中国绢蒿属(Seriphidium)植物系统分类学研究
详细信息    本馆镜像全文|  推荐本文 |  |   获取CNKI官网全文
摘要
绢蒿属(Seriphidium)隶属于菊科(Compositae)春黄菊族(Tribe Anthemideae),全世界约有130余种,主要分布于北温带的亚欧大陆、北美和北非。中国植物志第76卷第1分册记载,我国有31种3变种,归为三组,即Sect. Juncea,Sect. Seriphidium,Sect. Minchünensa,主要分布于中亚及我国西北干旱地区、北美洲西部、中东、非洲北部。绢蒿属植物不仅有较高的药用、饲用和生态价值,而且部分种类是西北干旱草原的建群种和优势种,具有很大的开发潜力。
     自从Poljakov于1961年从Artemisia划分出来之后,仅有林有润对其进行过一些系统学方面的研究。目前,对该属的系统划分,异议颇多,故我们从解剖学、果实纹饰、孢粉学、核型等角度出发,对其做了较为系统的研究和探讨,分述如下:
     1.对绢蒿属及其10属外类群植物的主要植物分类学性状进行了比较。结果显示,绢蒿属植物的主要分类学性与蒿属最为接近,说明二者具有较近的亲缘关系,但二者的两性花截然不同,说明二者已经演化成区别明显的两个类群;与其它9属外类群植物相比的区别明显,故将绢蒿属作为一个属的分类学处理是恰当的。基于叶表皮、气孔等特征,对绢蒿属的演化进行了探讨,并认为将东北蛔蒿(S. finitum)从绢蒿系中划出,另立东北蛔蒿系是恰当的。
     2.运用光镜和电子扫描显微镜对绢蒿属及其若干外类群的果实微形态特征进行了研究,结果显示,绢蒿属及其外类群植物的种子微形态特征表现出丰富的多样性,果实微形态特征,特别是果实的纹饰类型,具有明显的属级水平上差异;研究结果为目前存在较大争议的几个单种属或寡种属提供了果实微形态特征方面的新证据,填补了该方面的研究空白,支持它们(如紊蒿属、栉叶蒿属、茼蒿属)作为属的分类学处理;绢蒿属与其外类群在果实微形态特征(特别是果实纹饰)区别明显,作者认为绢蒿属作为属的分类分类学处理是合理的。绢蒿属果实的微形态特征与蒿属相比最为接近,说明二者亲缘关系较其它外类群属近。
     3.运用光镜和电子扫描显微镜对绢蒿属植物花粉形态特征进行了系统性的研究,其中扫描电镜资料为首次报道。结果表明:种绢蒿属植物花粉的立体形状为长球形、球形或近球形,赤道面观为圆形或椭圆形,极面观为三裂片圆形;花粉粒较小,极轴(P)长22.52(16.23 ~ 27.18)μm,赤道轴(E)长17.22(15.51 ~ 23.13)μm,P/E平均值为1.31;具三孔沟,孔沟长达极区,不弯曲,沟的末端在极面上不连接形成合沟(存疑种除外);外壁2层,外层厚于或近等厚内层;花粉外壁纹饰在光学显微镜下粗糙状,在扫描电子显微镜下以刺状-颗粒状复合纹饰为主。对花粉形态特征的分类学意义进行了探讨。
     4.对13种中国绢蒿属植物进行了核型研究,结果显示,13种植物种的染色体均具有9基数的二倍体核型特征,除草原绢蒿(S. schrenkianum)和伊犁绢蒿(S. transiliense)为2n=36外,其余11种均为2n=18。从核型上可将13种绢蒿属植物分为2A和2B两种类型。其中只有草原绢蒿和伊犁绢蒿为2B,其余为2A。染色体随体的数量和位置在种间存在一定差异。按照Stebbins核型对称性原则,13种绢蒿属植物由对称向不对称方向演化的大体方向是:三裂叶绢蒿→伊犁绢蒿→伊塞克绢蒿→草原绢蒿→新疆绢蒿→沙湾绢蒿→蛔蒿→民勤绢蒿→针裂叶绢蒿→沙漠绢蒿→纤细绢蒿→小针裂叶绢蒿→白茎绢蒿。结果支持三裂叶绢蒿为最原始种的分类学处理,伊犁绢蒿绢蒿系的系统位置应调置草原绢蒿之前,其它种的系统位置保持不变。13种植物的核型研究均为首次报道,填补了关于中国绢蒿属植物研究的一项空白。
     5.通过广泛的查对标本、长时间的野外实地考察以及室内解剖实验,测量和记录了植物种的基本信息。确定我国现分布有31种,5变种,其中不含存疑种。
     6.对中国绢蒿属现实生物地理分布、历史地理及植物区系地理以及分布式样等方面进行了描述和探讨,得出以下结论:绢蒿属在我国分布具有很强的地域性,新疆北疆分布最多,为现代分布中心之一;根据古植物化石与孢粉研究资料证明,绢蒿属的起源中心与蒿属相同,可能在在乌拉尔山附近亚北极地区或稍靠南区域的中生或稍干旱森林或荒漠草原环境。绢蒿属自从祖先种中分化出来之后,自起源中心向东、西、南三个方向迁移,迁移和进化的主要动力为地质变迁和第三、第四纪冰期的胁迫;绢蒿属在我国分布式样基本呈“三带”分布,即阿尔泰山一线的阿勒泰-克拉玛依一带、天山一线的伊宁-乌鲁木齐-哈密一带、昆仑山一线的喀什-阿克苏-和田一带;种间替代比较明显;演化路径纵向由北向南,横向由西向东推进;世界绢蒿属植物区系地理分为3个大区,我国绢蒿属占2大区,4亚区。
The genus Seriphidium, belonging to the tribe Anthemidae of Composite, there are more than 130 species distributed in Asia-Europe continent, North America and North Africa of temperate to boreal regions of the North Hemisphere. About 31 species, 3 varieties according to the record of Flora Reipublicae Popularis Sinicae in vol 76, No.1 which were classified into 3 Sect, namely, Sect. Juncea, Sect. Seriphidium, Sect. Minchünensa. They distributed mainly northwest arid of China, west areas of North America, the Middle East and North Africa. Seriphidium have important value in medicinal, fodder and ecology, moreover, some possess important affect on population regulation in northwest arid prairie, having immense potentialities in developing.
     From Seriphidium divided from Artemisia by Polkakov in 1961, only Lin yourun contributed to it in taxonomy. Even so, there still various problems needed to further research. We have put emphasis mainly on anatomy, micro-characteristic of fruit, sporopollen, etc. to study, and the major achievement obtained as follow:
     1. Comparative on main characteristics of systematic botany between Seriphidium and its 10 genus allies.The results show that Seriphidium and Artemisia have the near genetic relationship comparatively, but their monoclinic are entirely different, which illustrate clearly that Seriphidium and Artemisia is two different plant categories; possess the different characteristics obviously between Seriphidium and its 9 genus allies. As a separate unit of genus for Seriphidium are reasonable. Base on the results above, we also discussed the evolution of Seriphidium, and we put forward a proposal to establish the Ser. finitum.
     2. The micro-characteristics of fruit were studied under LM and SEM. The results that the micro-characteristics of fruit from Seriphidium and its allies show rich variety, especially on the ornamentation of fruits between genuses; the consequence have produce new proof for controversy genus, such as Elachanthemum, Neopallasia, Chrysanthemum, to as a independently unit of genus; there have distinct distinguish between Seriphidium and its allies in micro-characteristics of fruit, consequently we hold Seriphidium as a genus is reasonable. Resembled in micro-characteristics of fruit between Seriphidium and Artemisia reflect their genetic relationship.
     3. Pollen morphology of taxa of the genus Seriphidium, distributed in China, was studied with LM and SEM. The results show that the shape of pollen grains are prolate, spheroidal or subspheroidal in equatorial view, and three-lobed in polar view; the size of pollen grains was 22.52(16.23 ~ 27.18)μm in the polar axis and 17.22(15.51 ~ 23.13)μm in the longest equatorial, the average of P/E is 1.31; the apertures are three-colporate, which extended to polar area and no converged (except the un-identified species); exine is composed with two layers under LM and the outer lawyer often thicker than the inner; the ornamentation of the exine is coarse under LM and is spinule-granular. The systematic significance of pollen morphology is discussed in the end.
     4. The karyotype analysis of 13 species from Seriphidium, distributed in China, were studied, and the results show all 13 species have diploid characteristic of karyotype and the cardinal number is 9, exception S. schrenkianum and S. transiliense (2n=36), other 11 specie were 2n=18. The type of karyotype can be divided 2A and2B (only S. schrenkianum and S. transiliense). The number and position of SAT are different between species to some extent. According to the principle of symmetrical characteristic by Stebbins, the orientation of evolution of 13 species, from symmetry to dissymmetric, is : S. junceum, S. transiliense, S. issykkulense, S. schrenkianum, S. kaschgaricum, S. sawanense, S. cinum, Seriphidiun minchünense, S. sublessingianum, S. santolinum, S. gracilescens, S. amoenum, S. terrae-albe. Stand by regarding S. junceum as the most original species in Seriphidium; proposal reverses the position of S. transiliense and S. schrenkianum. The karyotype analysis of 13 species is report first time.
     5. By check a large number of specimen, field work and indoor experiment, we have record much information. Base on it, we fix 31 species, 5 varieties distributed in China.
     6. Discussed the distribution present in China, Flora, the pattern of distribution, etc. Conclusion: the distribution of Seriphidium in China has obvious feature of region, Xinjiang province is the center of contemporary distribution; the available fossil record and sporopollen prove that Seriphidium and Artemisia have the identical origin place which may be located desert steppe or arid forestry of Wulaer Mt. in sub arctic; from divided from its ancestor, Seriphidium plants have three migration from the origin center, namely, east, west and south, the motive power of migration is the gradual changes of geology and stress of glacial epoch; the pattern of distribution in China present“three-band”, that is Aletai-Kelamayi nearby Aertai Mt.; Yining-wulumuqi-Hami nearby Tian Mt.; Keshi-Akesu-Hetian nearby Kunlun Mt.. The substitution between species in different region is obvious; the route of migration is from north to south in vertical, and from west to east in lateral. The flora of Seriphidium in China can be divided two districts, including five sub districts.
引文
[1] Poljakov. Trudy[M]. Inst. Bot. Akad. Nauk. Kazakhsk. SSR,1961,11:172.
    [2] Ryakhovskaya T V, Alyukina L S. Flavonoidnaya kharakteristika nekotorykh polynei podroda Seriphidium (Bess.) Rouy Izv. Akad[J]. Nauk. Kaz. SSR, Biol. 1980,4: 7-11.
    [3] Ling_Y R .Taxa nova generum Artemisiae et Seriphidii Xizangensis[J].Acta Phytotax. Sin. 1980,18(4): 504 -513.
    [4] 林有润.论蒿属的演化系统兼论蒿属与邻近属的亲缘关系[J].植物研究,1982,2(2):1-60.
    [5] 刘媖心.中国沙漠植物志(第三卷)[M].北京:科学出版社,1992:220-221.
    [6] Ling Yeou-ruenn. The old world Seriphidium (Bess) Poljak. (Compositae)[J]. Bull Bot Res, 1991, 11(4): 1-40.
    [7] Ling Yeou-ruenn.The new world Seriphidium (Bess.) Poljak.[J].Royal Botanic Gardens, 1995, 1:283-291.
    [9] Poljakov P. Material and Systematic of the Artemisia L.[J].Trudy Inst Bot Alma-Ata, 1961, 11:134-177.
    [10] Torrey J & Gray A. Aflora of north America,Wiley & Putnam[J],New York Londom Paris, 1986,2:415-424.
    [11] Grubov V L. Key to the Vasccular Plants of Mongolia[M]. Leningro: Sciences Branch Press,1982.
    [12] Besser W. Monographie des Artemisia.[J].BUll. Sco. Imp. Nat. Mosc.,1829,1(8):219-265.
    [13] Besser W. Tentamen de Abrotanis seu de sectionⅢ-a. Artemisiarum Linnaei,Dissertation[J]. Bull. Soc. Nat. Mosc.,1834,7:5-46.
    [14] Besser W. Supplementum ad Synopsin Absynthiorum[J]. Bull. Coc. Nat. Mosc.,1836,9:1-115.
    [15] Hall H M,Clements F E. The Phylogentic method in taxonomy-the north americian species of Artemisia[M]. Mosc:Chrysanthemum and Atriplex,1923.
    [16] Кращнинников. И. М., Опыт филогенетического анализанеко торнхевразиатскихгрупп рора Artemisia Linn.[M].Мат. Ист. растит. СССР Ⅱ . изд. АН СССЗ.,1946.
    [17] Sonia G,Maria S,Teresa G,et al. Variation of DNA amount in 47 populations of the subtribe Artemisiinae and related taxa(Asteraceae,Anthemideae):karyological,ecological,and systematic implications[J]. Proquest Biology Journals,2004,47(6):1004-1014.
    [18] 林有润.西藏蒿属与绢蒿属的新分类群[J].植物分类学报,1980,18(4):504-513.
    [19] Lin Y R. A review of the classification,distrubition and application of Artemisia L. and Seriphidium (Bess.) Poljak. (Compositae) in China[J]. Guihaia,11(1):19-35.
    [20] LingY R. Chemotaxonomy of Artemisia L. (Compositae)[J]. Newsletter, 1992,22:18-23.
    [21] Ling Yeou-ruenn. The old world Seriphidium (Bess.) Poljak. (Compositae)[J]. Bull. Bot. Res.1991,11(4):1-36.
    [22] 林有润. 中国绢蒿属新种[J]. 植物研究,1990,10(1):49-51.
    [23] Lin Y R. A new species of genus Seriphidium (Bess.) Poljak. from China[J]. Bull. Bot. Res.,1985,5(3):159-161..
    [24] 林有润.中国菊科植物的系统分类与区系的初步研究[J].植物研究,1997,17(1):6-27.
    [25] 蒋 林,林有润.蒿属与邻近属的谱系分支分析[J].植物研究,1992,12(4):399-406.
    [26] 林有润.中国植物志(第 76 卷第 2 分册)[M].北京:科学出版社,1991.
    [27] 林有润,Humphries C J,Leila Shultz. 中国植物志(第 20 卷)(英文版)[M].北京科学出版社和美国密苏里植物园出版社(圣特路易斯),特刊.
    [28] 安争夕.新疆植物志(第 5 卷)[M].乌鲁木齐:新疆科技卫生出版社,1999,189 -209.
    [29] 陈松波,张金谈.中国春黄菊族一些属的花粉形态研究[M].植物分类学报,29(3):246-251.
    [30] 司马义·巴拉提.伊犁绢蒿解剖特征的初步研究[J].干旱区研究,1990,3:58-60.
    [31] 滑 艳,何 荔,汪汉卿.白净绢蒿化学成分的研究[J].天然产物研究与开发,203,15(3):219-221.
    [32] 邓艳如,丁 兰,李维琪,等.沙漠绢蒿挥发油化学成分分析[J].天然产物研究与开发,2003,15(4):313-315.
    [33] 邓艳如,宋爱新,武水仙,等.沙漠绢蒿三萜和酚类化合物的研究[J].天然产物研究与开发, 2004,16(4):314-316.
    [34] 马雁鸣,阿布力米提·伊力,廖立新,等.GC-M S 分析伊犁绢蒿挥发油化学成分[J].西北植物学报,2005,25(5):1039-1041.
    [35] 中国药材公司. 中国中药资源志要[M].北京:科学出版社,1994.
    [36] 林有润.中国绢蒿属植物的系统分类、分布、和主要经济用途[M].植物研究. 1988,8(3):111-123.
    [37] 郭选政,杨 刚,于震田等.蒿类半灌木植物在草地中的地位及饲用评价[J].草业科学,1998,15(4):3-9.
    [38] 冯 缨,潘伯荣.新疆蒿类半灌木牧草资源分布及其饲用价值[J].干旱区资源与环境,2007,21(3):158-162.
    [39] 郭 柯,郑 度.西昆仑、西喀喇昆仑和西北喜马拉雅山地区植物的地域分异及指示意义[J].植物生态学报. 2002,26(11):192-196.
    [40] 高远辉.硫酸钠胁迫对四种抗盐性不同牧草膜脂过氧化和活性氧清除系统的影响[J].植物生态学报,2002,26(11):17-22.
    [41] 朱进总,吴咏梅.伊犁绢蒿荒漠不同退化阶段草地经济性状演变的分析[J].草业学报.2005,22(10):1-6.
    [42] 李振武,许鹏.天上北坡低山带春秋场优势牧草的再生性能[J].中国草地,1993,5:18-24.
    [43] 张连义,杨世忠,阿布都热依木·哈地尔,等.伊犁绢蒿种子吸水保水性研究[J].植物学报, 1998,40(8):775-777.
    [44] 阿衣古丽·阿不都瓦依提,吐尔逊娜依,哈丽旦,等.伊犁绢蒿种子天然种衣与水分关系的初步研究[J].干旱区研究,2001,17(4):53-56.
    [45] 张新英,Napp-Zinn K,Hangst K.中国春黄菊族植物叶表皮结构的研究[J].植物学报,1989,31(5):325-332.
    [46] 蒋林,林有润.中国蒿属植物比较形态和解剖学研究(Ⅰ)叶表皮结构[J].植物研究,1993,13(4):353-369.
    [47] 王凌诗,邢淑清,张贵一.中国东北蒿属叶表皮特征研究Ⅰ-龙蒿组的研究[J].哈尔滨师范大学学报,1994,10(2):90-97.
    [48] 牛忠磊,贺学礼,孙会忠.中国菊科绢蒿属植物叶表皮特征观察.西北植物学报,2006,26(12):2417-2422.
    [49] E. G 卡特著,李正理等译.种子植物解剖学(上册)[M].北京:科学出版社,1986.
    [50] K. 伊稍著,李正理等译.种子植物解剖学[M].北京:科学出版社,1986.
    [51] 宋玉霞,郭生虎,马洪爱.贺兰山 15 种旱生灌木叶表皮扫描电镜观察[M].西北植物学报,2003,23(7):1283-1287.
    [52] 林有润.论世界蒿属植物区系[J].植物研究,1995,15(1):1-37.
    [53] Metcalfe C R. Anatomy of the dicotylcdons[M]. Oxford:Oxford Science Publications,1987.
    [54] 宋玉霞,于卫平,王立英,等.贺兰山 10 不同植物的旱生结构研究[J].西北植物学报.1997,17(5):61-68.
    [55] 陆静梅,李建东,景德章.星星草解剖研究[J].东北师范大学学报(自然科学版),1994,26(1):63-66.
    [56] 潘晓玲,党荣理,伍光和.西北干旱地区荒漠植物区系地理与资源利用[J].北京:科学出版社,2001.
    [57] 马 骥,李新荣,张景光,等.我国种子微形态结构研究进展[J].浙江师范大学学报,2005,28(2):121.
    [58] Barthlott W. Epidermal and seed surface character of plants:systematic applicability and some evolutionary aspect[J]. Nordic. J. Bot. 1981,1:345.
    [59] Vosa C G. Notes on Tulbaghia:5.Scanning electron microscopy of seed coat patterns in nineteen species[J]. J. South. African. Bot,1983,49:251.
    [60] Barthlott W,Volt G. Epidermal and seed surface characters of plants:Systematic applicability and some evolutionary aspects[J].Nord J Bo,1981,1(3):245-355.
    [61] Gunn C R. Seed Topography in Fagaceae[J]. Seed Sci &Technol,1981(9):737-757.
    [62] Chuang T I,Heckard L R. Seed coat morphology in Cordylanthus (Scrophulariaceae) and its taxonomic significance[J]. Amer J Bot,1972,59(2):258-265.
    [63] Crow G E. The Systematic Significance of Seed Morphological in Sagina (Caryophyllaceae) under SEM[J]. Brittonta,1979,31(1):52-63.
    [64] Maroder H,Prego I,Maldonado S. Histochemical and Ultrastructural Studies on Salix able and S.matsudana Seeds[J].Trees:Structure and Function,2003,17(3):193-199.
    [65] Xu F X. Sclerotesta Morphology and its Systematic Implications in Magnoliaceous Seeds[J]. Botanical Journa1 of the Linnean Societv,2003,142(4):407-424.
    [66] Zeng C L,Wang J B,Liu A H,et al. Seed coat microsculpturing changes during seed development in diploid and amphidipioid Brassic species[J]. Annals of Botany,2004,93(5):555-566.
    [67] Maroder H,Prego I,Maldonado S. Histochemical and Ultrastructural Studies on Salix able and S.matsudana Seeds[J].Trees:Structure and Function,2003,17(3):193-199.
    [68] 马 骥,李俊祯,晁 志,等. 64种荒漠植物种子微形态的研究[J].浙江师范大学学报,2003,26(2):109-115.
    [69] 蒲高忠,刘启新.滇芎属与瘤果芹属果实表面微形态特征及其分类学意义[J].植物资源与环境学报,2006,15(3):1-6.
    [70] 赵佐成,周明德,罗定泽,等.中国荞麦属果实形态特征[J].植物分类学报,2000,38(5):486-489.
    [71] 中国科学院植物研究所植物组种子组、形态学比较形态组.杂草种子图说[M].北京:科学出版社,1980,200-226,331 - 341.
    [72] 孙成仁.五味子属植物种子形态特征及其分类学意义[J].云南植物研究,2006,28(4):383-393.
    [73] 马 骥,李新荣,李俊祯,等.西北荒漠区 6 种珍稀濒危植物的种子微形态特征[J].中国沙漠,2005,25(3):275-280.
    [74] 马 骥,李俊祯,孔 红.我国沙区 6 种蒿属植物的种子微形态特征[J].中国沙漠,2002,22(6):586-590.
    [75] 李雪华,刘志民,蒋德明,等.七种蒿属植物种子重量形状及萌发特性的比较研究[J].生态学杂志,2004,23(5):57-60.
    [76] 朱宗元,梁存柱,王 伟,等.紊蒿属一新种和对该属分类及其演化的讨论[J].植物研究,2003,23(2):147-155.
    [77] Grubov V L. Key to the vascular plants of in desert of Mongolia[M]. Leningro:Science Branch Press,1982.
    [78] Grubov V L. Florae reipubicae Mongoliae species endemicae[M]. Nov. Sys. Pl. Vascaul,1984.
    [79] 汪劲武,杨 继,李懋学.国产五种菊属植物的核型研究[J].云南植物研究,1991,13(4):411.
    [80] 鲁秀兰,鲁 军.东北地区菊属花粉比较形态学扫描电镜观察[J].东北林业大学学报,1999,27(3):83.
    [81] Wodehouse R P.Pollen grain morphology in the classification of Anthemideae[J]. Bull Torrey Bot Club,1926,53:479-485.
    [82] Wodehouse R P. Pollen Grain[M]. New York :McGraw-Hill,1935
    [83] Erdtman g. Pollen Morphology and plant taxonomy of angiosperms[M]. Stockholm and Watham Mass,1952
    [84] Cronquist A. An integrated system of classification of flowering plant[M]. New York:Columbia University Press,1981.
    [85] Cronquist A. The evolution and classification of flowering plants(2nd edition)[M]. New York:The New York Botanical Garden Bronx,1981.
    [86] Schaeffer A. Pollen morphology of the genus Hydnocarpus(Flacourtiace) with some notes on related genera[J]. Blumea,1989,20:65-87.
    [87] Mabberley D J. The plant-book (second edition)[M]. Cambridge:Cambridge University Press,1997.
    [88] Dickison W C,Nowicke J W,Skvarla J J. Pollen morphology of the Dilleniaceae and Actinidiaceae[J]. Amer J Bot,1983,69(7):1055-1073.
    [89] 陈松波,张金谈.蒿属花粉与生产实践,现代花粉应用研究[M].北京:科学出版社,1990.
    [90] 王萍莉,溥发鼎,郑中华.三棱栎属分类的孢粉学证据[J].植物分类学报,1998,36(3):238-241.
    [91] 孙京田,徐砚田.山东蒿属花粉形态研究及其在分类上的意义[J].山东师大学报(自然科学版), 1997,12(2):186-189.
    [92] Angiosperm Phylogenp Group. An update of the angiosperm phylogeny group classification for orders and families of flowering plants:APGⅡ[J]. Bot J Linn,2003,141:407.
    [93] Hooker J D. The Flora of British India[J]. London:Reeve and Co,1886,5:22-61.
    [94] Bentham G,Hooker J D. Genera Plantarum[J]. London:Reeve Co,1878,2(1-2):832-865.
    [95] Lawrence J R. Acorrelation of the taxonomy and the floral anatomy of certain of the Boraginaceae[J]. Americian Journal of Botany,1937,24:433-444.
    [96] 刘家熙,席以珍,宁建长,等.中国紫草科厚壳树亚科的花粉形态及其系统学意义[J].植物分类学报,2003,41(3):209-219.
    [97] 张小平,周忠泽.中国廖科花粉的系统演化[J].合肥:中国科学技术大学出版社,1988.
    [98] 韦仲新.延龄草花粉形态的研究[J].云南植物研究,1995,17(3):317-324.
    [99] 王玉国,李光照,漆小雪,等.杜鹃花属植物花粉形态及其分类学意义[J].广西植物,2006 6(2):113-119
    [100] 蒋 林,林有润.中国蒿属植物比较形态和解剖学研究 Ⅱ 花粉形态[J].热带亚热带植物学报,1996, 4(3):1-14.
    [101] 黄荣福,沈颂东,卢学峰.青藏高原东北部植物染色体数目和多倍性研究[J].西北植物学报,1996,16(3):313-318.
    [102] 黄荣福,沈颂东,卢学峰.马先蒿属 6 个种的核型与进化研究[J].1996,16(1):73-80.
    [103] 黄运平,尹祖棠.四种风毛菊属植物的核型研究[J].广西植物,1994,14(4):395-403.
    [104] 孔宏智,杨亲二.星叶草属得核型态及其系统位置[J].植物分类学报,1997,35(35):494-499.
    [105] 邰丽华. 碱地风毛菊(Saussurea runcinata)的核型分析[J].内蒙古师大学报(自然科学版),1997,2:52-55.
    [106] 周明冬,阎平,罗青红,等.冰河雪兔子染色体的核型分析[J].石河子大学学报(自然科学版) , 2005,23(1)78-81.
    [107] Levan A. Nomendature for Centromeric Positionon Chromosomes[J]. Hereditas , 1965,52(2): 201- 220.
    [108] Kuo S R. Karyotype analysis of some Formosan gymnosperms[J] . Taiwania ,1972 ,17(1) :66-80.
    [109] 李国珍.植物染色体及染色体技术[J].北京:科学出版社,1985.
    [110] 王一峰,巩红冬,高素芳,等.青藏高原高山植物东俄洛风毛菊和川西风毛菊的核型研究[J]西北师范大学学报(自然科学版) , 2006,(04):71-73,86.
    [111] Arano H. The karotypes and the speciations in subfamily Carduoideae of Japan [J]. Jap Journ Bot, 1965, 19 (3) : 31-67.
    [112] Stebbins G L. Chromosomal evolution in higher plans [M].London: Edward A rnoold Ltd, 1971: 72-123.
    [113] 黎中明,林文君.细胞遗传学[M].成都:四川大学出版社.1987.
    [114] 李贵全.细胞学研究基础[M].北京:中国林业出版社,2001.
    [115] 李懋学.植物染色体研究技术[M].哈尔滨:东北林业大学出版社,1991.
    [116] 李懋学,陈瑞阳.关于植物核型分析的标准化问题[J].武汉植物学研究.1985,3(4):297-302.
    [117] Stebbins G L. Chromosomal evolution in higher plants [M] London : Edward Arnold L TD. 1971.
    [118] Husaini S W H,Iwo G A. Cytology of some weedy species of the family Composite (Asteraceae) from Jos Plateau[J],Nigeria Feddes Repertorium,1990,101:49-62.
    [119] Haque M S. Meiotic studies insome species of Salvia L.[J] . Indian J. Bot,1982,5:83-86.
    [120] Volkova S A,Boyko E V. Chromosome numbers in some species of the family Asteraceae from the southern part of the Soviet Far East[J]. Bot Zern SSSr,1985,70(7):1000-1001.
    [121] Volkova S A,Boyko E V. Chromosome numbers in some species of Asteraceae from the southern part of the Soviet Far East. Bot Zern SSSr, 1986, 71:1693.
    [122] Gupt R C,Gill B S. Cytological investigation on central India Compositae. Cytologia, 1984, 49: 427-435.
    [123] 乔有明,富向乾,阎贵兴,等.20 种蒿属植物的染色体核型研究[J].中国草地,1990,6:24-31.
    [124] 马毓泉, 富象乾,陈 山,等.内蒙古植物志(第六卷)[M].呼和浩特:内蒙古人民出版社,1982,103-158
    [125] 张剑林,于兆英,徐朗然,等.黄土高原植物志(第五卷)[M].北京:科学技术文献出版社,1989,283-325.
    [126] 徐 仁,宋之深,周和仪.柴达木盆地第三纪沉积中的孢粉组合及其在地质学上的意义[J],古生物学报,1958,6(4):429-440.
    [127] 施雅风,文启忠.新疆柴窝堡盆地第四纪气候环境变迁和水文地质[M].北京:科学出版社,1990.
    [128] 胡雨帆.新疆北部二叠纪植物化石及其区系.植物学集刊(第2集)[C].北京:科学出版社,1987.
    [129] 徐 仁.青藏古植被的演变与青藏高原的隆起[J].植物分类学报,1982,20(4):395-391.
    [130] 吴舜卿,周汉忠.天山东部早侏罗世早期植物化石[J].古生物学报,1986,25(6):636-644.
    [131] 张一勇,詹家桢.新疆塔里木盆地西部白垩世至第三纪孢粉[M].北京:科学出版社,1991.
    [132] 闫 顺.新疆第四纪孢粉组合特征及其演替[J].干旱区地理,1991,14(2):1-9.
    [133] 胡世林,杨连菊,潘炯光,等.12种蒿属药用植物挥发油组分比较[J].中草药,1985,16(2):32-34.
    [134] 李 恒.重楼属植物[M].北京:科学出版社,1998.
    [135] 潘晓玲,张宏达.塔里木盆地植被特点及其区系形成的探讨[J].中山大学学报,1993,31(Suppl.):183-186.
    [136] 李世英.北疆荒漠植被的基本特征[J].植物学报,1961.9(3-4):287-314.
    [137] 郝 杰.李日俊.论华夏大陆及有关问题[J].中国地质.1993,3:274-278.
    [138] Ying T Sh,Zhang Y L,Cavid E B. The endemic genera of seed plants of China[M]. Science Prss,1993.
    [139] 陶君荣.中国第三纪植被和植物区系历史及分区[J].植物分类学报,1992,30(1):25-43.
    [140] 孙 航,李志敏.古地中海植物区系在青藏高原隆起后的演变和发展[J].地球科学进展,1992,30(1):25-43.
    [141] 王荷生.植物区系地理[M].北京:科学出版社,1992.
    [142] 王文采.东亚植物区系的一些分布式样和迁移路线[J].植物分类学报,1992,30(1):1-24.
    [143] 王文采.东亚植物区系的一些分布式样和迁移路线[J].植物分类学报,1992,30(20):97-117.
    [144] Hsu R. Late cretaceous and Cenozoic vegetion in China,emphasizing their connections with North America[J]. Ann. Missouri Bot. Gard, 1983, 70: 490-508.

© 2004-2018 中国地质图书馆版权所有 京ICP备05064691号 京公网安备11010802017129号

地址:北京市海淀区学院路29号 邮编:100083

电话:办公室:(+86 10)66554848;文献借阅、咨询服务、科技查新:66554700