蚂蚁与舞草互惠共生关系研究
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摘要
蚁运植物(myrmecochores)指种子由蚂蚁传播扩散的植物。
     蚂蚁与蚁运植物的互惠共生关系是种群生态学研究中的一个重要方
    面,在国际上已广泛开展,而中国没有这方面的研究报道。作者在云南西
    双版纳等地发现了蚂蚁与植物的互惠共生现象;舞草Codariocalyx motorius
    (Houtt.)Ohashi、圆叶舞草Codariocalyx gyroides(Roxb.ex Link)Hassk作为
    蚁运植物在此前的国际国内文献中未见报道。本论文较系统地研究了蚂蚁
    与蚁运植物互惠共生关系,并对其共生机理进行了有益探索,为蚂蚁与蚁
    运植物互惠共生关系研究的深入开展奠定了重要基础。
    一.新蚁运植物的生物生态学特性
     本次研究发现的蚁运植物—舞草、圆叶舞草,主要生长在土壤营养贫
    瘠、火烧频繁的生境。这与澳大利亚蚁运植物发生的主要环境比较一致。
    但也有与之不同点:在澳大利亚,搬运种子的蚂蚁大多也是种子的捕食者,
    而搬运舞草种子的蚂蚁与舞草仅为互惠共生关系,对种子并不取食。
     舞草具有典型蚁运植物特征,即种子上附生有吸引蚂蚁并产生搬运行
    为的油质体。
     舞草的物候期因各地气温变化而异。在景谷,舞草开花期为8-10月,
    结果期为9-11月;在西双版纳,舞草开花期为9-11月,结果期为10-12月。
     由于种皮坚硬,自然条件下,种子萌发率低于20%,萌发的适宜温度
    为20-30℃。通过物理、化学处理可显著提高种子萌发率,减少萌发所需时间。
    
    
    二.扭运舞草种子的蚂蚁种类及其生物生态学特性
     在西双版纳和思茅地区景谷县,共发现12种蚂蚁搬运舞草种于。对义
    觅食及搬运行为观察表明,伊大头蚁是两个点搬运舞草种子的主要种类,
    广泛分布于舞草生长的地域内。伊大头蚁主要在土壤中筑巢,蚁巢喜欢建
    在阳光充足、温暖的生境。蚁巢为均匀分布,且巢群间相互排斥。
     诱集试验结果表明:搬运舞草种子的蚂蚁对诱饵有一定的选择性,特
    别趋于糖和鱼。
     由于邻巨首蚁量较大,且对食物有很强的趋性,因此选择糖作诱饵会
    影响其它种类的诱集。
     伊大头蚁对糖、鱼和肉均有趋性,同时对种子也有一定的趋性。
     甲醛仅对邻b首蚁觅食有影响,但该蚁对搬运舞草种子作用不大。
    三.其它动物对舞草种于传播的影响
     脊椎动物对舞草种于取食传播的试验表明,牛对种于的远距离传播
    一定的作用,但传括的概率很小。牛喜欢取食舞草。舞草种子经牛取食后,
    大多被消化,只有极少量随粪便排出。经牛取食排泄的种子,种子上的油
    质体还存在,蚂蚁可再次传播。所以认为,由于牛对舞草取食,因而总体
    上对舞草种群的繁衍有抑制作用。
     鸡可完全消化舞草种于。
     经鸟取食的种于,油质体已被消化,但种子可随粪便排出,且萌发率
    有所提高。
    四.蚂蚁与舞草的互惠共生机理
     蚂蚁通过\舞草建立丘惠共生关系,叮从舞草种于油质体中获得*。长
    发育所需的氨基酸、无机Jh %等营养。舞草通过与蚂蚁的互惠共生获得如
    下益处:逃避呐齿类动物捕食。排除蚂蚁搬运种子后,啮齿类动物对舞草
    种于的捕食率在景谷和励仑分别为28.33%和 16.5%。舞草种子释放时间
     且且
    
    ‘Jw5蚁活动时问吻合,蚂蚁可先于啮齿类动物将趴牛种-厂运大。表明舞草
    ’J蚂蚁1忽共生更有益于减少啮齿类动物的批食u
     研究结果表明,七壤表面的种于在刀耕火忡中将个部被烧死。但被蚂
    蚁搬运到地「蚁巢处的种于,火烧后种厂汕为?街判提高。这是舞草通过
    ‘。业】蚁的I惠共生,得以避免刀耕火种对义种丁的3卜向。
     蚂蚁取食油质体后丢弃的舞草种于与未经取食的种于萌发试验结果相
    比,6U者萌发率有明显提高,萌发所需时间 })di少。这种作用与人工去除油
    质体促进了种于萌发相似。
     蚂蚁搬运舞草种于的距离一般较短,似均超过种于自身的弹射距离。
    儿种王要蚂蚁传播曲线显示,传插的距离各自都有--高峰,平均传播的距
    离在0.93_-二.53ffi之问。传播曲线都有一个K K的尾部,即少量的蚂蚁传
    播的距离相对较远。蚂蚁搬运还使种于到达营养较十富的蚁巢。伊大头蚁
    蚁巢与附近七壤营养物质比较显示,蚁巢有机质及N、P、K含量均略高于
    附近l:壤。
    五.影响蚂蚁搬运舞草种于率的因子
     蚂蚁搬运舞草种于率受多种因子影响。蚂蚁周年数量动态与搬运率有
    关。此外,蚁运植物种类,种子离蚁巢远近,种于油质体等因素对搬运率
    的影响程度较高:新旧种子对搬运率也有一定的影响。
    六.蚂蚁与舞草在热带雨林中的分布
     主要蚂蚁种类和蚁运植物分布调查发现,在热带雨林及片断化热带雨
    林中,搬运舞草种于的主要蚂蚁和舞草己没有分hJ。这表明随着植被的恢
    复,搬运舞草种于的主要蚂蚁和舞草均己退出植被的演替。舞草作为先锋
    植物,其生长、建群与分hJ影响特殊生境植被的恢复,利用和保护蚂蚁与
    蚁运植物的互惠共生关系,叮促进植被的恢复和演替。
The study on mutualism between ants and myrmecochores has been intensely carried out worldwide, especially in U S., Australia and South Africa. However, any study on this field in Chinese continent has not reported. Phenomenon ot?mutualism between some ants and several plants is not previously reported in Xishuangbanna, Yunnan province, China. The Codariocalyx moi~orius (Houtt.) Qhashi as well as Codarioculyx gyroides (Roxb.ex Link) Hassk is firstly identified to be myrmecochore in the world and their mutualism with some ants has been systematically studied together with discussion of its mechanism in the paper.
    1. The biological and ecological characters of new myrmecochores
    Codariocalyx mowrius and C. gyroides grow in infertile and frequently burned habits. The habits of the myrmecochores in Xishuangbanna, Yunnan, are nearly similar to main ones of the myrmecochores in Australia, and there are, however, some differences between two places that ants of dispersing myrmecochores?seeds are predators in Australia and the relationship between ants and the myrmecochores in Xishuangbanna is only mutualism.
     Codariocalyx motorius is typically characteristic of myrmecochores; that is, theye being elaiosomes on seeds attracting ants for seeds?removal.
    In Jing Gu region, C. moforius blossoms from Aug. to Oct. and fruits from
    
    
    
    
    SePt. to Nov.; in Xishuangbanna, C moIorius blossoms frOm SePt. to Nov. and
    fruits from Oct. to Dec.
    Naturally, germinating rate of C motOrius's seed is below 20% and the
    suitable temperature is 20--30C. Afler Physical and chemical treatment, the
    germinating rate is significantly increased and the germinating time reduced.
    2. Xinds of ants di8persing Co-- -- seed8 and their hiological
    --and -ccoIogical charactcrs
    In Xishuangbanna and Jinggu County Shoao District, l2 kinds of ants
    removing C moIorius j seed have been fotmd. The results from observing their
    behavior of looking fOr fOod and removing Seeds shOw that Pheidole yeensis
    Forel is a main remover of C. motoriusk seed in the studied areas. PheidOle
    yeensis Forel spreads widely over the habits snitab1e to C motorius and builds its
    nest mainly in soils where it is sunshine and warm. The Nests evenly scatter, hut
    mutually exclude in detinite distance.
    The ants removing C. motoriusk seed are selective to baits and prefer to
    candy and fish.
    Because of larger number, Phebotogton atheis has a strong selectivity to
    food, and therefOre collecting it with candy as bail will reduce numbers of other
    ants collected.
    Phebole yeensis has the same selectivity to candy, fish and meat. Its
    selectivity to seed is also observed.
    3. Thc cffcct of othcr animals on C motorus' 8ced rcmoval
    The test of vertebrates' eating C motorius k seed and remc ving it has been
    carried out and the results are the following. (l) Ox has some influence on the
    removing seed distance, but the possibility is much lower, only about 0.067% of
    test seed being found in ox excrement and them containing elaiosomes and still
    v
    
    attracti11g ants fOr removal again. So, ox plays a retarda11l role in deve1opment of
    C' nlolt)l.ius3 POpulation with ox pretbrring to eat ' l,loIorius. (2) No seed in
    excrefllent of 'chicken is found and chicken digests alI seeds, which it eats. (3)
    'I'he seed tbund in excrement of birds do 11ot have claiosome, but have higher
    germinating rate.
    4. Thc mcchanism of mutualism bctWccn ants and Codariocalyx motOrlks
    By mutuaIism, ants can get some nutriments, for examples, arnino acid and
    inorganic elements from elaiosomes of C molorius'seed, and C motOrius can
    also gets some benefitS, such as escaping froIn prey of rodent animals. Afler
    excIuding ants' removing seed, the rate of rodent aniInals predation on seed is
    28.33% and l6.5% respectively in Jinggu and Menglun. The tests show that time
    of releasing '). motorius seed misses time of rodent animals' movement and
    coincides with time of ants movement, which implies that mutualism between
    ants and C) motorius is more beneficial to t
引文
1.马有鑫,刘玉洪,张克映.1998.西双版纳热带雨林片断小气候边缘效应的初步研究.植物生态学报,22(3):250-255.
    2.中国科学院植物所主编.1985.中国高等植物图鉴.第二册.北京:科学出版社.
    3.尹绍亭.1991.一个充满争议的文化生态体系—云南刀耕火种研究.昆明:云南人民出版社.
    4.文贤继,杨岚,杨晓君,江望高.1997.西双版纳片断雨林鸟类分类组成多样性及其变化趋势.中国鸟类学研究,32-39.
    5.王昆,陈佩龙.1991.棉田小枕异绒螨幼螨空间格局及抽样技术研究.昆虫天敌,13(3):137-143.
    6.王巍,马克平,高贤明,2000.东灵山地区脊椎动物对辽东栎坚果捕食的时空格局.植物学报,42(3):289-293.
    7.王巍,马克平.1999.岩松鼠和松鸦对辽东栎坚果的捕食和传播.植物学报,41(10):1141-1144.
    8.朱华,许再富,王洪,李保贵,刘宏茂.1993.西双版纳傣族“龙山”植被的研究.《热带植物研究论文报告集》(Ⅱ).云南大学出版社.P.14-31.
    9.吴坚,王常禄.1995.中国蚂蚁.北京:中国林业出版社,214页.
    10.吴征镒主编.1983.中国植被.北京:科学出版社.
    11.吴征镒主编.1984.云南种子植物名录上册.昆明:云南人民出版社.
    12.吴征镒主编.1987.云南植被.北京:科学出版社.
    13.希特沃,张立运,邹韫 胡德夫,程红.1992.Messor 属蚂蚁在夏季对准噶尔南缘植被的影响.干旱区研究,9(2):33-38.
    14.李朝达,肖宁年,杨大荣,匡溥人.1997.西双版纳片断热带雨林土壤动物组成的比较.动物学研究,18(1):45-49.
    15.杨大同,饶定齐.1996.雨林片断后对两栖爬行动物群落结构的影响.“片断热带雨林的’岛屿效应’与物种多样性消长规律的研究”课题总结.
    16.杨大荣,李朝达,肖宁年,匡溥人.1996.西双版纳片断热带雨林土壤鳞翅目多样性的研究.“片断热带雨林的’岛屿效应’与物种多样性消长规律的研究”课题总结.
    17.杨沛.1984.黄京蚁群体的生长和发育.昆虫天敌,6(4):240-243.
    18.陈志平,王应祥,冯庆,蒋学龙,林苏.1996.云南西双版纳片断热带雨林鼠形啮齿类的物种多样性研究.动物学研究,17(4):451-458.
    19.陈益,唐觉.1989.鼎突多刺蚁群体结构和生活史的研究.动物学研究,10(1):57-63.
    
    
    20.陈益,唐觉.1990.鼎突多刺蚁的营巢习性.昆虫学报,33(2):193-195.
    21.周立.1985.用模糊聚类方法分析灰鼠种群年间变化与松籽产量的关系,并预测灰鼠种群数量.兽类学报,5(1):41-55
    22.苗耀奎,李定旭,陈根强,郭岩.1998.麦田瓢虫幼虫空间分布型及抽样技术研究.昆虫天敌,20(1):24-29.
    23.姚天全,张世玉,赵恒康.1983.哀牢山徐家坝地区环境背景值研究.云南哀牢山森林生态系统研究.昆明:云南科技出版社.
    24.赵志模,郭依泉编著.1990.群落生态学原理与方法.重庆:科学技术文献出版社重庆分社.73~119.
    25.钦俊德著.1987.昆虫与植物的关系—论昆虫与植物的相互作用及其演化.北京:科学出版社,133~149.
    26.唐勇,曹敏,张建侯,任泳红.1997.刀耕火种对山黄麻林土壤种子库的影响.云南植物研究,19(4):423-428.
    27.徐正会 1999.西双版纳热带雨林蚁科昆虫区系分析.动物学研究,20(5):379-384.
    28.徐正会,曾光,柳太勇.1999.西双版纳地区不同植被亚型蚁科昆虫群落研究.动物学研究,20(2):118-125.
    29.徐正会.1998.Two new species of the ant genus Polyrhachis Smith(Hymenoptera:Formicidae)from Yunnan China.动物学研究,19(3):242-246.
    30.徐永椿,姜汉侨,全复.1987.西双版纳自然保护区综合考察报告集.昆明:云南科技出版社,541页.
    31.陶大立,赵大昌,赵士洞,郝占庆.1995.红松天然更新对动物的依赖性---一个排除动物影响的球果发芽实验.生物多样性,3(3):131-133.
    32.梁仰贞.1996.舞草盆栽要点.植物杂志,(5):21
    33.龚泉福,高洁编著.1995.蚂蚁、养殖、利用.上海:上海科学技术文献出版社.
    34.霍玉林,李广武,张文明.1985.棕褐沙林蚁的研究.林业科技通讯,(9):25-29.
    35.Ritcing, P. L., McIntyre, S., 彭少麟,方炜.1994.澳大利亚生态学发展的历史、现状与趋势(续).生态学杂志,13(5):73-79.
    36.Andersen, A. N. 1982. Seed removal by ants in the mallee of northwestern Victoria. In:Ant-plant interactions in Australia (ed. R. C. Buckley). Pp. 31-44. W. Junk. The Hague.
    37.Andersen, A. N. 1986. Diversity, Seasonality and community organization of ants at adjacent heath and woodland sites in south-eastern Australia. Australian Journal of Zoology, 34: 53-64.
    38.Andersen, A. N. 1987. Effects of seed predation by ants on seedling densities at a woodland site in SE Australia. Oikos 48: 171-174.
    
    
    39. Andersen, A. N. 1988. Dispersal distance as a benefit of myrmecochory Oecologia. 75: 507-511.
    40. Andersen, A. N. and D. H. Ashton. 1985. Rates of seed removal by ants at heath and woodland sites in southeastern Australia. Australian Journal of Ecology. 10: 381-390.
    41. Ashton, D. M. 1979. Seed harvesting by ants in forests of Eucalyptus regnans F. Muell. In central Victoria. Aust. J. Ecol. 4: 265-277.
    42. Auld, T. D. 1986. Population dynamics of the shrub Acacia suaveolens (Sm.) Willd: dispersal and the dynamics of the soil seed bank. Aust. J. Ecol. 11: 235-254.
    43. Baroni-Urbani, C. and M. G. Nielsen. 1990. Energetics and foraging behaviour of the European seed harvesting ant Messor capitatus. Ⅱ. Do ants optimize their harvesting? Physiol. Entomol. 15: 441.
    44. Beattie, A J. 1985. The evolutionary ecology of ant-plant mutualisms. Cambridge:Cambridge University Press.
    45. Beattie, A. J. 1983. The distibution of ant-dispersed plants.-In: Kubitzki, K, (ed.). Dispersal and distribution. Parey, Hamburg, germany. pp. 249-270
    46. Beattie, A. J. 1985. The evolutionary ecology of ant-plant mutualisms. Australian Journal of Botany23: 475-508.
    47. Beattie, A. J. and D. C. Culver. 1977. Effects of the mound nests of the ant, Formica obscuripes, on the surrounding vegetation. American Midland Naturalist 97: 390-399.
    48. Beattie, A. J. and D. C. Culver. 1981. The guild of myrmecochores in the herbaceous flora of west Virinia forests. Ecology. 62(1) : 107-115.
    49. Beattie, A. J. and D. C. Culver. 1982. Inhumation: how ants and other invertebrates help seeds. Nature. 297: 627
    50. Beattie, A. J. and D. C. Culver. 1983. The nest chemistry of two seed-dispersing ant species. Oecologia. 56:99-103.
    51. Beattie, A. J. and N. Lyons. 1975. Seed dispersal in Viola (Violaceae): adaptations and strategies. American Journal of Botany 62: 714-722.
    52. Berg. R. Y. 1975. Myrmecochorous plants in Australia and their dispersal by ants. Aust. J. Bot. 23: 475-508.
    53. Berg. R. Y. 1983. Plant distribution as seen from plant dispersal: general principles and basic modes of plant dispersal. Sonderbd. Naturwiss. Ver. Hamburg. 7: 13-36
    54. Bingham, C. T. 1903 The fauna of British India, including Ceylon and Burma. Hymenoptera 2. Ants and cuckoo-wasps. London: Taylor and Francis, 506 pp.
    55. Bond, W. J. and G. J. Breytenbach. 1985. Ants, rodents and seed predation in
    
    proteaceae. S. Afr. J. Zool. 20: 150-154.
    56. Bond, W J. and P. Slingsby. 1983. Seed dispersal by ants in shrublands of the Cape province and its evolutionary implications. S. Afr. J. Sci. 79: 231-233.
    57. Bond, W. J. and W. D. Stock. 1989. The costs of leaving home: ants disperse myrmecochorous seeds to low nutrient sites. Oecologia. 81:412-417.
    58. Bossard. C. C. 1990. Tracing of ant-dispersed seeds: a new technique. Ecology. 71(6) : 2370-2371.
    59. Bresinsky, A. 1963. Bau, Entwicklungsgeschichte und inhaltsstoffe der elaiosomen. Bibl. Bot. No. 126.
    60. Bronstein J. I.. 1998. The contribution of ant-plant protection studies to our understanding of mutualism. Biotropica. 30(2) : 150-161.
    61. Brown, J. H., O. J. Reichman and D. W. Davidson. 1979. Granivory in desert ecosystems. Ann. Rev. Bcol. Syst. 10: 201-227.
    62. Bucley, R. C. 1982. Ant-plant interactions in Australia. Junk, The Hugue
    63. Cantlon, J. E ,E. J. C. Curtis and W. M. Malcolm. 1963. Stuides of Meiampyrum lineare. Ecology 44: 466-474.
    64. Clay, K. 1983. Myrmecochory in the tailing arbutus (Epigaea repens L.). Bull. Torrey Bot. Club. 110: 166-169.
    65. Culver, D. C. and A. J. Beattie. 1978. Myrmecochory in Viola: dynamics of seed-ant interactions in some west Virginia species. Journal of Ecology. 66: 53-72.
    66. Culver, D. C. and A. J. Beattie. 1980. The fate of Viola seeds dispersed by ants. Am. J. Bot. 67:710-714.
    67. Culver, D. C. and A. J. Beattie. 1983. Effects of ant mounds on soil chemistry and vegetation patterns in a Colorado montane meadow. Ecology. 64: 485-492.
    68. Czerwinski, A., H. Jakubcayk and J. Petal. 1971. Influence of ant hills on the meadow soils. Pedobiologia. 11: 277-285.
    69. Davidson, D. W. 1997. The role of resource imbalances in the evolutionary ecology of tropical arboreal ants. Biol. J. Linn. Soc. 61: 153-181.
    70. Davidson, D. W. and S. R. Morton. 1981a. Myrmecochory in some plants(F chenopodiaceue) of the Australian arid zone. Oecologia (Berlin). 50: 357-366.
    71. Davidson, D. W. and S. R. Morton. 1981b. Competition for dispersal in ant-dispersed plants. Science. 213: 1259-1261.
    72. Davidson, D. W. and W. W. Epstein. 1989. Epiphytic associations with ants. In U. Luttge (Ed.). Vascular plants as epiphytes, pp. 200-233. Spring Verlag, Berlin,
    
    Germany.
    73. Davidson, D.W. 1977. Foraging ecology and community organization in desert seed-eating ants. Ecology. 58: 725-737.
    74. Drake, W. E. 1981. Ant-seed interaction in dry sclerophyll forest on North Stradbroke Island. Queensland. Aust. J. Bot 29: 293-309.
    75. Dumpert, K. 1978. The social biology of ants. Pitman Advanced Publishing Program.
    76. Ellingsrud, S. and A. Johnsson. 1993. Perturbations of plant leaflet rhythms caused by electromagnetic radio-frequency radiation. Bioelectromagnetics. 14(3) : 257-271.
    77. Engelmann, W. and B. Antkowiak. 1998. Ultradian rhythms in desmodium [review]. Chronobiology International. 15(4) : 293-307.
    78. Ericson, L. 1977. The influence of voles and lemmings on the vegetation in a coniferous forest during a four-year period in northern Sweden. Wahlenbergia. 4: 1-114.
    79. Estrada, A. and T. H. Fleming (eds.) 1986. Frugivores and seed dispersal. Dr. W. Junk Publishers,
    80. Ewel, J., C. Berish, B. Brown, N. Price and J. Raich. 1981. Slash and burn Impacts on a Costa Rican wet forest site. Ecology. 62: 816-892.
    81. Fonseca, C. R. and G. Ganade. 1996. Asymmetries, compartments and null interactions in an Amazonian ant-plant community. J. Anim. Ecol. 65:339-347.
    82. Gibson, D. J. and R. E. Good. 1987. The seedling habitat of Pinus echinata and Melampyrum lineare in oak-pine forest of the New Jersey Pinelands. Oikos. 49: 91-100.
    83. Gibson, W. 1993a. Selective advantages to hemi-parasitic annuals. Genus Melampyrum, of a seed-dispersal mutualism involving ants: Ⅰ. Favorable nest sites. Oikos 67:334-344.
    84. Gibson, W. 1993b. Selective advantages to hemi-parasitic annuals, genus Melampyrum, of a seed-dispersal mutualism Involving ants: Ⅱ. Seed-predator avoidance. Oikos. 67: 345-350.
    85. Glyphis, J. P., S. J. Milton and W. R. Siegfried. 1981. Dispersal of Acacia Cyclops by birds. Oecologia. 48: 138-141.
    86. Gorb, N. G. andV. G. Elena. 1995. Removal rates of seeds of five myrmecochorous plants by the ant Formica polyctena (Hymenoptera: Formicidae), Oikos, 73:367-374
    87. Haines, B. 1975. Impact of leaf-cutting ants on vegetation development at Barro Colorado Island. Pages 99-111 in F. D. Golley and E. Medina, editors. Tropical ecological systems: trends in terrestrial and aquatic research. Springer-Verlag, New
    
    York. New York. USA.
    88. Handel. S. N. 1978. The competitive relationship of three woodland sedges and its bearing on the evolution of ant-dispersal of Carex pedunculata. Evolution 32: 151-163.
    89. Handel. S. N.. S. B. Fisch and G. F. Schatz. 1981. Ants disperse a majority of herbs in a mesic forest community in New York state. Bulletin of the Torrey Botanical Club. 108: 430-437.
    90. Hanzawa. K M., S. J. Beattie and D. C. Culver. 1988. Directed dispersal: demographic analysis of an ant-seed mutualism. Am. Nat. 131: 1-13.
    91. Harper. J. I. 1977. Population biology of plants.-Academic Press, New York.
    92. Heinricher, E. 1917. Zur physiologic der schmartotzenden Rhinantheen, besonders der halbparasitischen. Naturvvissenschaft 8: 115-119.
    93. Heithaus, K. R. 1981. Seed predation by rodents on three ant-dispersed plants. Ecology. 62: 136-145.
    94. Higashi. S., S. Tsuyuzaki, M. Ohara and F. !to. 1989. Adaptive advantages of ant-dispersed seeds in the myrmecochorous plant Trillium tschonoskii (Liliaceae). Oikos 54: 389-394
    95. Holldobler B., E. O. Wilson. 1990. The Ants. Cambridge: The Belknap Press of Harvard University Press, 732pp.
    96. Howe, H.E 1977. Bird activity and seed dispersal of a tropical wet forest tree. Ecology. 58: 539-550.
    97. Howe, H. F. 1979. Fear and frugivory. Am. Nat. 114: 925-931.
    98. Howe, H. F. 1980. Monkey dispersal and waste of a neotropical fruit. Ecology. 61: 944-959.
    99. Howe, H. F. and Smallwood J. 1982. Ecology of seed dispersal. Ann. Rev. Ecol. Syst. 13:201-28.
    100. Hughes L. and M. Westoby. 1990. Removal rates of seeds adapted for dispersal by ants. Ecology. 71(1) : 138-148.
    101. Hughes I,, and M. Westoby. 1992. Fate of seeds adapted for dispersal by ants in Australian Sclerophyll vegetation. Ecology 73(4) : 1285-1299.
    102. Huxley, C. R. and D. F. Cutler. 1991. Ant-plant interactions. Oxford University Press.
    103. Janzen. D. 11. 1969. Seed-eaters versus seed size, number, toxicity and dispersal. Evolution 23: 1-27.
    104. Janzen, D. H. 1970. Herbivores and the number of tree species in tropical forests. Am. Nat. 104:501-528.
    
    
    105. Janzen, D. H. 1971. Seed predation by animals. Annual review of ecology and systematics. 2: 465-592.
    106. Janzen, D. H. 1981. Enterolobium cyclocarpum seed passage rate and survival in horses, Costa Rican Pleistocene seed dispersal agents. Ecology. 62: 593-601.
    107. Jennings, T. J. 1976. Seed detection by the wood mouse Apodemus sylvaticus. Oikos. 27: 174-177.
    108. Kaufmann, S. and D. B. Mckey. 1991. Adaptations for a two-phase seed dispersal system involving vertebrates and ants in a Hemiepiphytic Fig (Ficus microcarpa: Moraceae). American Journal of Botany. 78(7) : 971-977.
    109. King, R. J. I977b. The plant ecology of ant-hills in calcareous grasslands. Ⅱ. Succession on the mounds. Journal of Ecology 65: 257-278.
    110. King, R. J. 1977c. The plant ecology of ant-hills in calcareous grasslands. Ⅲ. Factors affecting the population sizes of selected species. Journal of Ecology 65: 279-315.
    111. King, T. J. 1977a. The plant ecology of ant-hills in calcareous grasslands. Ⅰ . Patterns of species in relation to ant-hills in southern England. Journal of Ecology 65: 235-256.
    112. Kjellsson, G. 1985. Seed fate in a population of Carex pilulifera L.Ⅱ. Seed predation and its consequences for dispersal and seed bank. Oecologia. 67: 424-429.
    113. Larsen, J. A. 1980. The boreal ecosystem. Academic Press. New York.
    114. Leutert, A. 1983. Einfluss der feldmaus. Microtus arvalis (Pall.), auf die floristiche zussamrnensetzung von Wiesen Ockosystemen. Veroff. Geobot. Inst. ETH, Stiftung Ruebel, Zuerich, Heft 79.
    115. Majer, J. D. 1980. The influence of ants on broadcast and naturally spread seeds in rehabilitated bauxite mined areas. Reclam. Rev. 8: 3-9.
    116. Majer. J. D. 1982. Ant-plant interactions in the Darling botanical district of Western Australia. In: Bucley, R. C.(ed.). Ant-plant interactions in Australia. Junk, The Hugue, PP45-61.
    117. Malozemova, L. A. 1970. Interrelations of ants with plants. Eko/ogiya 2: 101-103.
    118. Malozemova, L. A., and N. P. Koruma. 1973. Effect of ants on soil. Ekologiya 4: 450-452.
    119. Marshall, D. L., A. J. Seattle and W. E. Bollenbacher. 1979. Evidence for diglycerides as attractants in an ant-seed interaction. Journal of Chemical Ecology. 5(3) : 335-344
    120. Masselink, A. K. 1980. Germination and seed population dynamics in Melampyrum pratense L. Acta. Bot. Neerl. 29:451-468.
    121. Mckey, D. 1975. Gilbert, L. E., Raven, R. H. eds. Coevolution of animals and plants.
    
    Austin: Univ. Texas, pp. 159-191.
    122. Milewski, A. V. and W. J. Bond. 1982. Convergence of myrmecochory in Mediterranean Australia and South Africa. In: Buckley, R. C. (ed.)-Ant-plant interactions in Australia. Junk, The Hague. Pp. 89-98.
    123. Nesom, G. L. 1981. Ant dispersal in Wedelia hispita (Heliantheae, Compositae). Southwest, Nat. 26:5-12.
    124. O'Dowd, D. J. and M. E. Hay. 1980. Mutualism between harvester ants and a desert ephemeral: seed escape from rodents. Ecology. 61(3) : 531-540.
    125. O'Dowd, D. J. andA. M. Gill. 1984. Predator satiation and site alteration: mass reproduction of alpine ash (Eucalyptus delegatensis) following fire in southeastern Australia. Ecology 65: 1052-1066.
    126. Pacini, E. 1990. Mercurialis annua L. (Euphorbiaceae) seed interactions with the ant Messor structor (Latr.), Hymenoptera: Formicidae. Acta Bot. Neerl. 39: 253-262.
    127. Petal, J. 1978. The role of ants in ecosystems. Pages 293-325 in M. V. Brian, editor. Production ecology of ants and termites. Cambridge University Press, Cambridge, England.
    128. Petal, J., H. Jakubczyk and Z.Wojcik. 1967. L'influence des fourmis sur la modification des sols et des plantes dans le milieu des prairies. Pages 235-240 in J. Phillipson, editor. Methods of Study in Soil Ecology, Proceedings of the Paris Symposium. UNESCO, Paris, France.
    129. Piehl, M. A. 1962. The parasitic behavior of Melampynun lineare and a note on its seed color. Rhodora 64: 15-23.
    130. Price, M. V. and S. H. Jenkins. 1986. Rodents as seed consumers and dispersers. Pages 191-235 in D. R. Murray, editor. Seed dispersal. Academic Press, Orlando, Florida, USA.
    131. Raison R.J. 1979. Modification of the soil environment by vegetation fires, with particular reference to nitrogen transformation a review. Plant Soil 51: 73-108.
    132. Rice, R. and M. Westoby. 1986. Evidence against the hypothesis that ant-dispersed seeds reach nutrient-enriched microsites. Ecology. 67: 1270-1274.
    133. Rick, C. M. and R. I. Bowman. 1961. Galapagos tomatoes and tortoises. Evolution. 15: 407-417.
    134. Rico-Gray, V. 1993. Use of plant-derived food resources by ants in the dry tropical lowlands of coastal Veracruz, Mexico. Biotropica 25: 301-315.
    135. Ridley, H. N. 1930. The dispersal of plants throughout the world. Ashford: Reeve.
    
    744pp.
    136. Romero. H and K. Jaffe. 1989. A comparison of methods for sampling ants (Hymcnopiera. Formicidae) in Savannas. Biotropica. 21(4) : 348-352
    137. Schcrba. (i. 1962. Mound temperatures of the ant Formica ulkei Emery. American Midland Naturalist 67: 373-385. .
    138. Scluipp.E.. W and D. H. Feener. 1991. Phylogeny, life form, and habitat dependence of ant-defended plants in a Panamanian forest. In C. R. Huxley and D. F. Cutler (Eds.). Ant-plant interactions, pp. 175-197. Oxford University Press, New York, New York.
    139. Sernander, K. 1906. Entwurf einer Monographie der europaischen Myrmekochoren, Kungliaga Svenska Vetenskapsakademiens Handlingar41: 1-410.
    140. Shetron, S. 1969. Variation in Jack pine growth by individual soil taxonomic units in Baraga county. MI. MTU Ford Forest. Res. Notes 5: 1-25.
    141. Slingsby, P. and W. J. Bond. 1985. The influence of ants on the dispersal distance and seedling recruitment of Leucospermum conocurpodendon(L.) Buck (Proteaceae). S. Afr. J. Bot. 51. 30-34.
    142. Stocker, G. C 1981. Regeneration of a north Queensland rain forest following felling and burning Biotropica. 13: 86-92.
    143. Talbot. M. 1953. Ants of the old field community on the Edwin S. George Reserve, Livingston C'ounty, Michigan. Contributions from the laboratory of Vertebrate Biology, University of Michigan 63: 1-13.
    144. Turnbull, C. 1. . and D. C. Culver. 1983. The timing of seed dispersal in Viola nutallii: Attraction of dispersers and avoidance of predators. Oecologia. 59: 360-365.
    145. Uhl, C. and P Ci. Muraphy. I98lb. Composition, structure and regeneration of a tierra firme forest in the lAmazon Basin of Venezuela. Tropical Ecol. 22: 219-237.
    146. Uhl, C., K. H Clark and P. Murphy. 198la. early plant succession after cutting and buring in the upper Rio Negroregion of the Amazon basin. Journal of Ecology 69: 631-649.
    147. Ulbrich, E. 1939. Deutsche Myrmekochoren. Repertorium Specierum Novarum Regni Vegetabilis 118: 1-60.
    148. Van der Pijl 1 1982. Principles of dispersal in higher plants. 3rd edn. Springer, Berlin Heidelberg New York.
    149. Wein, G. R. and S. T. A. Pickett. 1989. Dispersal, establishment and survivorship of a cohort of Erythronium umericanum. Bull. Torrey Bot. Club. 116: 240-246.
    150. Wells, T. C..E.J. Sheail, D. F. Ball and L. K. Ward. 1976. Ecological studies on the
    
    Porton ranges: relationships between vegetation, soils and land-use history. Journal of Ecology 64:589-626.
    151. Westoby, M, B. Rice, J. M. Shelley, D. Haig and J. L. Kohen. 1982. Plants' use of ants for dispersal at West Head. N. S. W. In: Buckley, R. C. (ed.), Ant-plant interactions in Australia. Junk, The Hague, pp. 75-87.
    152. Westoby, M., K. French, L. Hughes, B. Rice and L. Rodgerson. 1991. Why do more species use ants for dispersal on infertile compared with fertile soils? Aust. J. Ecol. 16: 445-455.
    153. Wilson, E. O. 1971. The insect societies. Harvard University Press, Cambridge, Massachusetts, USA.
    154. Winn, A. A. 1989. Using radionuclide labels to determine the post-dispersal fate of seeds. Trends in Ecology and Evolution 4: 1-2.
    155. Yeaton, R. I. And W. J. Bond. 1991. Competition between two shrub species: Dispersal differences and fire promote coexistence. Am. Nat.138:328-341.

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