30O16611.158 453.62593, 565, 465, 449, 355, 303, 267, 221609.144 961.88463, 447, 301Pentahydroxyflavone O-rha-O-hex
138.05C21H20O11449.106 083.92431, 413, 395, 383, 353, 329, 299447.092 990.66429, 411, 357, 327, 297Isoorientin*
148.30C21H18O13479.080 263.68303477.067 200.55397, 373, 343, 301Pentahydroxy flavone O-gluA
158.46C21H20O12465.101 103.56303463.087 521.46301Pentahydroxyflavone O-hex
169.05C27H30O16611.158 693.23449, 355, 287609.144 712.29477, 447, 285Tetrahydroxyflavone O-dihex
179.13C27H26O17623.122 313.16463, 447, 271621.109 310.66445, 351Apigenin-7-O-digluA
189.59C29H36O16641.205 263.67623, 605, 487, 479, 461, 443, 325, 317639.191 103.06477, 315Tetrahydroxymethoxyflavone O-dihex
199.70C27H30O15595.163 763.34449, 287593.149 542.78-Luteolin-O-rutinoside or isomer[4]
209.78C27H30O16611.158 813.03465, 449, 371, 335, 303, 267609.145 081.69343, 301, 300, 271, 255, 179Rutin*
219.86C28H28O18653.132 573.48477, 459, 441, 397, 367, 343, 313, 301, 286, 258, 229651.119 750.89571, 457, 395, 371, 351, 299Diosmetin-7-O-digluA or isomer[4]
229.98C21H20O10433.111 393.55415, 397, 379, 367, 337, 313, 283431.098 020.81413, 341, 311Trihydroxy flavone C-glc[21, 22]
2310.02C21H20O12465.101 323.09303463.087 681.12301, 300Hyperoside*
2410.25C21H18O13479.080 752.65461, 443, 325, 303477.067 050.87301Pentahydroxyflavone O-gluA
2510.38C21H20O12465.100 983.82303463.087 591.31301, 300Isoquercitrin*
2610.42C21H20O11449.106 203.66287447.092 621.48327, 285, 284Kaempferol-3-O-galactoside[20]
2710.42C21H18O12463.085 273.97287461.071 901.41285, 175Scutellarin*
2810.42C28H28O18653.132 453.67477, 459, 397, 367, 343, 313, 301, 286, 258, 229651.119 381.39571, 457, 395, 371, 351, 341, 323, 299, 289Diosmetin-7-O-digluA or isomer[4]
2910.54C28H32O16625.174 263.29479, 317, 302623.162 29-0.85477, 315Tetrahydroxymethoxyflavone O-rha-O-hex
3010.57C21H18O12463.085 174.18287461.071 592.08381, 357, 327, 285Luteolin-O-gluA[4]
3110.58C21H18O13479.081 091.95461, 435, 317, 303, 285, 275, 259---Pentahydroxyflavone O-gluA
3210.61C21H20O11449.106 453.10287447.092 621.48327, 285Luteolin-7-O-glc*
3310.73C28H30O17639.153 633.05463, 301, 286, 258637.140 750.43619, 605, 447, 337, 299, 284, 256Trihydroxymethoxyflavone O-gluA-O-hex
3410.92C27H30O15595.163 703.44449, 287, 271593.149 742.45447, 285, 269Luteolin-O-rutinoside or isomer[4]
3511.13C28H30O17639.153 872.67477, 459, 323, 301, 286, 258637.139 472.43-Trihydroxymethoxyflavone O-hex-O-gluA
3611.15C28H32O16625.175 900.66479, 317, 302623.164 98-5.16-Tetrahydroxymethoxyflavone O-rha-O-hex
3711.21C22H20O13493.095 923.55317491.082 341.57357, 315Tetrahydroxymethoxyflavone O-gluA
3811.32C22H22O12479.116 733.50461, 317477.103 490.75462, 315, 314, 300, 299Tetrahydroxymethoxyflavone 3-O-hex
3911.44C28H32O16625.174 263.29479, 317, 302623.161 131.01477, 315Tetrahydroxymethoxyflavone O-rha-O-hex
4011.62C22H20O13493.095 893.61475, 317491.082 640.96357, 315Tetrahydroxymethoxyflavone O-gluA
4111.68C22H22O12479.116 673.62461, 317477.103 490.75462, 315, 300Tetrahydroxymethoxyflavone O-hex
4211.68C28H30O17639.153 503.25621, 477, 459, 301, 286, 258637.140 261.20-Trihydroxymethoxyflavone O-hex-O-gluA
4311.83C22H20O13493.095 833.73475, 317491.082 181.90-Tetrahydroxymethoxyflavone O-gluA
4411.84C22H22O12479.116 823.31461, 317477.104 25-0.84-Tetrahydroxymethoxyflavone O-hex
4512.54C21H20O11449.106 173.72431, 287447.092 900.86327, 285, 284, 255Astragaline*
4612.70C27H28O15593.147 773.93447, 271591.136 11-0.96-Trihydroxyflavone O-rha-O-gluA
4713.03C21H20O11449.106 812.29287447.092 322.15285Luteolin-4′-O-hex
4813.15C21H20O10433.111 793.69271431.097 531.94269Apigenin-7-O-β-D-glc[6]
4913.23C27H30O14579.169 073.05433, 271577.155 760.90269Trihydroxyflavone O-rha-O-hex
5013.26C21H18O11447.090 603.54271445.077 001.42269, 175Apigenin-7-O-β-D-gluA[13]
5113.49C28H30O16623.158 812.98447, 301, 286, 258621.145 391.15321, 299.284, 256Trihydroxymethoxyflavone O-rha-O-gluA
5213.73C28H32O15609.179 323.41463, 301, 286, 258607.165 771.77461, 443, 299, 285Diosimin*
5314.00C28H30O16623.158 263.86447, 301, 286, 258621.145 201.46477, 321, 299, 284Trihydroxymethoxyflavone O-rha-O-gluA
5414.07C22H22O11463.121 284.78301461.108 490.96446, 313, 299, 284Diosmetin-7-O-β-D-glc or chrysoeriol-7-O-β-D-glc or isomer[6, 16]
5514.14C22H20O12477.100 953.79301, 286475.087 621.22371, 341, 299, 284, 1755, 7, 4′-Dihydroxy-3′-methoxy flavone-7-O-β-D-galacturonide or isomer[13]
5614.14C28H32O15609.179 443.22463, 301, 286, 258607.166 021.35-Trihydroxymethoxyflavone O-rha-O-hex
5714.32C23H22O13507.111 333.93489, 331505.098 390.74-Trihydroxydimethoxyflavone O-gluA
5814.59C28H32O15609.179 203.61463, 301, 286, 258607.166 750.15-Trihydroxymethoxyflavone O-rha-O-hex
5914.63C28H24O14585.122 013.20567, 411, 345, 303, 283583.108 341.69463, 3016″-O-(4-Hydroxybenzoyl) hyperoside[13]
6014.68C22H22O11463.121 663.96301, 287461.108 760.38-Diosmetin-7-O-β-D-glc or chrysoeriol-7-O-β-D-glc or isomer[6, 16]
6114.71C22H20O12477.100 744.23301, 286475.087 681.09371, 341, 299, 284, 1755, 7, 4′-Dihydroxy-3′-methoxy flavone-7-O-β-D-galacturonide or isomer[13]
6215.07C23H24O12493.132 513.13331491.120 00-1.02-Tricin-7-O-glc[18, 19]
6315.18C23H22O13507.111 483.63331505.097 662.18329Trihydroxydimethoxyflavone O-gluA
6415.30C28H28O17637.138 003.03619, 461, 443, 327, 285, 242635.124 022.13351Acacetin-digluA[17]
6515.74C23H22O13507.111 393.81489, 331, 316505.098 021.47401, 371, 329, 175Trihydroxydimethoxyflavone O-gluA
6616.19C22H20O12477.100 834.04301, 287475.087 950.52299, 285Luteolin-7-O-gluA-6″-methyl ester[13]
6717.87C22H20O12477.100 804.10301475.087 740.97-5, 7, 4′-Dihydroxy-3′-methoxy flavone-7-O-β-D-galacturonide or isomer[13]
6817.87C22H22O11463.121 733.80301, 287461.109 47-1.16-Diosmetin-7-O-β-D-glc or chrysoeriol-7-O-β-D-glc or isomer[6, 16]
6918.63C23H22O12491.116 463.96315489.103 181.37313, 175Dihydroxydimethoxyflavanone O-gluA
7018.87C15H10O6287.054 143.06269, 259, 245, 241, 153285.040 131.16285, 243, 241, 217, 199, 175Luteolin*
7118.95C16H12O5285.073 916.48270, 253, 229, 225, 181, 137283.059 725.2268Calycosin*
7219.19C22H20O11461.106 323.30443, 271459.093 72-0.95283, 269, 268Trihydroxyflavone 3-O-gluA methyl ester
7319.35C28H30O15607.163 823.18461, 285605.150 630.93321, 283, 268Dihydroxymethoxyflavone O-rha-O-gluA
7419.59C28H32O14593.184 633.13575, 447, 285591.169 683.80445, 283, 268Dihydroxymethoxyflavone O-hex-O-rha
7519.71C23H22O12491.116 124.66315, 301489.103 520.67-Diosmetin-7-O-β-D-gluA methyl ester or isomer[13]
7619.82C30H26O13595.142 273.95329, 309, 287593.129 151.54327, 285Tiliroside[17]
7719.90C23H22O12491.116 583.72315, 301489.106 69-5.80-Diosmetin-7-O-β-D-gluA methyl ester or isomer[13]
7820.14C22H20O11461.106 233.49285459.092 860.92283, 175Wogonoside[17]
7920.29C23H22O12491.116 394.11315489.103 151.43-Dihydroxydimethoxyflavanone O-gluA
8020.33C17H14O7331.080 990.72316, 299, 271, 169, 123---Tricin or 5, 7, 4′-trihydroxy-3′, 5′-dimethoxyflavone[15, 18]
8121.03C15H10O5271.059 571.96271, 253, 243, 229, 225, 203, 163, 153, 145269.045 231.17269, 225, 201, 149Apigenin*
8221.51C16H12O6301.069 952.38286299.055 791.07284Hispidulin*
8324.02C16H12O5285.075 650.35285, 270, 257, 225, 211, 153---Apigenin-7-methyl ether[14]
8424.21C27H30O10515.189 213.82497, 479, 369, 313513.176 390.45367, 366, 351, 323Baohuoside Ⅰ*
), ArticleFig(id=1210516651703931415, tenantId=1146029695717560320, journalId=1189982191388893191, articleId=1210516639607559038, language=EN, label=null, caption=null, figureFileSmall=null, figureFileBig=null, tableContent=
No.tR/minFormulaMS (+)Error (10-6) (+)Other adduct ion (+)MS/MS (+)MS (-)Error (10-6) (-)MS/MS (-)Other adduct ion (-)Identification
1 5.68 C41H56O25 966.344 36 0.56 971.298 89(+Na) 947.302 86 0.98 785, 623 983.277 89(+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-rha, caff
2 6.03 C40H54O25 952.326 97 2.43 935.301 45(+H), 957.282 23(+Na) 773, 611, 479, 457, 325, 295 933.287 05 1.17 801, 771, 753, 639, 609, 591, 477, 459, 447 969.263 85(+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-pen, caff
3 6.11 C35H46O21 820.284 73 2.81 825.239 87(+Na) 785, 623, 587, 477, 459, 325 801.244 75 1.41 783, 691, 639, 621, 529 837.221 37(+Cl) Suspensaside-O-hex[26, 30]
4 6.11 C41H56O25 966.342 96 2.04 971.298 40(+Na) 947.302 37 1.50 785, 767, 639, 623, 605, 461 β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-rha, caff
5 6.36 C41H56O25 966.344 06 0.88 947.303 10 0.73 785, 623 β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-rha, caff
6 6.36 C16H20O9 374.143 59 2.72 339, 195, 177 355.103 06 1.11 193 Glucose ester of (E)-ferulic acid[16]
7 6.52 C41H56O25 966.343 75 1.21 971.298 40(+Na) 787, 625, 479, 325 947.303 16 0.67 785, 767, 639, 623, 605, 461 β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-rha, caff
8 6.55 C41H56O26 982.338 13 1.74 987.293 27(+Na) 803, 649, 641, 487, 479, 325 963.298 10 0.63 801, 783, 639, 621, 477, 459 999.274 35 (+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-hex, caff
9 6.75 C35H46O21 820.285 46 1.90 803.258 24(+H), 825.240 42(+Na) 803, 641, 487, 479, 461, 443, 325, 317, 307, 263 801.243 77 2.63 783, 639, 621, 485, 477, 459, 305 837.220 28(+Cl) Maxoside or Lagotiside C or isomer[26, 27]
10 6.75 C29H36O17 674.227 11 2.99 679.182 62(+Na) 639, 621, 487, 477, 459, 325 655.186 71 1.93 637, 545, 503, 493, 475, 383, 323, 251 691.163 27(+Cl) β-Hydroxyl-plantamajoside or isomer[26, 30]
11 6.83 C40H54O24 936.332 34 2.17 941.287 48(+Na) 757, 625, 611, 603, 479, 471, 457, 325 917.291 69 1.67 785, 771, 755, 737, 623, 609, 477, 461 953.267 82(+Cl), 963.297 06(+COOH) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-rha-O-pen, caff
12 6.87 C41H56O25 966.343 14 1.85 971.298 03(+Na) 787, 625, 471, 325 947.302 92 0.92 785, 771, 623, 605, 461 983.278 32(+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-rha, caff
13 6.91 C29H36O17 674.227 05 3.09 679.182 31(+Na) 639, 621, 487, 477, 459, 325 655.187 19 1.19 637, 545, 503, 493, 475, 383, 323, 251 691.163 64(+Cl) β-Hydroxyl-plantamajoside or isomer[26, 30]
14 7.11 C41H56O25 966.343 14 1.85 971.298 71(+Na) 787, 625, 493, 471, 339 947.302 86 0.98 815, 785, 771, 753, 639, 621 983.276 31(+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-pen, feru
15 7.32 C41H56O25 966.344 42 0.50 971.298 89(+Na) - 947.302 61 1.25 785, 771, 753, 623, 605, 461 - β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-rha, caff
16 7.36 C29H36O16 658.231 87 3.58 641.205 44(+H), 663.187 38(+Na) 641, 479, 461, 325 639.192 02 3.58 477, 459, 315 675.169 25(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex, caff (isomer of Plantamajoside)
17 7.40 C42H56O26 994.337 34 2.53 999.292 91(+Na) 815, 661, 529, 457, 367, 325 975.297 97 0.75 933, 843, 813, 795, 771, 753, 681, 639, 621, 609 1 011.274 17(+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-pen-acetyl, caff
18 7.60 C29H36O16 658.231 81 3.67 663.187 07(+Na) 641, 623, 477, 471, 325 639.192 44 0.97 621, 529, 487, 477, 469, 459, 441, 179 675.166 20(+Cl) Suspensaside[26, 30]
19 7.76 C35H46O20 804.289 98 2.66 787.263 79(+H), 809.245 36(+Na) 641, 633, 625, 607, 487, 479, 471, 461, 443, 435, 417, 325, 309 785.248 96 2.55 767, 639, 623, 605, 477, 461, 443, 315 821.225 10(+Cl) Echinacoside*
20 7.90 C42H58O26 996.353 27 2.24 1 001.307 62(+Na) 663, 493, 339 977.312 93 1.46 815, 801, 783, 653, 639, 621 1 013.290 71(+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-hex, feru
21 7.90 C43H58O27 1 024.347 90 2.46 1 029.303 47(+Na) - 1 005.307 62 1.64 843, 801, 783, 681, 639, 585 1 041.284 91(+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-hex-acetyl, caff
22 8.21 C37H48O22 862.295 53 2.39 867.250 79(+Na) 691, 683, 529, 511, 479, 367, 325 843.255 31 1.35 801, 681, 639, 621, 519, 477, 459 879.231 51(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex-O-hex-acetyl, caff
23 8.21 C31H38O18 716.237 49 3.08 721.192 87(+Na) 681, 529, 477, 459, 367, 325 697.197 81 1.04 679, 655, 637, 587, 535, 517, 475, 457 733.176 09(+Cl) β-Hydroxyl-acetyl-plantamajoside or isomer[26, 30]
24 8.46 C31H38O18 716.237 79 2.65 721.192 87(+Na) 681, 529, 477, 367, 325 697.197 57 1.39 679, 655, 637, 587, 535, 517, 475 733.174 50(+Cl) β-Hydroxyl-acetyl-plantamajoside or isomer[26, 30]
25 8.57 C34H44O20 790.274 72 2.20 795.230 16(+Na) 479, 461, 457, 325, 295, 277 771.234 50 1.06 639, 609, 591, 477, 447, 315 807.209 66(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex-O-pen, caff
26 8.66 C40H54O24 936.332 21 2.31 941.287 23(+Na) 917.291 69 1.67 755, 623, 593, 461 953.266 97(+Cl), 963.295 10(+COOH) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-rha-O-pen, caff
27 9.05 C34H44O20 790.274 48 2.51 773.247 99(+H), 795.229 68(+Na) 611, 593, 487, 479, 457, 325, 307, 295, 277 771.233 95 1.77 639, 609, 591, 477, 447, 429, 323, 315, 297, 275 807.209 90(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex-O-pen, caff
28 9.17 C35H46O21 820.285 22 2.20 803.258 85(+H), 825.240 23(+Na) 803, 649, 641, 487, 479, 461, 443, 325, 317, 307 801.243 47 3.01 639, 621, 477, 459, 323, 315, 297, 263 837.219 79(+Cl) Maxoside or lagotiside C or isomer[26, 27]
29 9.28 C35H46O20 804.290 10 2.50 809.246 09(+Na) 787, 641, 633, 625, 487, 479, 471, 435, 325, 309 785.250 73 0.30 639, 623, 605, 477, 461, 315 821.227 23(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-rha-O-hex, caff (isomer of echinacoside)
30 9.41 C41H56O25 966.343 20 1.79 971.298 58(+Na) 947.302 86 0.98 801, 785, 767, 639, 623, 605, 461 983.278 81(+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-rha, caff
31 9.49 C35H46O20 804.290 34 2.20 787.262 70(+H), 809.245 73(+Na) 787, 625, 607, 571, 479, 471, 461, 435, 417, 325, 317, 309, 291, 273 785.250 55 0.53 639, 623, 605, 477, 461 821.226 87(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-rha-O-hex, caff (isomer of echinacoside)
32 9.53 C36H48O20 818.305 42 2.87 801.279 05(+H), 823.260 74(+Na) 801, 647, 639, 493, 485, 475, 339 799.264 53 2.61 637, 623, 605, 477, 461, 315, 305 835.241 03(+Cl) Jionoside A1 or isomer[26]
33 9.59 C29H36O16 658.232 42 2.72 641.205 26(+H), 663.187 68(+Na) 641, 487, 479, 461, 443, 325, 317, 307 639.191 10 3.06 477, 459, 315, 297, 179 675.167 72(+Cl) Plantamajoside*
34 9.74 C35H46O20 804.289 79 2.90 787.261 41(+H), 809.245 12(+Na) 787, 633, 625, 487, 479, 471, 461, 453, 435, 325, 309 785.250 00 1.23 639, 623, 605, 477, 461, 443, 307 821.226 07(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-rha-O-hex, caff (isomer of echinacoside)
35 9.98 C34H44O19 774.279 24 2.99 779.234 56(+Na) 757, 625, 479, 471, 325 755.239 87 0.70 609, 593, 575, 461, 447, 443 791.216 37(+Cl), 801.245 42(+COOH) Ehrenoside or isomer[31]
36 10.22 C30H38O16 672.247 44 3.62 655.220 95(+H),
677.202 58(+Na)
655, 471, 325 653.209 35 -0.98 635, 621, 543, 487, 459 689.186 65(+Cl), 699.214 72(+COOH) Suspensaside methyl ether[26, 30]
37 10.34 C23H26O11 501.134 92(+Na) 3.63 496.179 60 347, 321 477.139 77 0.97 315, 301, 297, 179, 161 β-D-Glp, (dihydroxypheny) ethyl, caff
38 10.46 C34H44O19 774.279 60 2.52 779.234 99(+Na) 757, 625, 479, 471, 457, 325 755.239 56 1.11 623, 609, 593, 575, 461, 447, 443, 315 791.216 13(+Cl) Ehrenoside or isomer[31]
39 10.81 C35H46O20 804.290 22 2.35 809.245 30(+Na) 625, 479, 471, 325, 317 785.250 67 0.38 623, 477, 461 821.227 11(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-rha-O-hex, caff (isomer of echinacoside)
40 10.81 C37H50O21 848.316 83 1.75 853.271 97(+Na) 507, 339 829.277 16 0.03 667, 653, 635, 491, 473 865.252 01(+Cl) β-D-Glp, (hydroxymethoxyphenyl) ethyl O-hex-O-hex, feru
41 11.00 C29H36O15 642.237 49 2.81 625.210 88(+H), 647.192 75(+Na) 625, 607, 589, 571, 479, 471, 435, 325, 309, 301 623.196 47 2.68 477, 461, 443, 323, 315, 297, 251, 179 659.173 03(+Cl) Verbascoside/Acteoside*
42 11.00 C29H34O15 640.221 92 2.69 623.190 61(+H) 623, 605, 587, 477, 459, 325, 281, 263 621.181 40 1.76 487, 469, 459, 179 Suspensaside A[26, 30]
43 11.17 C35H46O21 820.285 28 2.12 803.256 29(+H), 825.240 78(+Na) 649, 479, 325, 801.244 51 1.71 639, 621, 477, 459, 323, 315 837.220 95(+Cl) Maxoside or lagotiside C or isomer[26, 27]
44 11.25 C37H48O22 862.296 33 1.44 845.269 17(+H), 867.251 46(+Na) 691, 683, 529, 511, 479, 367, 325 843.254 76 2.00 801, 783, 681, 639, 621, 519, 477, 459 879.230 71(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex-O-hex-acetyl, caff
45 11.40 C29H36O16 658.232 06 3.28 641.205 44(+H), 663.187 13(+Na) 641, 487, 479, 461, 443, 325, 307 639.192 32 1.15 477, 459, 323, 315, 305, 297, 251, 179 675.168 95(+Cl) Plantainoside D[27]
46 11.44 C36H46O21 832.285 16 2.24 837.240 36(+Na) 683, 661, 529, 499, 479, 457, 367, 325, 295 813.244 87 1.24 771, 753, 681, 651, 633, 609, 591, 519, 477, 447 849.221 19(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex-O-pen-acetyl, caff
47 11.52 C29H36O15 642.237 55 2.72 625.174 68(+H), 647.192 81(+Na) 625, 479, 471, 463, 325, 309 623.197 20 1.51 477, 461, 315 β-D-Glp, (dihydroxyphenyl) ethyl O-rha, caff (isomer of isoacteoside)
48 11.64 C35H46O20 804.290 04 2.58 787.263 43(+H), 809.245 48(+Na) 625, 501, 493, 471, 339, 309, 291 785.250 37 0.76 653, 623, 609, 591, 491, 477, 459, 447, 315, 297 821.226 75(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-pen-O-hex, feru
49 11.80 C36H48O21 834.300 84 2.20 839.255 86(+Na) 655, 501, 493, 339 815.260 80 0.90 653, 639, 621, 491, 477, 473, 459 851.237 49(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex-O-hex, feru
50 11.86 C31H38O17 700.242 31 3.10 683.215 76(+H), 705.197 81(+Na) 683, 665, 647, 529, 511, 479, 367, 325, 307 681.201 90 2.53 639, 621, 519, 477, 459, 315 717.172 36(+Cl) Hemiphroside B*
51 11.86 C33H42O17 728.273 38 3.72 733.216 13(+Na) 529, 367, 325, 307 β-D-Glp, (dimethoxyphenyl) ethyl O-hex-acetyl, caff
52 12.02 C36H48O20 818.305 91 2.26 801.279 85(+H), 823.261 17(+Na) 655, 647, 639, 501, 493, 485, 339, 283 799.265 50 1.40 781, 653, 637, 623, 605, 491, 477, 461 835.241 88(+Cl) Jionoside A1 or isomer[26]
53 12.06 C34H44O20 790.274 72 2.20 773.247 92(+H), 795.229 86(+Na) 611, 479, 457, 325, 295 771.234 38 1.21 735, 639, 609, 591, 477, 447, 429, 323, 315, 251 807.210 75(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex-O-pen, caff
54 12.10 C31H38O17 700.242 80 2.82 683.215 39(+H), 705.198 12(+Na) 683, 529, 479, 367, 325 681.202 94 1.00 639, 621, 519, 477, 459 2′-O-Acetyl-plantamajoside[27]
55 12.34 C30H38O16 672.247 86 2.98 655.221 19(+H), 677.203 06(+Na) 655, 501, 493, 339 653.207 76 1.45 491, 477, 459, 315, 297 689.184 27(+Cl), 699.213 20(+COOH) β-D-Glp, (dihydroxyphenyl) ethyl O-hex, feru
56 12.38 C29H36O15 642.237 49 2.81 625.210 82(+H), 647.192 75(+Na) 625, 607, 479, 471, 461, 435, 325, 309 623.197 33 1.30 477, 461, 443, 323, 315, 297, 251, 179 659.174 01(+Cl) Isoacteoside*
57 12.42 C31H38O17 700.242 37 3.45 705.197 75(+Na) 521, 367, 325 681.202 76 1.27 639, 519, 477, 459 β-D-Glp, (dihydroxyphenyl) ethyl O-hex-acetyl, caff (isomer of hemiphroside B)
58 12.62 C37H50O20 832.321 41 2.41 815.294 25(+H), 837.276 55(+Na) 653, 507, 485, 339, 323, 305 813.281 56 0.87 667, 651, 637, 619, 491, 475, 473, 457, 427, 329, 287 849.257 75(+Cl) Cistanoside B or glucopyranosyl (1-6) martynoside or isomer[26, 29]
59 12.80 C29H36O15 642.237 24 3.21 625.210 14(+H), 647.192 44(+Na) 625, 607, 589, 571, 553, 479, 471, 461, 453, 443, 435, 417, 325, 317, 309, 301, 291, 273, 255 623.197 27 1.40 477, 461, 443, 315, 297, 179 659.171 20(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-rha, caff (isomer of verbascoside)
60 12.87 C30H38O16 672.247 62 3.36 655.220 76(+H), 677.203 00(+Na) 655, 501, 493, 339 653.208 07 0.98 491, 477, 459 689.185 06(+Cl), 699.213 01(+COOH) β-D-Glp, (dihydroxyphenyl) ethyl O-hex, feru
61 13.15 C29H36O14 626.242 55 2.93 631.198 12(+Na) 463, 325 607.202 33 1.48 461, 445 643.178 77(+Cl) β-D-Glp, (hydroxyphenyl) ethyl O-rha, caff
62 13.30 C30H38O16 672.247 80 3.07 677.203 06(+Na) 493, 475, 457, 325 653.207 52 1.82 491, 477, 315 689.184 20(+Cl), 699.216 43(+COOH) β-D-Glp, (hydroxymethoxyphenyl) ethyl O-hex, caff
63 13.34 C37H50O20 832.321 41 2.41 837.276 86(+Na) 653, 339, 323 813.281 13 1.40 651, 637, 619, 491, 475 849.256 90(+Cl) Cistanoside B or isomer[26]
64 13.37 C31H38O17 700.243 10 2.38 705.198 43(+Na) 665, 529, 511, 479, 461, 367, 349, 325 681.202 70 1.35 639, 621, 519, 477, 459 β-D-Glp, (dihydroxyphenyl) ethyl O-hex-acetyl, caff (isomer of hemiphroside B)
65 13.41 C29H36O14 626.241 88 4.03 609.214 78(+H), 631.197 27(+Na) 609, 463, 455, 309 607.202 76 0.77 461, 443, 315 643.179 32(+Cl) Lipedoside A or isomer[26]
66 13.89 C35H46O18 772.300 29 2.59 777.255 62(+Na) 755, 593, 471, 447, 325, 309 753.260 25 1.18 591 789.237 85(+Cl) Kankanoside I[28]
67 14.17 C30H38O15 656.252 93 3.08 639.226 38(+H), 661.208 37(+Na) 639, 493, 485, 339, 323, 277 637.212 59 1.89 491, 475, 461, 443, 315, 305, 297, 193 673.189 21(+Cl), 683.217 90(+COOH) Leucosceptoside A[26]
68 14.56 C29H36O14 626.241 94 3.93 631.197 75(+Na) 609, 591, 463, 455, 437, 309, 293, 275 607.202 64 0.97 461, 443, 315 643.178 22(+Cl) Lipedoside A or isomer[26]
69 15.07 C30H38O15 656.253 36 2.41 639.226 68(+H), 661.208 62(+Na) 639, 493, 471, 325 637.212 52 2.00 475, 329 673.188 48(+Cl) β-D-Glp, (hydroxymethoxyphenyl) ethyl O-rha, caff
70 15.10 C36H48O20 818.306 40 1.65 801.281 19(+H), 823.261 47(+Na) 639, 507, 471, 339, 309 799.265 81 1.01 667, 637, 623, 605, 491, 473, 461 835.241 94(+Cl), 845.271 24(+COOH) β-D-Glp, (hydroxymethoxyphenyl) ethyl O-hex-O-pen, feru
71 15.39 C37H50O20 832.321 90 1.80 815.295 10(+H), 837.277 22(+Na) 815, 785, 669, 653, 647, 507, 501, 485, 339 813.281 43 1.03 667, 651, 637, 619, 491, 475, 473, 457, 329, 305 849.257 63(+Cl) Cistanoside B or isomer[26]
72 15.43 C33H40O18 742.253 30 2.75 747.208 74(+Na) 725, 707, 571, 503, 367, 247 723.213 62 0.78 681, 663, 639, 621, 561, 519, 501, 477, 459 759.191 89(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex-acetyl-acetyl, caff
73 15.47 C30H38O15 656.252 99 2.99 661.208 68(+Na) 639, 621, 493, 485, 475, 467, 457, 449, 431, 339, 323, 305 637.213 50 0.46 491, 475, 461 673.189 88(+Cl), 683.219 60(+COOH) Leucosceptoside A[26]
74 15.54 C37H50O21 848.316 96 1.59 853.272 16(+Na) 669, 507, 339 829.276 49 0.83 667, 653, 635, 505, 491, 473, 425, 329, 311, 265 865.252 75(+Cl) β-D-Glp, (hydroxymethoxyphenyl) ethyl O-hex-O-hex, feru
75 15.90 C37H50O20 832.321 53 2.26 653, 339, 323 813.281 37 1.10 667, 651, 637, 619, 491, 475, 473, 457, 305 849.258 06(+Cl) Cistanoside B or isomer[26]
76 15.99 C32H40O17 714.258 73 2.36 719.213 87(+Na) 697, 529, 367, 325 695.218 44 1.20 653, 635, 519, 501, 491 731.195 56(+Cl) β-D-Glp, (hydroxymethoxyphenyl) ethyl O-hex-acetyl, caff
77 16.36 C31H38O17 700.242 61 3.10 683.216 13(+H), 705.197 88(+Na) 683, 529, 367, 325 681.202 70 1.35 639, 621, 519, 477, 459 β-D-Glp, (dihydroxyphenyl) ethyl O-hex-acetyl, caff (isomer of hemiphroside B)
78 16.44 C31H40O16 686.263 24 3.32 669.235 90(+H), 691.218 57(+Na) 507, 501, 471, 339, 277 667.223 82 0.81 505, 491, 473, 329, 311, 193 703.200 32(+Cl), 713.229 19(+COOH) β-D-Glp, (hydroxymethoxyphenyl) ethyl O-hex, feru
79 17.03 C36H48O19 802.310 73 2.65 785.285 40(+H), 807.266 36(+Na) 339 783.270 51 1.52 651, 637, 607, 589, 475, 461, 457, 443 819.247 86(+Cl), 829.276 25(+COOH) Lagotoside[29]
80 17.29 C39H52O21 874.332 34 1.86 879.287 54(+Na) 839, 671, 527, 339 855.291 56 1.49 813, 795, 709, 679, 667, 651, 637, 619, 601, 491 891.267 21(+Cl) Uranoside A or isomer[26]
81 17.45 C39H52O21 874.331 85 2.43 879.287 17(+Na) 839, 671, 339 855.291 44 1.63 813, 795, 693, 679, 667, 651, 637, 619, 601, 491, 475, 473 891.267 76(+Cl) Uranoside A or isomer[26]
82 18.47 C31H40O15 670.268 74 2.77 653.242 19(+H), 675.224 00(+Na) 653, 507, 485, 339, 323 651.228 70 1.14 505, 487, 475, 457, 329, 289, 265, 193 687.205 32(+Cl), 697.234 01(+COOH) Martynoside or cistanoside D or isomer[13, 14]
83 19.16 C33H42O17 728.273 62 3.39 733.229 06(+Na) 543, 381, 339 709.234 25 0.95 667, 649, 533 β-D-Glp, (hydroxymethoxyphenyl) ethyl O-hex-acetyl, feru
), ArticleFig(id=1210516651846537764, tenantId=1146029695717560320, journalId=1189982191388893191, articleId=1210516639607559038, language=CN, label=Table 2, caption=

Identification analysis of phenylethanoid glycosides compounds in Lagotis brevituba Maxim. by UHPLC-LTQ-orbitrap-MS. glp: Glucopyranoside; pen: Pentose; caff: Caffeoyl; feru: Feruloyl; coum: Coumaroyl

, figureFileSmall=null, figureFileBig=null, tableContent=
No.tR/minFormulaMS (+)Error (10-6) (+)Other adduct ion (+)MS/MS (+)MS (-)Error (10-6) (-)MS/MS (-)Other adduct ion (-)Identification
1 5.68 C41H56O25 966.344 36 0.56 971.298 89(+Na) 947.302 86 0.98 785, 623 983.277 89(+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-rha, caff
2 6.03 C40H54O25 952.326 97 2.43 935.301 45(+H), 957.282 23(+Na) 773, 611, 479, 457, 325, 295 933.287 05 1.17 801, 771, 753, 639, 609, 591, 477, 459, 447 969.263 85(+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-pen, caff
3 6.11 C35H46O21 820.284 73 2.81 825.239 87(+Na) 785, 623, 587, 477, 459, 325 801.244 75 1.41 783, 691, 639, 621, 529 837.221 37(+Cl) Suspensaside-O-hex[26, 30]
4 6.11 C41H56O25 966.342 96 2.04 971.298 40(+Na) 947.302 37 1.50 785, 767, 639, 623, 605, 461 β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-rha, caff
5 6.36 C41H56O25 966.344 06 0.88 947.303 10 0.73 785, 623 β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-rha, caff
6 6.36 C16H20O9 374.143 59 2.72 339, 195, 177 355.103 06 1.11 193 Glucose ester of (E)-ferulic acid[16]
7 6.52 C41H56O25 966.343 75 1.21 971.298 40(+Na) 787, 625, 479, 325 947.303 16 0.67 785, 767, 639, 623, 605, 461 β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-rha, caff
8 6.55 C41H56O26 982.338 13 1.74 987.293 27(+Na) 803, 649, 641, 487, 479, 325 963.298 10 0.63 801, 783, 639, 621, 477, 459 999.274 35 (+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-hex, caff
9 6.75 C35H46O21 820.285 46 1.90 803.258 24(+H), 825.240 42(+Na) 803, 641, 487, 479, 461, 443, 325, 317, 307, 263 801.243 77 2.63 783, 639, 621, 485, 477, 459, 305 837.220 28(+Cl) Maxoside or Lagotiside C or isomer[26, 27]
10 6.75 C29H36O17 674.227 11 2.99 679.182 62(+Na) 639, 621, 487, 477, 459, 325 655.186 71 1.93 637, 545, 503, 493, 475, 383, 323, 251 691.163 27(+Cl) β-Hydroxyl-plantamajoside or isomer[26, 30]
11 6.83 C40H54O24 936.332 34 2.17 941.287 48(+Na) 757, 625, 611, 603, 479, 471, 457, 325 917.291 69 1.67 785, 771, 755, 737, 623, 609, 477, 461 953.267 82(+Cl), 963.297 06(+COOH) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-rha-O-pen, caff
12 6.87 C41H56O25 966.343 14 1.85 971.298 03(+Na) 787, 625, 471, 325 947.302 92 0.92 785, 771, 623, 605, 461 983.278 32(+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-rha, caff
13 6.91 C29H36O17 674.227 05 3.09 679.182 31(+Na) 639, 621, 487, 477, 459, 325 655.187 19 1.19 637, 545, 503, 493, 475, 383, 323, 251 691.163 64(+Cl) β-Hydroxyl-plantamajoside or isomer[26, 30]
14 7.11 C41H56O25 966.343 14 1.85 971.298 71(+Na) 787, 625, 493, 471, 339 947.302 86 0.98 815, 785, 771, 753, 639, 621 983.276 31(+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-pen, feru
15 7.32 C41H56O25 966.344 42 0.50 971.298 89(+Na) - 947.302 61 1.25 785, 771, 753, 623, 605, 461 - β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-rha, caff
16 7.36 C29H36O16 658.231 87 3.58 641.205 44(+H), 663.187 38(+Na) 641, 479, 461, 325 639.192 02 3.58 477, 459, 315 675.169 25(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex, caff (isomer of Plantamajoside)
17 7.40 C42H56O26 994.337 34 2.53 999.292 91(+Na) 815, 661, 529, 457, 367, 325 975.297 97 0.75 933, 843, 813, 795, 771, 753, 681, 639, 621, 609 1 011.274 17(+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-pen-acetyl, caff
18 7.60 C29H36O16 658.231 81 3.67 663.187 07(+Na) 641, 623, 477, 471, 325 639.192 44 0.97 621, 529, 487, 477, 469, 459, 441, 179 675.166 20(+Cl) Suspensaside[26, 30]
19 7.76 C35H46O20 804.289 98 2.66 787.263 79(+H), 809.245 36(+Na) 641, 633, 625, 607, 487, 479, 471, 461, 443, 435, 417, 325, 309 785.248 96 2.55 767, 639, 623, 605, 477, 461, 443, 315 821.225 10(+Cl) Echinacoside*
20 7.90 C42H58O26 996.353 27 2.24 1 001.307 62(+Na) 663, 493, 339 977.312 93 1.46 815, 801, 783, 653, 639, 621 1 013.290 71(+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-hex, feru
21 7.90 C43H58O27 1 024.347 90 2.46 1 029.303 47(+Na) - 1 005.307 62 1.64 843, 801, 783, 681, 639, 585 1 041.284 91(+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-hex-acetyl, caff
22 8.21 C37H48O22 862.295 53 2.39 867.250 79(+Na) 691, 683, 529, 511, 479, 367, 325 843.255 31 1.35 801, 681, 639, 621, 519, 477, 459 879.231 51(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex-O-hex-acetyl, caff
23 8.21 C31H38O18 716.237 49 3.08 721.192 87(+Na) 681, 529, 477, 459, 367, 325 697.197 81 1.04 679, 655, 637, 587, 535, 517, 475, 457 733.176 09(+Cl) β-Hydroxyl-acetyl-plantamajoside or isomer[26, 30]
24 8.46 C31H38O18 716.237 79 2.65 721.192 87(+Na) 681, 529, 477, 367, 325 697.197 57 1.39 679, 655, 637, 587, 535, 517, 475 733.174 50(+Cl) β-Hydroxyl-acetyl-plantamajoside or isomer[26, 30]
25 8.57 C34H44O20 790.274 72 2.20 795.230 16(+Na) 479, 461, 457, 325, 295, 277 771.234 50 1.06 639, 609, 591, 477, 447, 315 807.209 66(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex-O-pen, caff
26 8.66 C40H54O24 936.332 21 2.31 941.287 23(+Na) 917.291 69 1.67 755, 623, 593, 461 953.266 97(+Cl), 963.295 10(+COOH) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-rha-O-pen, caff
27 9.05 C34H44O20 790.274 48 2.51 773.247 99(+H), 795.229 68(+Na) 611, 593, 487, 479, 457, 325, 307, 295, 277 771.233 95 1.77 639, 609, 591, 477, 447, 429, 323, 315, 297, 275 807.209 90(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex-O-pen, caff
28 9.17 C35H46O21 820.285 22 2.20 803.258 85(+H), 825.240 23(+Na) 803, 649, 641, 487, 479, 461, 443, 325, 317, 307 801.243 47 3.01 639, 621, 477, 459, 323, 315, 297, 263 837.219 79(+Cl) Maxoside or lagotiside C or isomer[26, 27]
29 9.28 C35H46O20 804.290 10 2.50 809.246 09(+Na) 787, 641, 633, 625, 487, 479, 471, 435, 325, 309 785.250 73 0.30 639, 623, 605, 477, 461, 315 821.227 23(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-rha-O-hex, caff (isomer of echinacoside)
30 9.41 C41H56O25 966.343 20 1.79 971.298 58(+Na) 947.302 86 0.98 801, 785, 767, 639, 623, 605, 461 983.278 81(+Cl) β-D-Glp, (dihydroxypheny) ethyl O-hex-O-hex-O-rha, caff
31 9.49 C35H46O20 804.290 34 2.20 787.262 70(+H), 809.245 73(+Na) 787, 625, 607, 571, 479, 471, 461, 435, 417, 325, 317, 309, 291, 273 785.250 55 0.53 639, 623, 605, 477, 461 821.226 87(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-rha-O-hex, caff (isomer of echinacoside)
32 9.53 C36H48O20 818.305 42 2.87 801.279 05(+H), 823.260 74(+Na) 801, 647, 639, 493, 485, 475, 339 799.264 53 2.61 637, 623, 605, 477, 461, 315, 305 835.241 03(+Cl) Jionoside A1 or isomer[26]
33 9.59 C29H36O16 658.232 42 2.72 641.205 26(+H), 663.187 68(+Na) 641, 487, 479, 461, 443, 325, 317, 307 639.191 10 3.06 477, 459, 315, 297, 179 675.167 72(+Cl) Plantamajoside*
34 9.74 C35H46O20 804.289 79 2.90 787.261 41(+H), 809.245 12(+Na) 787, 633, 625, 487, 479, 471, 461, 453, 435, 325, 309 785.250 00 1.23 639, 623, 605, 477, 461, 443, 307 821.226 07(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-rha-O-hex, caff (isomer of echinacoside)
35 9.98 C34H44O19 774.279 24 2.99 779.234 56(+Na) 757, 625, 479, 471, 325 755.239 87 0.70 609, 593, 575, 461, 447, 443 791.216 37(+Cl), 801.245 42(+COOH) Ehrenoside or isomer[31]
36 10.22 C30H38O16 672.247 44 3.62 655.220 95(+H),
677.202 58(+Na)
655, 471, 325 653.209 35 -0.98 635, 621, 543, 487, 459 689.186 65(+Cl), 699.214 72(+COOH) Suspensaside methyl ether[26, 30]
37 10.34 C23H26O11 501.134 92(+Na) 3.63 496.179 60 347, 321 477.139 77 0.97 315, 301, 297, 179, 161 β-D-Glp, (dihydroxypheny) ethyl, caff
38 10.46 C34H44O19 774.279 60 2.52 779.234 99(+Na) 757, 625, 479, 471, 457, 325 755.239 56 1.11 623, 609, 593, 575, 461, 447, 443, 315 791.216 13(+Cl) Ehrenoside or isomer[31]
39 10.81 C35H46O20 804.290 22 2.35 809.245 30(+Na) 625, 479, 471, 325, 317 785.250 67 0.38 623, 477, 461 821.227 11(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-rha-O-hex, caff (isomer of echinacoside)
40 10.81 C37H50O21 848.316 83 1.75 853.271 97(+Na) 507, 339 829.277 16 0.03 667, 653, 635, 491, 473 865.252 01(+Cl) β-D-Glp, (hydroxymethoxyphenyl) ethyl O-hex-O-hex, feru
41 11.00 C29H36O15 642.237 49 2.81 625.210 88(+H), 647.192 75(+Na) 625, 607, 589, 571, 479, 471, 435, 325, 309, 301 623.196 47 2.68 477, 461, 443, 323, 315, 297, 251, 179 659.173 03(+Cl) Verbascoside/Acteoside*
42 11.00 C29H34O15 640.221 92 2.69 623.190 61(+H) 623, 605, 587, 477, 459, 325, 281, 263 621.181 40 1.76 487, 469, 459, 179 Suspensaside A[26, 30]
43 11.17 C35H46O21 820.285 28 2.12 803.256 29(+H), 825.240 78(+Na) 649, 479, 325, 801.244 51 1.71 639, 621, 477, 459, 323, 315 837.220 95(+Cl) Maxoside or lagotiside C or isomer[26, 27]
44 11.25 C37H48O22 862.296 33 1.44 845.269 17(+H), 867.251 46(+Na) 691, 683, 529, 511, 479, 367, 325 843.254 76 2.00 801, 783, 681, 639, 621, 519, 477, 459 879.230 71(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex-O-hex-acetyl, caff
45 11.40 C29H36O16 658.232 06 3.28 641.205 44(+H), 663.187 13(+Na) 641, 487, 479, 461, 443, 325, 307 639.192 32 1.15 477, 459, 323, 315, 305, 297, 251, 179 675.168 95(+Cl) Plantainoside D[27]
46 11.44 C36H46O21 832.285 16 2.24 837.240 36(+Na) 683, 661, 529, 499, 479, 457, 367, 325, 295 813.244 87 1.24 771, 753, 681, 651, 633, 609, 591, 519, 477, 447 849.221 19(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex-O-pen-acetyl, caff
47 11.52 C29H36O15 642.237 55 2.72 625.174 68(+H), 647.192 81(+Na) 625, 479, 471, 463, 325, 309 623.197 20 1.51 477, 461, 315 β-D-Glp, (dihydroxyphenyl) ethyl O-rha, caff (isomer of isoacteoside)
48 11.64 C35H46O20 804.290 04 2.58 787.263 43(+H), 809.245 48(+Na) 625, 501, 493, 471, 339, 309, 291 785.250 37 0.76 653, 623, 609, 591, 491, 477, 459, 447, 315, 297 821.226 75(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-pen-O-hex, feru
49 11.80 C36H48O21 834.300 84 2.20 839.255 86(+Na) 655, 501, 493, 339 815.260 80 0.90 653, 639, 621, 491, 477, 473, 459 851.237 49(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex-O-hex, feru
50 11.86 C31H38O17 700.242 31 3.10 683.215 76(+H), 705.197 81(+Na) 683, 665, 647, 529, 511, 479, 367, 325, 307 681.201 90 2.53 639, 621, 519, 477, 459, 315 717.172 36(+Cl) Hemiphroside B*
51 11.86 C33H42O17 728.273 38 3.72 733.216 13(+Na) 529, 367, 325, 307 β-D-Glp, (dimethoxyphenyl) ethyl O-hex-acetyl, caff
52 12.02 C36H48O20 818.305 91 2.26 801.279 85(+H), 823.261 17(+Na) 655, 647, 639, 501, 493, 485, 339, 283 799.265 50 1.40 781, 653, 637, 623, 605, 491, 477, 461 835.241 88(+Cl) Jionoside A1 or isomer[26]
53 12.06 C34H44O20 790.274 72 2.20 773.247 92(+H), 795.229 86(+Na) 611, 479, 457, 325, 295 771.234 38 1.21 735, 639, 609, 591, 477, 447, 429, 323, 315, 251 807.210 75(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex-O-pen, caff
54 12.10 C31H38O17 700.242 80 2.82 683.215 39(+H), 705.198 12(+Na) 683, 529, 479, 367, 325 681.202 94 1.00 639, 621, 519, 477, 459 2′-O-Acetyl-plantamajoside[27]
55 12.34 C30H38O16 672.247 86 2.98 655.221 19(+H), 677.203 06(+Na) 655, 501, 493, 339 653.207 76 1.45 491, 477, 459, 315, 297 689.184 27(+Cl), 699.213 20(+COOH) β-D-Glp, (dihydroxyphenyl) ethyl O-hex, feru
56 12.38 C29H36O15 642.237 49 2.81 625.210 82(+H), 647.192 75(+Na) 625, 607, 479, 471, 461, 435, 325, 309 623.197 33 1.30 477, 461, 443, 323, 315, 297, 251, 179 659.174 01(+Cl) Isoacteoside*
57 12.42 C31H38O17 700.242 37 3.45 705.197 75(+Na) 521, 367, 325 681.202 76 1.27 639, 519, 477, 459 β-D-Glp, (dihydroxyphenyl) ethyl O-hex-acetyl, caff (isomer of hemiphroside B)
58 12.62 C37H50O20 832.321 41 2.41 815.294 25(+H), 837.276 55(+Na) 653, 507, 485, 339, 323, 305 813.281 56 0.87 667, 651, 637, 619, 491, 475, 473, 457, 427, 329, 287 849.257 75(+Cl) Cistanoside B or glucopyranosyl (1-6) martynoside or isomer[26, 29]
59 12.80 C29H36O15 642.237 24 3.21 625.210 14(+H), 647.192 44(+Na) 625, 607, 589, 571, 553, 479, 471, 461, 453, 443, 435, 417, 325, 317, 309, 301, 291, 273, 255 623.197 27 1.40 477, 461, 443, 315, 297, 179 659.171 20(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-rha, caff (isomer of verbascoside)
60 12.87 C30H38O16 672.247 62 3.36 655.220 76(+H), 677.203 00(+Na) 655, 501, 493, 339 653.208 07 0.98 491, 477, 459 689.185 06(+Cl), 699.213 01(+COOH) β-D-Glp, (dihydroxyphenyl) ethyl O-hex, feru
61 13.15 C29H36O14 626.242 55 2.93 631.198 12(+Na) 463, 325 607.202 33 1.48 461, 445 643.178 77(+Cl) β-D-Glp, (hydroxyphenyl) ethyl O-rha, caff
62 13.30 C30H38O16 672.247 80 3.07 677.203 06(+Na) 493, 475, 457, 325 653.207 52 1.82 491, 477, 315 689.184 20(+Cl), 699.216 43(+COOH) β-D-Glp, (hydroxymethoxyphenyl) ethyl O-hex, caff
63 13.34 C37H50O20 832.321 41 2.41 837.276 86(+Na) 653, 339, 323 813.281 13 1.40 651, 637, 619, 491, 475 849.256 90(+Cl) Cistanoside B or isomer[26]
64 13.37 C31H38O17 700.243 10 2.38 705.198 43(+Na) 665, 529, 511, 479, 461, 367, 349, 325 681.202 70 1.35 639, 621, 519, 477, 459 β-D-Glp, (dihydroxyphenyl) ethyl O-hex-acetyl, caff (isomer of hemiphroside B)
65 13.41 C29H36O14 626.241 88 4.03 609.214 78(+H), 631.197 27(+Na) 609, 463, 455, 309 607.202 76 0.77 461, 443, 315 643.179 32(+Cl) Lipedoside A or isomer[26]
66 13.89 C35H46O18 772.300 29 2.59 777.255 62(+Na) 755, 593, 471, 447, 325, 309 753.260 25 1.18 591 789.237 85(+Cl) Kankanoside I[28]
67 14.17 C30H38O15 656.252 93 3.08 639.226 38(+H), 661.208 37(+Na) 639, 493, 485, 339, 323, 277 637.212 59 1.89 491, 475, 461, 443, 315, 305, 297, 193 673.189 21(+Cl), 683.217 90(+COOH) Leucosceptoside A[26]
68 14.56 C29H36O14 626.241 94 3.93 631.197 75(+Na) 609, 591, 463, 455, 437, 309, 293, 275 607.202 64 0.97 461, 443, 315 643.178 22(+Cl) Lipedoside A or isomer[26]
69 15.07 C30H38O15 656.253 36 2.41 639.226 68(+H), 661.208 62(+Na) 639, 493, 471, 325 637.212 52 2.00 475, 329 673.188 48(+Cl) β-D-Glp, (hydroxymethoxyphenyl) ethyl O-rha, caff
70 15.10 C36H48O20 818.306 40 1.65 801.281 19(+H), 823.261 47(+Na) 639, 507, 471, 339, 309 799.265 81 1.01 667, 637, 623, 605, 491, 473, 461 835.241 94(+Cl), 845.271 24(+COOH) β-D-Glp, (hydroxymethoxyphenyl) ethyl O-hex-O-pen, feru
71 15.39 C37H50O20 832.321 90 1.80 815.295 10(+H), 837.277 22(+Na) 815, 785, 669, 653, 647, 507, 501, 485, 339 813.281 43 1.03 667, 651, 637, 619, 491, 475, 473, 457, 329, 305 849.257 63(+Cl) Cistanoside B or isomer[26]
72 15.43 C33H40O18 742.253 30 2.75 747.208 74(+Na) 725, 707, 571, 503, 367, 247 723.213 62 0.78 681, 663, 639, 621, 561, 519, 501, 477, 459 759.191 89(+Cl) β-D-Glp, (dihydroxyphenyl) ethyl O-hex-acetyl-acetyl, caff
73 15.47 C30H38O15 656.252 99 2.99 661.208 68(+Na) 639, 621, 493, 485, 475, 467, 457, 449, 431, 339, 323, 305 637.213 50 0.46 491, 475, 461 673.189 88(+Cl), 683.219 60(+COOH) Leucosceptoside A[26]
74 15.54 C37H50O21 848.316 96 1.59 853.272 16(+Na) 669, 507, 339 829.276 49 0.83 667, 653, 635, 505, 491, 473, 425, 329, 311, 265 865.252 75(+Cl) β-D-Glp, (hydroxymethoxyphenyl) ethyl O-hex-O-hex, feru
75 15.90 C37H50O20 832.321 53 2.26 653, 339, 323 813.281 37 1.10 667, 651, 637, 619, 491, 475, 473, 457, 305 849.258 06(+Cl) Cistanoside B or isomer[26]
76 15.99 C32H40O17 714.258 73 2.36 719.213 87(+Na) 697, 529, 367, 325 695.218 44 1.20 653, 635, 519, 501, 491 731.195 56(+Cl) β-D-Glp, (hydroxymethoxyphenyl) ethyl O-hex-acetyl, caff
77 16.36 C31H38O17 700.242 61 3.10 683.216 13(+H), 705.197 88(+Na) 683, 529, 367, 325 681.202 70 1.35 639, 621, 519, 477, 459 β-D-Glp, (dihydroxyphenyl) ethyl O-hex-acetyl, caff (isomer of hemiphroside B)
78 16.44 C31H40O16 686.263 24 3.32 669.235 90(+H), 691.218 57(+Na) 507, 501, 471, 339, 277 667.223 82 0.81 505, 491, 473, 329, 311, 193 703.200 32(+Cl), 713.229 19(+COOH) β-D-Glp, (hydroxymethoxyphenyl) ethyl O-hex, feru
79 17.03 C36H48O19 802.310 73 2.65 785.285 40(+H), 807.266 36(+Na) 339 783.270 51 1.52 651, 637, 607, 589, 475, 461, 457, 443 819.247 86(+Cl), 829.276 25(+COOH) Lagotoside[29]
80 17.29 C39H52O21 874.332 34 1.86 879.287 54(+Na) 839, 671, 527, 339 855.291 56 1.49 813, 795, 709, 679, 667, 651, 637, 619, 601, 491 891.267 21(+Cl) Uranoside A or isomer[26]
81 17.45 C39H52O21 874.331 85 2.43 879.287 17(+Na) 839, 671, 339 855.291 44 1.63 813, 795, 693, 679, 667, 651, 637, 619, 601, 491, 475, 473 891.267 76(+Cl) Uranoside A or isomer[26]
82 18.47 C31H40O15 670.268 74 2.77 653.242 19(+H), 675.224 00(+Na) 653, 507, 485, 339, 323 651.228 70 1.14 505, 487, 475, 457, 329, 289, 265, 193 687.205 32(+Cl), 697.234 01(+COOH) Martynoside or cistanoside D or isomer[13, 14]
83 19.16 C33H42O17 728.273 62 3.39 733.229 06(+Na) 543, 381, 339 709.234 25 0.95 667, 649, 533 β-D-Glp, (hydroxymethoxyphenyl) ethyl O-hex-acetyl, feru
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基于UHPLC-LTQ-orbitrap-MS方法分析藏药洪连(短管兔耳草) 中黄酮与苯乙醇苷类成分
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耿昭 1, 3 , 高必兴 1, 2 , 钟恋 1, 2 , 齐景梁 2 , 苟琰 1, * , 蒋运斌 4, * , 杨蕾 1 , 袁军 1 , 郭力 2 , 王一涛 3
药学学报 | 研究论文 2022,57(9): 2821-2838
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药学学报 | 研究论文 2022, 57(9): 2821-2838
基于UHPLC-LTQ-orbitrap-MS方法分析藏药洪连(短管兔耳草) 中黄酮与苯乙醇苷类成分
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耿昭1, 3, 高必兴1, 2, 钟恋1, 2, 齐景梁2, 苟琰1, * , 蒋运斌4, * , 杨蕾1, 袁军1, 郭力2, 王一涛3
作者信息
  • 1.四川省药品检验研究院/国家药品监督管理局中成药质量评价重点实验室, 四川 成都 611731
  • 2.成都中医药大学药学院, 四川 成都 611137
  • 3.澳门大学中华医药研究院中药质量研究国家重点实验室, 澳门 999078
  • 4.西南大学药学院·中医药学院, 重庆 400715

通讯作者:

*苟琰, Tel: 86-28-87877195, E-mail: ;
蒋运斌, Tel: 13368082556, E-mail:
Analysis of flavonoids and phenylethanoid glycosides in the Tibetan herb Lagotis brevituba Maxim based on UHPLC-LTQ-orbitrap-MS
Zhao GENG1, 3, Bi-xing GAO1, 2, Lian ZHONG1, 2, Jing-liang QI2, Yan GOU1, * , Yun-bin JIANG4, * , Lei YANG1, Jun YUAN1, Li GUO2, Yi-tao WANG3
Affiliations
  • 1. NMPA Key Laboratory for Quality Evaluation of Traditional Chinese Medicine (Traditional Chinese Patent Medicine), Sichuan Institute for Drug Control (Sichuan Testing Center of Medical Devices), Chengdu 611731, China
  • 2. College of Pharmacy, Chengdu University of Traditional Chinese Medicine, Chengdu 611137, China
  • 3. State Key Laboratory of Quality Research in Chinese Medicine, Institute of Chinese Medical Sciences, University of Macau, Macau 999078, China
  • 4. College of Pharmaceutical Sciences, Southwest University, Chongqing 400715, China
出版时间: 2022-09-12 doi: 10.16438/j.0513-4870.2022-0504
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采用超高效液相色谱-串联线性离子阱-轨道阱组合高分辨质谱(UHPLC-LTQ-orbitrap-MS) 技术对藏药洪连(中国药典收载基原短管兔耳草) 中黄酮类和苯乙醇苷类成分进行定性分析。采用与动态排除相结合的数据依赖性扫描, 在电喷雾离子源正、负离子模式下分别分析黄酮类和苯乙醇苷类成分的精确分子量、碎片离子及保留时间等信息, 并结合相关文献系统全面地鉴别藏药洪连中这两类成分。最终共鉴定了167个化合物, 其中黄酮类成分84个, 苯乙醇苷类成分83个, 极大地丰富了洪连及兔耳草属植物中黄酮和苯乙醇苷类成分的数量和种类, 特别是首次从兔耳草属植物中发现了黄酮化合物宝藿苷I、脱氧己糖与葡萄糖醛酸组合的二糖氧苷黄酮4个、碳苷黄酮9个、四糖苯乙醇苷15个以及β位有取代基的苯乙醇苷5个, 为阐明洪连物质基础并整体提升其质量控制水平以及进一步规范相关基原品种的临床应用提供数据基础和科学依据。

洪连  /  UHPLC-LTQ-orbitrap-MS  /  黄酮  /  苯乙醇苷  /  兔耳草属

Ultra high performance liquid chromatography tandem linear ion trap orbitrap mass spectrometry (UHPLC-LTQ-orbitrap-MS) was applied to analyze and identify flavonoids and phenylethanoid glycosides in the Tibetan herb Lagotis brevituba Maxim. A method of data-dependent scan coupling with dynamic exclusion was developed for analyzing flavonoids and phenylethanoid glycosides under positive and negative ion mode of electrospray ionization (ESI). The compounds of Lagotis brevituba Maxim. were systematically identified through exact molecular mass, fragmentation patterns, retention time and reported references. A total of 167 compounds were detected, of which 84 were flavonoids and 83 were phenylethanoid glycosides, which greatly enriched the number and types of flavonoids and phenylethanol glycosides in Lagotis genus medicinal plants. Baohuoside Ⅰ, 4 disaccharide O-glycoside flavonoids (composed of deoxyhexose and glucuronic acid), 9 C-glycoside flavonoids, 15 tetrasaccharide phenylethanoid glycosides and 5 phenylethanoid glycosides with substituents on the β-position of the phenylethyl group were identified in Lagotis genus medicinal plants for the first time. This study provides scientific support for elucidating the material basis and improving the quality control of Lagotis brevituba Maxim.

Lagotis brevituba Maxim.  /  UHPLC-LTQ-orbitrap-MS  /  flavonoid  /  phenylethanoid glycoside  /  Lagotis genus
耿昭, 高必兴, 钟恋, 齐景梁, 苟琰, 蒋运斌, 杨蕾, 袁军, 郭力, 王一涛. 基于UHPLC-LTQ-orbitrap-MS方法分析藏药洪连(短管兔耳草) 中黄酮与苯乙醇苷类成分. 药学学报, 2022 , 57 (9) : 2821 -2838 . DOI: 10.16438/j.0513-4870.2022-0504
Zhao GENG, Bi-xing GAO, Lian ZHONG, Jing-liang QI, Yan GOU, Yun-bin JIANG, Lei YANG, Jun YUAN, Li GUO, Yi-tao WANG. Analysis of flavonoids and phenylethanoid glycosides in the Tibetan herb Lagotis brevituba Maxim based on UHPLC-LTQ-orbitrap-MS[J]. Acta Pharmaceutica Sinica, 2022 , 57 (9) : 2821 -2838 . DOI: 10.16438/j.0513-4870.2022-0504
洪连为玄参科植物短管兔耳草Lagotis brevituba Maxim., 又称兔耳草, 主要分布于甘肃、青海、四川及西藏等地, 为常用藏药, 在《月王药诊》《四部医典》《晶珠本草》等藏医古籍中均有记载[1-4], 目前收载于《中国药典》2020年版一部, 具有清热、解毒、利湿、平肝、行血、调经等功效[5]。洪连全草入药, 味苦性凉, 藏医主要用于治疗全身发热、肾炎、肺病、高血压、动脉粥样硬化、月经不调、综合性毒物中毒等疾病[4, 6], 具有较高的药用价值, 近年来越来越受到关注, 具有良好的开发与应用前景。
阐明物质基础的是现代中药研发的基础, 是临床合理用药的依据, 目前对洪连化学成分的研究还处于起步阶段, 从其中分离鉴定的化学成分主要为黄酮、苯乙醇苷、环烯醚萜、有机酸等[6, 7]。并且兔耳草属植物基原复杂, 我国即有17种之多[7], 本课题组前期研究也发现[8, 9], 目前市售及临床使用的洪连为兔耳草属多种植物, 不同基原兔耳草的功效主治和用法用量也存在一定差异, 因此有必要对洪连及其同属植物的药效物质基础进行系统深入的研究。
液质联用技术以其快速分离、高分辨率、高灵敏度的特点已逐步取代传统中药化学提取分离纯化的研究方法, 在中药化学成分研究中的应用日益广泛, 成为分离鉴定化合物最为有效的手段之一[10-12]。本研究以藏药洪连药典收载基原短管兔耳草为研究对象, 应用超高效液相色谱-串联线性离子阱-轨道阱组合高分辨质谱(UHPLC-LTQ-orbitrap-MS) 技术, 对其甲醇提取物中的黄酮类和苯乙醇苷类成分, 根据一级质谱、二级质谱数据及参考文献信息等进行研究, 为进一步阐明洪连物质基础并提高其质量控制水平提供借鉴和参考。
仪器  LTQ Orbitrap XL线性离子阱-轨道阱组合高分辨质谱(美国Thermo Fishergs公司), 配有Dionex UltiMate 3000超高效液相色谱仪、电喷雾离子源(ESI) 及Xcalibur 2.1数据处理系统; BP211D十万分之一电子天平(德国Sartorious公司); 超声波清洗器(美国Branson公司); Milli-Q纯水系统(美国Millipore公司)。
药材与试剂  实验用洪连采于青海, 经西北高原植物所卢学峰研究员及四川省药品检验研究院黎跃成主任中药师鉴定为玄参科植物短管兔耳草Lagotis brevituba Maxim.的干燥全草。
对照品: 毛蕊异黄酮(批号MUST-19120901, 99.84%)、木犀草素(批号MUST-19102418, 98.92%)、紫云英苷(批号MUST-19070311, 98.62%)、金丝桃苷(批号MUST-19061210, 98.49%)、异槲皮苷(批号MUST-19051005, 99.74%)、地奥司明(批号MUST-19060801, 98.17%)、异类叶升麻苷(批号MUST-19103104, 99.16%) 购自成都曼斯特生物科技有限公司。芹菜素(批号111901-202004, 99.4%)、木犀草苷(批号111720-201810, 93.5%)、芦丁(批号100080-201811, 92.4%)、野黄芩苷(批号110842-202010, 91.5%)、宝藿苷I (批号111852-201603, 99.9%)、异荭草苷(批号111974-201401, 94.0%)、大车前苷(批号111914-201604, 90.2%)、毛蕊花糖苷(批号111530-201914, 95.2%)、松果菊苷(批号111670-201907, 91.8%)、山柰酚(批号110861-202013, 93.2%)、汉黄芩素(批号111514-201706)、异鼠李素(批号110860-202012, 99.1%)、黄芩苷(批号110715-202122, 94.2%)、槐角苷(批号111695-201703, 99.6%)、牡荆苷(批号111687-202105, 99.1%)、染料木苷(批号111709-201702, 99.9%)、荭草苷(批号111777-202003, 98.0%) 购自中国食品药品检定研究院。高车前素(批号PS2161-0010, 98.0%)、鞭打绣球苷B (批号PS1881-0010, 98.0%) 购自成都普思生物科技股份有限公司。色谱级甲醇、乙腈、甲酸、甲酸铵(德国Merck公司), 水为超纯水, 其他试剂均为分析纯。
色谱条件  色谱柱为Waters ACQUITY UPLC HSS T3色谱柱(100 mm × 2.1 mm, 1.8 μm); 柱温40 ℃; 进样量1 μL; 流速0.3 mL·min-1; 流动相为乙腈(含0.1%甲酸) (A)-0.1%甲酸水溶液(B), 梯度洗脱: 0~3 min, 0%~14% A; 3~16 min, 14%~24% A; 16~20 min, 24%~40% A; 20~23 min, 40%~60% A; 23~26 min, 60%~90% A; 26~31 min, 90%~95% A。
质谱条件  采用ESI源, 正、负离子模式分别扫描; 鞘气流速: 60 arb; 辅助气流速: 20 arb; 喷雾电压: 4.5 kV (+)/4.0 kV (-); 吹扫气流速: 0 arb; 毛细管温度: 380 ℃; 毛细管电压: 35 V/-35 V; 管透镜电压: 100 V/ -100 V。扫描模式为一级质谱采用FTMS模式进行全扫描, 分辨率为30 000, 扫描范围m/z 100~1 500; 二级质谱采用与动态排除相结合的数据依赖性扫描, 动态排除功能设置参数: 重复次数2, 重复时间6 s, 排除列表范围500, 排除时间6 s。碰撞诱导解离设定归一化碰撞能量为35.0%。
对照品溶液的制备  取各对照品适量, 精密称定, 分别加甲醇溶解并定容至10 mL, 制成单一对照品储备液, 于4 ℃冰箱中避光保存, 备用。临用前取各对照品储备液适量并混合, 用甲醇稀释至各对照品浓度约为10 μg·mL-1的混合对照品溶液。
供试品溶液的制备  称取洪连粉末(过三号筛) 约1 g, 精密称定, 置具塞锥形瓶中, 精密加入甲醇20 mL, 称定质量, 超声处理(功率230 W, 频率35 kHz) 30 min, 再称定质量, 用甲醇补足减失的质量, 摇匀, 滤过, 取续滤液, 即得。
数据处理  为了便于对洪连中黄酮及苯乙醇苷类成分进行系统定性的分析, 本研究首先对已有对照品进行质谱分析, 总结出其色谱保留行为、裂解规律以及特征碎片离子等。再通过PubChem、SciFinder、Chemspider及CNKI等数据库和相关文献的检索对有关兔耳草属的黄酮及苯乙醇苷类成分信息进行收集汇总, 包括名称、分子式、结构式等。然后, 采用Xcalibur分析软件对一级质谱提供的精确准分子离子进行分析, 计算未知化合物的元素组成和可能的分子式, 再选择目标化合物的二级质谱碎片离子信息, 与对照品、数据库及文献报道提供的保留时间、裂解规律等信息进行比对, 进一步确认化学成分及结构, 并分析推导化合物的质谱裂解规律。
取洪连供试品溶液及混合对照品溶液适量, 按上述色谱条件和质谱条件分别进样分析, 得正、负离子模式下的总离子流图(total ion chromatograms, TIC), 见图 1。对洪连中黄酮类和苯乙醇苷类成分色谱峰进行提取和匹配, 结果共鉴定了167个化合物, 其中黄酮类成分84个, 苯乙醇苷类成分83个。
黄酮类成分在植物中大部分以游离或与糖结合成氧苷类或碳苷形式存在, 且一般链接1或2个糖基。氧苷类黄酮的糖苷常通过C-O键以苷元C-3或C-7的羟基作为糖基化位点, 而碳苷类黄酮的糖苷通常通过C-C键直接连接到苷元的C-6和C-8位置。在本研究中, 除了采用毛蕊异黄酮等13个黄酮类对照品进行分析和确认, 还同时使用了山柰酚、汉黄芩素、异鼠李素、黄芩苷、槐角苷、牡荆苷、染木料苷、荭草苷等黄酮类对照品, 虽然由于保留时间不匹配而被排除, 但是其在本研究所用液质联用上表现的裂解规律, 对于定性确认仍有一定参考意义。最终通过对照品裂解规律的研究, 结合兔耳草属已分离出化合物及相关质谱文献报道, 鉴定了84个黄酮类成分, 具体信息见表 1[4, 6, 13-22], 其中以黄酮苷类为主。
目前对黄酮类成分进行分析时采用正离子或负离子模式采集数据均有报道, 本研究分别采集了正离子及负离子模式, 发现某些黄酮类成分在负离子模式下裂解规律更具有特征性, 而某些黄酮类则在正离子模式情况下响应更好, 两种模式下裂解的碎片离子信息可以为结构鉴定提供更多依据并相互佐证。首先采用文献[23]中提取关键离子的方式, 确定可能的黄酮类成分, 其中的游离黄酮基本均由现成对照品确认其保留时间及一级质谱和二级质谱。而由于氧苷的结构特性, 发现本研究洪连中检出的氧苷黄酮与游离黄酮苷元在ESI源质谱上相同的碰撞能量下, 不论正离子或负离子模式, 氧苷黄酮中的基峰基本均为典型的脱掉整个糖基后的苷元碎片, 即明显的丢失146、162、176及190 Da的碎片离子, 对应的糖为脱氧己糖如鼠李糖(C6H10O4)、己糖(C6H10O5) 如葡萄糖和半乳糖、葡萄糖醛酸(C6H8O6) 及葡萄糖醛酸甲酯(C7H10O6) 等。
由于糖取代位置的差异, 产生的二级碎片离子会有一定的差异。特别是在负离子模式下, 当糖在C-3位取代时会与其他位置产生较为明显差别, 以木犀草苷和紫云英苷为例(图 2), 两者互为同分异构体, 区别在于两者糖取代分别位于C-3和C-7位, 在正离子模式下二级质谱中的碎片离子基本一致; 在负离子模式下, 紫云英苷的二级质谱中的碎片离子m/z 285明显小于m/z 284, 苷元碎片离子m/z 285先失去2个H又失去一分子CO后再生成m/z 255, 而木犀草苷的二级质谱中的碎片离子中基本仅可见m/z 285, 一般认为m/z 284和m/z 285是由脱去葡萄糖基的裂解方式差异造成的, 分别为均裂和异裂方式形成[24]。这一特征碎片离子可以作为判断是否为C-3取代的依据, 如化合物23、25、26、38、45和72等, 其他情况下各取代位置则不易判断。
就洪连中的氧苷黄酮来讲, 本研究发现的相关二糖苷29个, 此前仅有少数文献[4, 17, 25]报道了10个, 而无论是一糖苷或二糖苷, 己糖和葡萄糖醛酸都是其中最常见的糖种类, 含有葡萄糖醛酸甲酯的化合物仅有4个, 即化合物66、72、75和77, 且保留时间均较晚。含有脱氧己糖的情况通常存在于二糖苷中, 仅有宝藿苷I (化合物84) 是例外, 而该成分是首次从兔耳草属植物中发现。脱氧己糖通常需要己糖和葡萄糖醛酸组合搭配, 其与葡萄糖醛酸组合的二糖苷黄酮(化合物46、51、53和73), 为首次从兔耳草属植物中发现。己糖和葡萄糖醛酸可以各自组合搭配, 值得注意的是, 葡萄糖醛酸由于含有-COOH, 在负离子模式下响应较好, 在一糖苷二级质谱中经常出现[C6H8O6-H]- m/z 175的碎片离子, 而当两个葡萄糖醛酸相连时其二级质谱中则会出现[C12H16O12-H]- m/z 351的碎片离子, 且常为基峰, 可以作为该类型的特征碎片离子, 如化合物10、17、21、28和64。
本研究中发现的碳苷黄酮为兔耳草属植物中首次报道, 即化合物2~7、11、13和22共9个。其主要裂解规律与氧苷黄酮有显著差异, 主要为糖环内部的裂解, 以化合物6为例, 在正离子模式下, 准分子离子[M+H]+ m/z 595.163 51, 得到分子式为C27H30O15, 二级质谱中出现碎片离子[M+H-18]+ m/z 577、[M+H-36]+ m/z 559、[M+H-54]+ m/z 541、[M+H-72]+ m/z 523等, 推测有准分子离子连续丢失H2O (18) 产生。[M+H]+ m/z 595离子产生脱去120 Da (C4H8O4) 的碎片离子m/z 475, 推测为m/z 595发生己糖六元环的O-C1键和C2-C3键开环断裂形成, 碎片离子m/z 457由m/z 475脱水产生。碎片离子m/z 379, 推测为准分子离子m/z 595脱去糖上3H2O产生的碎片离子m/z 541又经苷元C环发生逆狄尔斯-阿德尔反应(RDA) 方式裂解反应断裂O-C8a键和C4-C4a键形成。在负离子模式下, 准分子离子[M-H]- m/z 593.150 57, 与正离子模式得到分子式相互验证, 双糖环裂解产生脱去90 Da (C3H6O3)、120 Da (C4H8O4), 以及连续脱去90和120 Da的碎片离子。由此可确认该化合物为二糖碳苷黄酮类, 经与参考文献[21, 22]比对, 推断其为apigenin-6, 8-di-C-hexoside, 其正、负离子模式二级质谱及裂解途径见图 3图 4
苯乙醇苷是一类含有C6-C3芳香核片段的天然糖苷类化合物, 通常以β-葡萄糖为母核, 与α-羟基苯乙基苷化或同时再与苯丙烯酸酯化, 广泛存在于药用植物中, 由于大部分化合物糖上都连有咖啡酰基或阿魏酰基, 所以又被称为苯丙素苷化合物。这类化合物的结构具有以下共同特征: 作为苷元的取代苯乙基连在核心β-D-吡喃葡萄糖的1-位, 取代苯丙烯酰基通常是反式结构, 连接于核心葡萄糖的2, 4, 6-位, 而糖核的2, 3, 4, 6-位还常连接葡萄糖、半乳糖、木糖、呋喃阿拉伯糖、呋喃芹菜糖和鼠李糖等单糖或二糖, 由糖核上连接的糖种类、位置和支链顺序的差异, 以及苯丙烯酰基和苯乙基上取代基团的差异, 造成了苯乙醇苷化合物结构的多样性。
本研究同样通过正离子及负离子模式的数据信息对苯乙醇苷类成分进行结构鉴定, 最终通过对照品裂解规律的研究, 结合兔耳草属已分离出成分及相关质谱文献报道, 鉴定了83个苯乙醇苷类成分, 具体信息见表 2[13, 14, 16, 26-31]。根据以往文献[26, 30]报道, 苯乙醇苷类主要分为两类, 主要区别为苯乙醇基β位有无取代基, 当苯乙醇基β位上有取代基时裂解规律会有一定差异, 本研究发现洪连中的苯乙醇苷类绝大多数是苯乙醇基β位上无取代的。由于质谱的局限性, 糖苷键、乙酰基的准确位置及糖、双键的构型暂时难以确定, 但基本可以确定苯乙醇苷的基团类型和结构。
在负离子模式下, β位上无取代的苯乙醇苷的准分子离子基本均为[M-H]-, 同时通常伴随着响应明显更低的[M+Cl]-, 化合物整体响应较高时[M+COOH]-也经常能检出。二级质谱的裂解规律非常相似, 多表现为连续的中性丢失18 Da (H2O) 的碎片离子; 苯丙素部分的基团也极易丢失, 对应176 Da的阿魏酰基(C10H8O3)、162 Da的咖啡酰基(caff, C9H6O3) 和146 Da的香豆酰基(C9H6O2) 等; 糖基部分丢失掉132、146和162 Da的中性碎片离子, 对应的糖为戊糖(C5H8O4) 如阿拉伯糖、芹菜糖和木糖等、脱氧己糖如鼠李糖(C6H10O4) 和己糖如葡萄糖(C6H10O5) 等; 另外如有乙酰基(C2H2O, 42 Da) 也极易丢失。
以松果菊苷、大车前苷和鞭打绣球苷B为例, 松果菊苷的准分子离子[M-H]- m/z 785.248 96, 得到分子式为C35H46O20, 二级质谱中主要碎片离子为[M-H-H2O]- m/z 767、[M-H-rha]- m/z 639、[M-H-caff]- m/z 623、[M-H-caff-H2O]- m/z 605、[M-H-caff-rha]- m/z 477、[M-H-caff-glc]- m/z 461、[M-H-caff-glc-H2O]- m/z 443、[M-H-caff-glc-rha]- m/z 315, 见图 5
类似地, 大车前苷的准分子离子[M-H]- m/z 639.191 10, 得到分子式为C29H36O16, 二级质谱中主要碎片离子为[M-H-caff]- m/z 477、[M-H-Caff-H2O]- m/z 459、[M-H-caff-glc]- m/z 315、[M-H-caff-glc-H2O]- m/z 297、[caff]- m/z 179。
鞭打绣球苷B的准分子离子[M-H]- m/z 681.201 90, 与大车前苷的主要差异为多了一个乙酰基, 因此二级质谱中产生的主要碎片离子为[M-H-acetyl]- m/z 639、[M-H-acetyl-H2O]- m/z 621、[M-H-caff]- m/z 519、[M-H-acetyl-caff]- m/z 477、[M-H-acetyl-caff-H2O]- m/z 459、[M-H-acetyl-caff-glc]- m/z 315等的差异也体现在乙酰基的丢失上。通过对上述对照品的解析发现, [M-H-caff]-多为负离子模式下的基峰, 由此推断, 当取代基由咖啡酰基变换为阿魏酰基或香豆酰基时, 相应的丢失176或146 Da后的碎片离子也应为其基峰, 可以作为苯乙醇苷类成分在负离子模式下重要的特征碎片离子, 如化合物14、20、32、48、49、和78~83中, 即为阿魏酰基取代, 而香豆酰基取代相对其他两种取代方式在洪连中也属少见, 仅有2个为化合物65和68, 而本研究中所检出的83个苯乙醇苷类成分中, 含有咖啡酰基取代的近48个, 占半数以上。另外还有不同糖基的取代, 如化合物2、11、14、17、25~27、35、38、46、48、53、70和79等中, 存在阿拉伯糖、芹菜糖和木糖取代。
在正离子模式下, 本研究中苯乙醇苷类化合物的准分子离子多为[M+NH4]+, 同时可以见到明显的[M+Na]+, 而[M+H]+一般响应较低, 需将图谱放大数倍才可看到, 且经常无法获取其二级质谱。正离子与负离子模式的情况相似的是, 苯乙醇苷在脱去NH4+后的二级碎片离子裂解规律表现仍然为连续的中性丢失18 Da (H2O) 的碎片离子, 糖基部分丢失掉132 (C5H8O4)、146 (C6H10O4) 和162 (C6H10O5) Da的中性碎片离子等, 但与负离子模式相比最重要的差异为不会轻易丢失咖啡酰基、阿魏酰基或香豆酰基取代部分, 而会产生丢失苯乙醇基(phenyl ethanol, phe) 取代部分的碎片离子, 这一部分的碎片离子丢失通常也可以反映其苯环上取代基的变化: 在大多数情况下其苯环上通常为2个-OH取代, 对应丢失154 Da (C8H10O3) 的碎片离子, 如松果菊苷、大车前苷和鞭打绣球苷B等; 有一小部分化合物的苯乙醇基苯环上为1个-OH和1个-OCH3取代, 对应丢失168 Da (C9H12O3) 的碎片离子, 如化合物40、62、63、69~71、74~76、78~83等; 还有少见的个别情况为苯乙醇基苯环上无取代基(化合物83) 或只有1个-OH (化合物79) 或2个-OCH3 (化合物51), 对应丢失的碎片离子分别为122 (C8H10O)、138 (C8H10O2) 和182 (C10H14O3) Da。
同样以松果菊苷、大车前苷和鞭打绣球苷B为例, 松果菊苷的准分子离子[M+NH4]+ m/z 804.289 98, 得到分子式与负离子模式一致, 二级质谱中主要碎片离子为[M+H-Rha]+ m/z 641、[M+H-Phe]+ m/z 633、[M+H-glc]+ m/z 625、[M+H-glc-H2O]+ m/z 607、[M+H-phe-rha]+ m/z 487、[M+H-glc-rha]+ m/z 479、[M+H-phe-glc]+ m/z 471, [M+H-phe-glc-rha]+ m/z 325, 见图 6
类似地, 大车前苷的准分子离子[+NH4]+ m/z 658.232 42, 得到分子式与负离子模式一致, 二级质谱中主要碎片离子为[M+H-phe]+ m/z 487、[M+H-glc]+ m/z 479、[M+H-glc-H2O]+ m/z 461、[M+H-glc-2H2O]+ m/z 443和[M+H-phe-glc]+ m/z 325。
鞭打绣球苷B的准分子离子[M+NH4]+给出m/z 700.242 31, 得到分子式与负离子模式一致, 与大车前苷的差异同样体现在乙酰基的丢失上, 二级质谱中主要碎片离子为[M+H-H2O]+ m/z 665、[M+H-2H2O]+ m/z 647、[M+H-phe]+ m/z 529、[M+H-phe-H2O]+ m/z 511、[M+H-glc-acetyl]+ m/z 479、[M+H-phe-glc]+ m/z 367、[M+H-phe-glc-acetyl]+ m/z 325、[M+H-phe-glc-acetyl-H2O]+ m/z 307。较为特别的是, 在鞭打绣球苷B结构中, 乙酰基本身连接在支链葡萄糖而非核心β-D-吡喃葡萄糖上, 但在正离子模式下有时会出现乙酰基并未随支链葡萄糖一起丢失的碎片离子, 即碎片离子367, 有可能是该类化合物在裂解过程中发生了重排。
在正离子模式下的碎片离子m/z 325、339和309的存在可以分别佐证结构中存在咖啡酰基、阿魏酰基和香豆酰基, 且常为基峰, 对于碎片离子m/z 367和381则分别为咖啡酰基取代和阿魏酰基取代时化合物结构中存在乙酰基的碎片离子, 同时也可以作为苯乙醇苷中存在乙酰基的特征碎片。
根据前述裂解规律, 本研究首次在兔耳草属中发现四糖苯乙醇苷, 即化合物1、2、4、5、7、8、11、12、14、15、17、20、21、28和30共15个, 目前已有报道的四糖苯乙醇苷仅有十余个[32, 33], 因此这些四糖苯乙醇苷为新化合物的可能性极大。
对于另一类苯乙醇基β位有取代基的苯乙醇苷化合物, 经与参考文献[26, 30]比对, 本研究在洪连中共检出8个, 其取代基大多为-OH, 如化合物3、10、13、18、23、24和42等, 仅有化合物36为-OCH3取代, 其中化合物3、10、13、23和24为首次在兔耳草属中发现。在负离子模式下, 其基峰大多为丢失β位的-OH或-OCH3后的碎片离子, 同时会产生丢失苯乙醇基部分的碎片, 对应丢失的碎片质量数为134 (C8H6O2) 和152 (C8H8O3) Da, 这是与β位无取代基类苯乙醇苷化合物的主要差异; 同样地, 也会产生丢失咖啡酰基和H2O后的碎片离子。而在正离子模式下, 与β位无取代基类苯乙醇苷化合物裂解规律类似, 首先准分子离子仍为[M+NH4]+, 脱去NH4+后的丢失H2O、糖基部分和苯乙醇基取代部分的碎片离子, 也会产生特征碎片离子325等。
我国是世界上民族医药文化及相关药用资源最为丰富的国家, 藏医药即是民族医药中最重要的代表之一, 具有独特完整的医药理论体系, 在藏区的医疗体系中发挥着重要且不可代替的作用, 发展藏药的科技和产业对于藏区的社会、经济、文化和生态的全面发展具有重要意义。然而, 由于藏药的地理环境及市场流通的特殊性, 不同藏区使用的药材品种和基源常具有地域性和局限性的特点, 容易造成“一药多名”“一药多物”“地方习用品或代用品多”等情况, 加之相关资源学、药理学、化学等基础研究相对滞后, 严重影响了藏药的合理开发和现代化发展。因此, 对藏药进行深入系统的研究是非常有必要的。
本课题组以藏药洪连为例, 前期深入青海、四川、西藏藏区医院进行走访考察, 调查洪连在藏医中的实际使用情况, 又以实地调研和走访调查相结合的方法, 确定其药用资源分布情况, 并收集到多批次且有代表性的样品。由于发现目前市售及临床使用的洪连为兔耳草属的多种植物, 不同基原植物的化学成分或多或少会存在一定差异, 因此首先选择了药典收载基原品种, 采用UHPLC-LTQ-orbitrap-MS技术, 以正、负离子模式分别采集分析相互验证补充的方式, 针对其中黄酮和苯乙醇苷类成分进行了鉴定分析, 为确定兔耳草属不同植物的药效物质及作用机制研究提供数据基础。目前兔耳草属植物中已有报道的黄酮类成分30余个, 苯乙醇苷类成分20余个, 本研究极大地丰富了洪连及兔耳草属植物中黄酮和苯乙醇苷类成分的数量和种类, 特别是首次从兔耳草属植物中发现碳苷黄酮和四糖苯乙醇苷等新类型的化合物, 为进一步整体提升藏药洪连的质量控制水平和规范相关基原品种的临床应用提供科学依据。另外, 针对洪连中其他重要的化学成分如环烯醚萜类等, 本课题组同步开展了相关研究, 具体情况将另文报道。
作者贡献: 耿昭、高必兴、钟恋、齐景梁进行了本文方法建立、数据处理、文章撰写及对返修意见进行修改等; 苟琰、蒋运斌、杨蕾对实验思路、方法建立、数据处理及文章修改进行专业的指导; 袁军、郭力、王一涛主要进行本文的选题与设计、实验思路、方法建立的指导及文章修改。
利益冲突: 所有作者均声明不存在利益冲突。
  • 国家药品监督管理局注册司专项“特色民族药材检验方法研究”三期
  • 四川省药品监督管理局科研计划项目
  • 重庆市自然科学基金面上项目(cstc2020jcyj-msxmX0146)
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2022年第57卷第9期
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doi: 10.16438/j.0513-4870.2022-0504
  • 接收时间:2022-04-27
  • 首发时间:2025-12-24
  • 出版时间:2022-09-12
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  • 收稿日期:2022-04-27
  • 修回日期:2022-06-22
基金
国家药品监督管理局注册司专项“特色民族药材检验方法研究”三期
四川省药品监督管理局科研计划项目
重庆市自然科学基金面上项目(cstc2020jcyj-msxmX0146)
作者信息
    1.四川省药品检验研究院/国家药品监督管理局中成药质量评价重点实验室, 四川 成都 611731
    2.成都中医药大学药学院, 四川 成都 611137
    3.澳门大学中华医药研究院中药质量研究国家重点实验室, 澳门 999078
    4.西南大学药学院·中医药学院, 重庆 400715

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蒋运斌, Tel: 13368082556, E-mail:
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2种不同金属材料的力学参数

Family
属数
Number of
genus
种数
Number of
species
占总种数比例
Percentage of
total species (%)

Genus
种数
Number of
species
占总种数比例
Percentage of total
species (%)
鹅膏菌科Amanitaceae 2 11 5.26 鹅膏菌属 Amanita 10 4.78
小菇科 Mycenaceae 2 12 5.74 丝盖伞属 Inocybe 5 2.39
多孔菌科 Polyporaceae 8 14 6.70 蜡蘑属 Laccaria 5 2.39
红菇科 Russulaceae 3 23 11.00 小皮伞属 Marasmius 6 2.87
小菇属 Mycena 11 5.26
光柄菇属 Pluteus 5 2.39
红菇属 Russula 17 8.13
栓菌属 Trametes 5 2.39
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