Morphology of Jordanian Cruciferae

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.. Biodiversity Heritage Library, -http://www.biodiversitylibrary.org/; 355 MKt. Bot. SUatssamml. MUnchm 23 p. 355-375 3112.1987 ISSN 0006-8179 Pollen Morphology of Jordanian Cruciferae J. N. I_AI-IMA.I\/1 and D. AL.-EISANA/I Abstract The pollen morphology of 87 plant species of the family Cruciferae (Brassicaceae) in Jordan has been studied. The study incorporated scanning and light microscopy, description and measurements of whole grains. The study revealed that the majority of the pollen grains are tricolpate and some are weakly aperturate or inaperturate. The most common shape is the prolate and subspheroidal. The basic surface pattern of the studied grains is a reticulum and the majority of the grains are finely reticulate. The plant family Cruciferae (Brassicaceae) is a large natural family comprising approximately 380 genera and 3000 species Members of the family are found in most parts of the world but are mainly concetrated in the north temperate region and more especially in the countries surrounding the Mediterranean basin and in southwestern and Central Asia, where more genera occur than anywhere eise in the world (HEYWOOD, 1978) The family include annuals, biennials or perennial herbs (rarely subshrubs) with watery sap and the herbage often with stellate or branched unicellular hairs. In Jordan, this family is represented by 64 genera comprising 125 species {Al-EISAWI, 1982). The purpose of this paper is to present, in illustrated form, some of the diversity and to some extent the ränge of Variation present in the Jordanian species of the family Cruciferae. This study incorporated scanning and light microscopy, description and measurements of whole grains. The most pertinent previous studies on the family are those of

... Biodiversity Heritage Library, http://www.biodiversitylibrary.org/; 356 ERDTMAN (1952) and ROLLINS et BANERJEE (1979) ERDTMAN examined 80 species from 55 genera and also provided a füll list of the relevant work of the earlier workers. ROLLINS and BANERJEE examined the pollen grains of 227 species in 132 genera representing all subfamilial groupings of the family by using the scanning electron microscope MATERIALS AND METHODES: The pollinef erous materials were obtained from specimens deposited at the herbaria of the University of Jordan and Yarmouk University. For light microscopy the pollen was prepared by using the acetolysis method of KÜMMEL and RAUP (1965). Ten pollen grains were measured for each species with the aid of an ocular micrometer. The measurements include the polar length (P), the equatorial length (E), the polar area index P.A.I. (the ratio of the distance between ends of adjacent furrows and the equatorial diameter of a pollen grain), the pollen grain wall thickness and the relative thickness of the sexine to the nexine (Table 1) Preparation for the scanning electron microscope consisted of dusting pollen onto specimen aluminium stabs which held a piece of double-stick scotch tape. The stubs were placed in a sputterer coater for 2 minutes (approximately 150 A of gold deposited). After coating, the specimens were viewed with the scanning microscope with an accelerating voltage of 25 KV, Secondary electron images were recorded with an ILFORD film. RESULTS: This study confirms the results of ERDTMAN and ROLLINS and BANERJEE that the family Cruciferae is stenopalynous Pollen grains are usually tricolpate. However, some pollen grains are weakly aperturate as in Myagrum perfoliatum, Erysimum crassipes, Maresia pygmaea and Farsetia aegyptiaca while others have the slightest indication of an aperture as in Cardamine hirsuta and Ricotia lunaria. The pollen grains of the different species of the genus Matthiola and Anastatica hierochuntica are non aperturate. In three of the studied species: Cardaria draba, Chorispora purpurascens and Capsella bursa-pastoris tri- and tetracolpate pollen grains appeared in the same preparation. The most common pollen grains shapes found in the Cruciferae is the prolate and the subspheroidal. Some grains are spheroidal as in Ochthodium aegyptiacum, Erysimum repandum, Matthiola ssp., Cardamine hirsuta, Iberis odorata and Diplotaxis erucoides. Grains only slightly longer than broad are exemplified by those of Capsella bursa-pasturis, Crambe hispanica, Chorispora purpurascens and Clypeola

. Biodiversity Heritage Library, http://www.biodiversitylibrary.org/; - 357 jonthlaspi. The basic surface pattern of the studied grains is a reticulum and the majority of the grains are finely reticulate. The lumina are either of the same size over the entire surface of the grain or they tend to be smaller near the poles. Strong reticular patterns with large lumina (3 x 3(4) um are found in the genera Matthiola and Ricota. The lumina are almost of the same size distributed over the entire surface of the grain from the poles to the equator. In the majority of the studied grains the sexine is slightly thicker than the nexine or it can reach a 2:1 ratio as in Cardaria draba, Diplotaxis erucoides, Brassica nigra, Sinapis alba and Reboudia pinnata with the thickest region in the mesocolpus. It is very clear that the study of the pollen grains of the Cruciferae has little taxonomic implications because there appeared to be too little diversity in shape, apertures and sculpturing from which character correlations might be drawn. REFERENCES : AL-EISAWI, D. M., 1982: List of Jordan Vascular Plants. Mitt. Bot. München 18: 79-182. ERDTMAN, G., 1952: Pollen morphology and plant taxonomy - angiosperms. (An introduction to palynology, Vol. 1) Almquist and Wiksell, Stockholm. FAEGRI, K. and J. IVERSON, 1964: A textbook of pollen analysis. Munksgaard, Copenhagen. HEYWOOD, V. H., 1978: Flowering plants of the world. Mayflower Books, Inc. New York. KÜMMEL, B. and D. RAUP, 1965: Handbook of paleontological techniques. W. H. Freeman, San Francisco. ROLLINS, R. C. and U. C. BANERJEE, 1979: Pollen of the Cruciferae. Harvard University Press.

. Biodiversity Heritage Library, http://www.biodiversitylibrary.org/; - 358 Plate 1: Pollen, light microscope photographs (all photographs are 900x) A. Cardaria draba {Polar view) B. Chorispora purpurascens (Polar view) C. Clypeola jonthlaspi (Polar view) D. Isatis lusitanica (Polar view) E and F. Matthiola aspera (Polar view) G. Ricota lunaria (Polar view) H. Sisymbrium irio (Equatorial view) Plate 2: Pollen, SEM pictures A. Brassica tournefortii X 2400 B. Cardaria draba X 2400 C. Chorispora purpurascens X 2400 D. Diplotaxis villosa X 2400 E. Enarthrocarpus strangulatus X 2400 F. Eruca sativa X 1800 Plate 3: Pollen, SEM pictures A. Erysimum crassipes X 2400 B. Erysimum repandum X 13 500 C. Farsetia aegyptiaca X 2400 D. Isatis lusitanica X 2400 E. Lepidium latifolium X 2400 F. Malcolmia chia X 2400 Plate 4: Pollen, SEM pictures A. Matthiola arabica X 2400 B. Matthiola longipetala X 2400 C. Morettia canescens X 2400 D. Notoceras bicorne X 2400 E. Ochthodium aegyptiacum X 2400 F. Rapistrum rugosum X 1800 Plate 5: Pollen, SEM pictures A. Ricotia lunaria X 2400 B. Savignya parviflora X 2400 C. Schimpera arabica X 2400 D. Sinapis alba X 2400 E. Sisymbrium irio X 2400 F. Sisymbrium Orientale X 2400 Plate 6: Pollen, SEM pictures

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