ALBERT

Description: The sedimentation regime off Northwest Africa is shaped by: (1) structur~al factors. which result in generallv low relief on land. shelf widths between 40 and more than 120 km. and av-erage sfope inclinations between 10 30' and 30; (2) land climates. which contral the delivery of terrigenous particles to the margin: (3) water movements including boundary currents and upwelling; and (4) the post- Pleistocene sea level rise. This chapter combines published and new results arising from research into the sedimentation processes off Northwest Africa. and emphasizes particularly the activities of the Kiel marine geological group during the past few years. Reviews of cruise activities and results were given in Closs et al. (1969) (Meteor cruise 8. 1967. off Morocco) . Seibold (1972) (Meteor cmise 25 . 1971. off Sahara to Central Senegal). Seibold and Hinz (1976) (Meteor cmise 39,1975 . and Valdivia cruise 10. 1975, from Morocco to South Senegal), and Waiden et al. (1974) (Meteor cmise 30, 1973, off Sierra Leone). Some of these cmises were used for pre- or post-site surveys for the Deep-Sea Drilling Project, or to add undisturbed Quaternary cores to the Glomar Challenger cores (leg 41, ] 975; Lancelot, et al .• 1978); leg 47 A, Arthur er al .• 1979; Lutze et al., 1979). We have concentrated our geological investigations on a number of standard profiles from the shelf to the upper continental rise as given in Figure 1. The manuscript was finished May 1979.

Description: https://www.researchgate.net/publication/230891291_The_Orbital_Theory_of_Pleistocene_Climate_Support_frim_a_Revised_Chronology_of_the_Marine_d18O_Record

Description: Summary Holocene sediments of the North Lagoon, Bermuda, were studied with shallow seismic reflection profiles (200 km CSP-survey, UNIBOOM-system) and vibration coring (40 sediment cores, pneumatic vibration corer, Meischner et al., 1981). Seismic Stratigraphy Four seismic sequences are distinguishable by seismic stratigraphy. All seismic sequences correspond to depositional sequences built up during high sea levels in interglacial times. The seismic sequences are separated by unconformities which are often strongly reflective and correspond to emersion planes during glacial phases. The upper sequence (sequence 4) is related to Holocene sediments. The pre-Holocene bedrock is divided into three different seismic sequences (Kuhn et al., 1981): Sequence 1: oldest Pleistocene sequence (pre-Sangamon sea-level highstands), upper boundary with levelled relief (lower boundary not discernible), composed of strongly cemented carbonate sediments, forms the bedrock below Three Hill Shoals Sequence 2: Sangamon (125 ky sea-level highstand), distinct surface morphology, forms the bedrock of a large area below Holocene sediments, Holocene reefs grew up on elevations of the sequence 2 surface, the Holocene reef rim was developed on an elevated rim of sequence 2 Sequence 3: youngest Pleistocene sequence (Sangamon, 105 and 85 ky sealevel highstands lower than recent), deposited mainly in depressions of the bedrock deeper than -15 m below recent Mean Sea Level, levelling the older relief, peat sedimentation in places The distribution of recent reef areas and lagoonal basins is strongly controlled by pre-Holocene topography and geology of the bedrock. During the Holocene approx. 1050 x 106 m3 of carbonate sediments were deposited in the North Lagoon (290 km2) and approx. 1350 x 106 m3 in the reef rim area (170 km2). Sedimentology There are no larger oscillations of the Holocene sea level identifiable in the sedimentological record. The pre-Holocene topography was gradually drowned during the Holocene sea-level rise. At first, the depositional depressions were separated and landlocked. Fresh water peat marshes, fresh water ponds, marine ponds and bays were formed. With rising sea level, the land barriers were more and more eroded, drowned and lost their influence on the back-barrier sedimentation area. Autochthonous and allochthonous peat, lime gyttja and carbonate mud are a typical transgressive back-barrier sediment sequence. After destruction of the barrier, the depositional milieu changed from restricted marine to normal marine, open lagoonal. Sea-grass sediments and nearly mud-free carbonate sand were deposited in shallow water in an exposed environment. Hydrodynamic energy decreases with increasing water depth in the lagoonal basin. A more densely growing reef rim and intralagoonal reef growth added to the protection of the deeper lagoonal floors. Fine-grained sediments were deposited in this environment. They are distributed over a large area of the North Lagoon and form the top of the transgressive lagoonal sediment sequence. Holocene reefs mainly developed on rises of the pre-Holocene surface. In the early Holocene, solid reef build-ups were able to keep up with the rapid rise of sea level. Sand pockets in the reefs were left behind and filled up mainly in the later Holocene. The percentage of fine-grained sediments, produced and resuspended in the reef rim and deposited in the near lagoonal back-reef zone, increased during the Holocene. Two models of Holocene sedimentation in a depression and on an elevation of the pre-Holocene surface illustrate the dependence of vertical facies gradation on pre-Holocene topography. Trends of the mostly polymodal grain-size distributions of the Holocene sediments are a coarsening-upward in the back-barrier and a fining-upward in the lagoonal sediment sequences. Change in the composition of the molluscan fauna in the Holocene sediments (particle size 〉 2000 µm) is an Indication for fades changes. Gastropods are abundant in the basal backbarrier sediments. Bivalves are rare and their diversity 1s low. Sea-grass sediments contain Codakia orbicularis and Astraea phoebia shells. In the sheltered lagoonal environment shell fragments 〉 2000 µm become rare, common species are Gouldia cerina, Pitar fulminata and Finella sp. (approx. 1000 µm). Fine-grained reef-rim derived sediments differ from lagoonal sediments by a higher percentage of Homotrema rubrum fragments and Alcyonaria spicules.

Description: Twelve species of terricolous microlichens from the Angmagssalik District, Southeast Greenland, are reported: Caloplaca friesii, C. livida, Lecanora boligera, Lecidea oligotropha and Leciophysma arctophila, which are new to the lichen flora of Greenland, Rinodina conradi, which is new to the eastcoast, and Baeomyces roseus, B. rufus, Buellia geophila, B. punctata, Caloplaca tornoensis and Mycoblastus tornoensis, new to Southeast Greenland. In a discussion of the greenlandic distribution, unpublished records from the herbarium of Copenhagen (C) are incorporated. Notes on the habitats are given and the pertinent phytosociological units indicated. Some morphological and anatomical characters are commented upon briefly.

Description: The three species Galium silvaticum L., Galium aristatum L. and Galium schultesii Vest show differences in morphology, cytology and geographical distribution. These differences are described and discussed. Crossing experiments between the three species were without results. No hybrid could be obtained. Galium silvaticum, Galium aristatum and Galium schultesii must be considered as separate species.

Description: Although a large number of Tortricoid species and several genera from the Indo-Malayan region have been described by earlier authors (Walker, Snellen, Walsingham, Meyrick, and a few others), no survey of the present group has ever been made. Edward Meyrick, the author of most of the new names, has never attempted a synopsis of the Olethreutinae. He made surveys of the Australian and New Zealand Tortricoidea (1911), but the results are too superficial for our modern standards. During a long sojourn, working and collecting in Java, I became greatly fascinated by that fauna. Having completed a number of preliminary studies of the subfamily Tortricinae (1939 et seq.), I turned next to the South Asiatic, especially Javanese, Olethreutinae. After a long delay due to World War II, their revision has been initiated by the study of the two then least known and most confused genera, Bactra Stephens and Lobesia Guenée (Diakonoff, 1950 et seq.).

Description: The 16 recognized species of Sorocea are listed with their synonyms and distribution. Two new taxa are described: S. steinbachii C.C. Berg and S. hirtella Mildbread ssp. oligotricha Akkermans & Berg. Three new combinations are made: S. muriculata Miquel ssp. uaupensis (Baillon) C.C. Berg, S. trophoides W. Burger ssp. rhodorachis (Cuatrecasas) C.C. Berg, and S. sprucei (Baillon) Macbride ssp. saxicola (Hassler) C.C. Berg. A key to the species is presented.

Description: Some rain and savanna forests of western Suriname (Corantijn R., Winana Creek; Upper Marataka R.; Upper Nickerie R;) were studied and their composition was compared with that of forests of other parts of Suriname and Guyana. The savanna forests of western Suriname proved to be much related to Guyanan ( Walabaand Dakama-) savanna forests as described by Davis & Richards (1934) and Fanshawe (1952). On the other hand, there was less relationship as regards rain forests of western Suriname when compared with ones of Guyana and other parts of Suriname, except for the Demerara greenheart forest of the Upper Marataka R., which was closely related to the Demerara greenheart forests of Guyana as described by Davis & Richards (1934). In addition an upland rain forest was studied near Blanche Marie falls, Upper Nickerie R., which proved to be very much like that of the Stofbroekoe Mts., eastern Suriname, as described by Schils (1960). Species/area curves for some rain and savanna forests are given. The geographical distribution of some common western Surinam tree species was studied; of the seventeen species studied one was endemic for Suriname. An annotated list of all species of trees and palms occurring in the explored areas is provided.

Description: Three sections with a total number of four species of the genus Phyllanthus have been examined. The pollen grains show a strong resemblance to each other and also the taxonomic arguments to differentiate between the three sections proved to be rather weak. Because of both palynological and taxonomic reasons the sections Ceramanthus Baillon, Cluytiopsis Mueller Arg. and Anisolobium Mueller Arg. have been united into one section; viz. section Ceramanthus Baillon s.l.

Description: Neohattoria Kamim. is a monotypic genus of the Jubulaceae (= Frullaniaceae) with a single species, N. herzogii (Hatt.) Kamim., known from central to northern Japan and the southern part of the Kurile Islands. The present genus was segregated from Frullania by Kamimura (1961; sub. nom. Hattoria Kamim. nom. illeg., non Schust., 1961) on the basis of the branching type, the shape of the first leaf and underleaf on branch, the total lack of secondary pigmentation, the uniform cell structure of the stem in cross section, and the strongly toothed leaf lobes. The generic concept of Neohattoria was greatly expanded by Schuster (1970), who included eight species and classified them into two subgenera, subgen. Neohattoria (with a single species) and subgen. Microfrullania Schust. (with seven species); however, Hattori et al. (1972) transferred all species of subgen. Microfrullania to a newly segregated genus Schusterella Hatt. et al., thus retaining the monotypic status of Neohattoria. As already described and illustrated by Hattori (1955), Kamimura (1961), Mizutani (1961), Ladyzhenskaja (1963), Schuster (1970), and Hattori et al. (1972), Neohattoria herzogii is closely related to species of both Jubula and Frullania. Regarding the taxonomic desposition of Neohattoria, Mizutani (1961) and Mizutani & Hattori (1969) placed it with Jubula in a subfamily Jubuloideae of Lejeuneaceae and Hattori et al. placed it in Jubulaceae (s. lat.). But, Kamimura (1961), Schuster (1970, 1979), and Guercke (1978) placed it more close to Frullania, e.g. in a subfamily Frullanioideae of Jubulaceae (s. lat.); more recently, Asakawa et al. (1979b), admitting three distinct families, Jubulaceae, Frullaniaceae, and Lejeuneaceae, placed Neohattoria and Jubula in the Jubulaceae (s. str.) but Frullania and Schusterella in the Frullaniaceae.

Description: Dicranella riparia (H. Lindb.) Mårt. & Nyh. is reported for the first time from Greenland, where it was found on a fluvioglacial delta in the Angmagssalik District in plant communities belonging to the association Calamagrosto-Ditrichetum (all. Calamagrostion neglectae). This is the sixth locality known, and the first outside Fennoscandia.

Description: El género Plagiochila (hepatica) esta representada en las Islas Galapagos por ocho (8) especies diferentes: P. bursata (Desv.) Lindenbg., P. galapagona Inoue, P gradsteinii Inoue, P. guilleminiana Mont., P. inouei Grolle, P. scabrifolia Inoue, P. spinifera Ångstr. y P. subplana Lindenbg. El endemismo en este género es más alto que en otros géneros de las hepaticas, con cinco (5) especies que comienzan a conocerse solamente de los Galapagos ( P. galapagona, gradsteinii, scabrifolia, inouei, y spinifera). Las otras tres (3) son comunes y ampliamente distribuidas a lo largo de la America tropical. La mayoría de las especies estan restringidas a las zonas altas-húmedas de vegetación de las Islas Galapagos (matorrales de Zanthoxylum, Miconia y pampa) excepto P. guilleminiana muy común, la cual puede presentarse en la zona seca de transición de bosque. La más amplia variación de Plagiochila ha sido vista en Isabela (Cerro Azul), San Cristobal y Santa Cruz.

Description: The species Polypodium banaense C.Chr. is transferred to Crypsinus. The recognition of a genus Phymatopteris Pic. Ser. (= Phymatopsis J.Sm.) separate from Crypsinus is discussed.

Description: The six species of Curtia, including a hitherto undescribed species published here, as well as the monotypic genus Hockinia can be distinguished from each other by the seed coat structure. The anticlinal walls and the cuticle provide the most useful information. Curtia tenuifolia appears to be a complex species, but subsp. tenella can be readily separated from this complex by the seed coat structure. Heterostyly has been found in C. tenuifolia subsp. tenuifolia, C. obtusifolia, and Hockinia montana, but differences in seed coat structure can not be correlated with long-, short-, and equal-styled flowers. The differences in seed coat structure, the length of the seeds, and the number of cells per seed plead for maintaining Hockinia (closely related to Curtia) as a distinct genus. One new species of Curtia is described and a new combination is made.

Description: SETTEN, A. K. van & KOEK-NOORMAN, J.: Studies in Annonaceae. VI. A leafanatomical survey of genera of Annonaceae in the Neotropics. — Bot. Jahrb. Syst. 108: 17—50. 1986. — ISSN 0006-8152. Within the scope of the multidisciplinary research project on systematics of Annonaceae, a survey of the leafanatomical features and their distribution in the neotropical Annonaceae is presented. The studied specimens form a rather homogeneous group, as may appear from the family description given here. A detailed study of the leafanatomical features reveals, that differences are mainly found in the indument, the position and contents of the idioblasts, the structure of the primary vein, the type of crystals in the epidermal cells, and the type of sclereids. Based on character states, phenetic similarities and differences are discussed and compared with the classifications of FRIES (1959) and WALKER (1971).

Description: One new species of Dorstenia from Brazil is described: D. carautae C.C. Berg, and four new combinations are made: D. cayapia Vellozo subsp. asaroides (Hooker) C.C. Berg, D. cayapia Vellozo subsp. paraguariensis (Hassler) C.C. Berg, D. cayapia Vellozo subsp. vitifolia (Gardner) C.C. Berg, and D. ramosa (Desvaux) Carauta, Valente & Sucre subsp. dolichocaula (Pilger) C.C. Berg. A list of and a key to the 22 Dorstenia species distinguished in south-eastern tropical America are presented, together with synonymy and distributional data.

Description: The samples of the genus Calypogeia in the dutch institutional herbaria and private collections, those of C. arguta excluded, have been re-identified, according to the revision of the Swiss Calypogeias by Bischler (1957); distribution maps are given for all the taxa. More exact circumscriptions are given of several differentiating characters which were already established by previous authors. In C. fissa and C. sphagnicola the areolation of the leaves appeared to be a new differentiating character: in C. fissa the cells in the middle of the leaf show a great variation in length, whereas in C. sphagnicola the cell size is uniform. These differences are shown in histograms. C. muelleriana appeared to be restricted to the diluvial parts of the country, whereas C. fissa is common on both alluvium and diluvium; c. neesiana, C. sphagnicola and C. trichomanis are very rare, so that no clear geographical distribution can be given.

Description: This study deals with the taxa of the section Rubus of the genus Rubus L., so far as they are found in the Guelders district within the flora of the Netherlands. It concerns fifty species and some subspecies and varieties, mainly of the subsections Fruticosi Wimm. et Grab. and Discolores P. J. Müller. The similarity with the bramble-flora of northern Germany is obvious. A number of species, that occur in the latter region are absent however. Species of Central-European hills and mountains are as good as limited to the southern border of the Veluwe, which is mostly considered to belong to the Subcentreuropean district. South-European, often calciphilous species are absent. The nomenclature in the genus Rubus is very confused. There is an abundance of homonyms and synonyms. The number of misidentifications is rather large, meaning that a great deal of the literature is unreliable. The descriptions with many authors are absolutely insufficient, and type-specimens are often with difficulty or not at all to be traced. The difficulties arise from the fact that many taxa are not clearly separated. Some of them are well distinguishable, others are related by transitions. From a geographical point of view there is much difference as well. Some species have as their area almost the whole of Europe, others are limited to a very restricted area. In addition there is a difference in chromosome numbers (from diploids (2n = 14) to hexaploids (2n = 42). Most taxa are tetraploid. The abundance of forms within the section Rubus arises from a partly apomictic, partly amphimictic propagation. To set up some order in all those differences, the author has made the following distinctions: morphologically there are the different ranks of species and infraspecific taxa. Geographically distinctions have been made by means of a code of the capitals A to D inclusive: A indicates the taxa with the largest area, D the local taxa. Cytologically a code of Roman numerals has been given: I for diploids, II for polyploids. Beside the introductory theoretical part a short description of all taxa of the section above the specific rank has been given. All species and infraspecific taxa of this section, that are found to occur in the Guelders district have been described in detail, with mention of the type-specimen. Pictures have been added of the newly described taxa, and of some others as well. Maps of the distribution in the Netherlands of all the taxa have been inserted.

Description: This paper is an addendum to the author’s (1971) paper. At the time that the latter paper was finished, there were difficulties in taking photographs of the newly described male fructifications. Subsequently those difficulties have been solved, and the present paper contains the photographs of the male fructifications of the type specimens of Hastystrobus muirii v. Kon., Masculostrobus harrisii v. Kon., and Pityanthus scalbiensis v. Kon., and the photographs of the male fructifications, as described in the above-mentioned paper, of Ginkgo huttoni (Heer) Sternberg and Brachyphyllum crucis Kendall. All specimens are preserved in the Division of Palaeobotany and Palynology, Botanical Museum and Herbarium, State University, Utrecht, The Netherlands. Most of the photographs were taken with the specimens illuminated obliquely in air, but some were taken with the specimens flooded with oil. This procedure is generally applied when the specimen requires enhancement of contrast, so that details are more evident than if the specimen was photographed dry.

Description: Recently a multidisciplinary investigation program on the systematics of Annonaceae was started at Utrecht with special emphasis on the Neotropics. This project will be carried out largely within the framework of the UNESCO-project Flora Neotronica. The first goal is to provide a modern classification of the family as a whole, the second is the publication of a series of monographs for Flora Neotropica. The project has been planned and started in close consultation with leading botanists on the Neotropical flora. The Annonaceae are a family of pantropical distribution with between 2000 and 2500 species in ca. 130 genera as presently understood. In the Neotropics the family is represented by ca. 750 species and 35 genera. It is a family of trees, shrubs, and lianas. Its place is within the order of the Magnoliales and its supposedly closest relative is the family of the Myristicaceae. The Annonaceae, although generally considered primitive in many features, nevertheless offer a number of specialized features as well This makes it a promising object using various kinds of comparative morphological, karyological, and anatomical data. Besides, many species are of medicinal or commercial value, such as various species of Annona and Rollinia, the fruits of which are commonly eaten in most countries of Central America and South America; the Soursop (Annona muricata) is widely cultivated throughout the tropics.

Description: Since the completion of Radlkofer’s monumental work on the Sapindaceae in Engler’s series “Das Pflanzenreich” 50 years have now elapsed, almost 40 since its publication. It is still the basis of virtually all taxonomic studies in the family. Some of the gerontogean genera have since been the subject of revisional work (Leenhouts 1969, 1971), but for the neogean representatives there are only some regional treatments (e.g. Rambo 1952; Barkley 1957; Reitz 1962; Soukup 1969), apart from descriptions of new taxa scattered through the literature. When studying the taxa native to Suriname in connection with the preparation of a supplement to the family treatment published previously in the “Flora of Suriname” (Uittien 1937) it soon became apparent to me that the genus Talisia was particularly incompletely known when Uittien published his account of the family, actually not much more than an extract from Radlkofer’s work. The number of species known or to be expected from Suriname proved to have doubled; this is not due to inadequateness of Uittien’s work but to much more extensive collecting. Two of the species met with since could not be identified with any species dealt with by Radlkofer or described after his time: these are described as new below. In order to establish that they were truly undescribed the descriptions and, where possible, types and/or other authentic specimens of all species described after Radlkofer were checked. A list of these follows; it may serve as a kind of bibliographic supplement to Radlkofer’s monograph. The two species marked with an asterisk have been posthumously listed in the supplement to his work.

Description: Dicranella staphylina Whitehouse, a species recently described from Great Britain, is now recorded from Belgium, Denmark and The Netherlands. A new combination, Anisothecium staphylinum (Whitehouse) Sipman, Rubers & Riemann, is proposed. A study of the costal anatomy revealed that A. staphylinum in this respect most resembles A. rufescens.

Description: The author studied the morphology of Blackstonia perfoliata s.l. and compared its variability with that of the other representatives of the genus. She also carried out ecological studies of “Blackstonia perfoliata ssp. serotina” on the Dutch island Voorne and compared her results with those in the literature relating to B. perfoliata in some adjacent regions, notably the Upper Rhine area. On morphological and ecological grounds B. perfoliata ssp. perfoliata and ssp. serotina are to be regarded as two distinct species, B. perfoliata and B. acuminata.

Description: In a forthcoming publication (Kramer, in prep.) floristic and taxonomic data of the pteridophyte flora of Suriname will be assembled, with keys and notes on their local distribution and ecological preference. The present paper deals with the geographical distribution of Suriname pteridophytes beyond the boundaries of Suriname (Fig. 2), a subject that lies beyond the scope of a local fern Flora. In the past, some (but relatively not very many) authors of fern Floras included a paragraph on the distribution of the taxa (Posthumus, 1928; Christensen, 1932; Backer & Posthumus, 1939). In some other fern Floras some space is devoted to ecology, but very little to geography (Holttum, 1954). In still others, considerations of a general kind on ecology and geography are altogether lacking (Vareschi, 1969). Lyell (1870), in his rather little-known book on the distribution of ferns, tried to bring together all the data known at his time; his work is now, of course, almost exclusively of historical significance.

Description: A new species of Asterophorum, A. mennegae, is described from the Sipaliwini Savanne (Suriname). The position of Asterophorum within the family is briefly reviewed, and a key to the 2 species is given.

Description: The originally monotypic eastern Malaysian genus Schiffneriolejeunea Verdoorn 1933 has now become a widespread, pantropical group of about fifteen species by the inclusion of species from the genus Ptychocoleus Trev. nom. illeg. Six species are known from Asia, three of which constitute the sect. Saccatae (Verdoorn) Gradst. & Terken comb. nov. These are the widespread Schiffneriolejeunea tumida (Nees) Gradst., the eastern Malaysian S. cumingiana (Mont.) Gradst. and S. nymannii (Steph.) Gradst. & Terken comb. nov. Schiffneriolejeunea tumida is a rather polymorphic species in which two not sharply defined varieties may be distinguished: S. tumida var. tumida with more or less involuted leaf margins, and S. tumida var. haskarliana (Gott.) Gradst. & Terken comb. nov. with plane margins.

Description: Nanocyperion communities (s.l.) are considered here as “warp-and-woof” communities; the Nanocyperion components are described separately as synusiae. On the Netherlands Frisian Islands, four main synusiae have been recognized. Raunkiaer life form spectra show few differences between the communities. Life strategy spectra of the Nanocyperion synusiae, based on systems for phanerogams (modified after Bakker 1966) and bryophytes, yield the clearest patterns. A comparison of the ecology of the communities and an interpretation of the spectra in terms of avoidance of stress or competition suggest that inundations and standing crop of the communities are the main factors determining the distribution of the synusiae. Winter inundations overrule the influence of differences in productivity level, which becomes prominent in drier situations.

Description: The pollen analyse of a raised-bog on the High Vosges crest shows the vegetation regional development since 3200 years. A prehistoric civilization, the Gallo-roman period, the great migrations and the Carolingian period are reflected in the pollen diagram by N.A.P. minima and maxima. A discussion on curves fluctuations of the main A.P. follows.

Description: Cytological investigations within Galium palustre L. showed the occurrence of three cytotypes, a diploid with 2n=24 chromosomes, a tetraploid with 2n=48 and an octoploid with 2n=96. Comparative morphological investigations, together with transplantation and crossing experiments confirmed the complexity of the species. The cytotypes are here considered to be subspecies of Galium palustre L.

Description: The wood descriptions of Juniperus communis L. ssp. communis are compared with those of earlier authors. The average and maximum tracheid lengths and the ray height distribution frequencies offer a means of separating the wood of the erect J. communis L. ssp. communis from that of the subspecies nana Syme with an entirely different habit.

Description: Caudalejeunea grolleana Gradst. spec. nov. from Madagascar is referred to this genus with some doubt because of the absence of gemmiparous branches. Ptychocoleus cristilobus (Steph.) Steph. from S. E. Asia has gemmiparous branches and therefore is a true Caudalejeunea: C. cristiloba (Steph.) comb. nov. This species is remarkable by its complicated ciliate leaflobule and by its polystratose rhizoid-disc. Two subspecies are distinguished: ssp. cristiloba from Burma, Andaman Is., Thailand, and Singapore, and ssp. samoana (Steph.) comb. nov. (Caudalejeunea samoana Steph.) from Samoa. Both C. grolleana and C. cristiloba have a 4-5-carinate perianth, which shows that the trigonous perianth present in most species of Caudalejeunea is not a stable character of this genus.

Description: Dalbergia and Machaerium are two distinct genera. The former genus Ecastophyllum is a distinct entity in the genus Dalbergia. The former genus Drepanocarpus differs from Machaerium only in certain pod characters and is considered as congeneric with it.

Description: Cytologioal investigations within Galium boreale L. showed the occurrence of tetraploids (2n=44) as well as hexaploids (2n=66) in Europe. Comparative morphological studies failed to demonstrate any differences in characters between the two cytotypes. Crosses between the tetraploid and hexaploid were unsuccessful, due to the occurrence of a strong and effective barrier between the two levels of ploidy. From a taxonomical point of view the two cytotypes are considered as to belong to the same taxon.

Description: The chromosome numbers of 67 species of Dutch Angiosperms were determined. Notes on 11 species are added.

Description: The Colombian representatives of the lichen family Parmeliaceae with linear lobes and marginal cilia have been revised. A key is given and morphology, chemistry and distribution are treated of 12 species in three genera: Cetrariastrum Sipm. gen. nov, with C. andense (Kärnef.) Sipm. comb. nov., C. dubitans Sipm. spec. nov. and C. equadoriense (Sant.) Sipm. comb. nov., Everniastrum with E. catawbiense (Degel.) Hale, E. cirrhatum (Fr.) Hale, E. columbiense (Zahlbr.) Hale, E. fragile Sipm. spec. nov., E. planum Sipm. spec. nov., E. sorocheilum (Vain.) Hale and E. vexans (Zahlbr.) Hale, and Parmelina cleefii Sipm. spec. nov. and P. swinscowii (Hale) Hale.

Description: A phytosociological survey based on methods of the Zürich-Montpellier School was carried out in the páramo vegetation of the Cordillera Oriental, Colombia. The study area covers about 10,000 and comprises the páramo between the Nevado de Sumapaz (3°55'N, 4250 m), the Sierra Nevada del Cocuy (6°25'N, 5493 m) and the Páramo del Almorzadero (7°N, 4375 m). The páramo vegetation was studied along various altitudinal transects from the upper forest line (3000-3500 m) up to the lower limit of the snowcap (4800 m). A general description of the study area includes data on geology, geomorphology, soils, climate, flora, phytogeography, morphological characters of the vegetation, fauna and landuse. The evolution and Quaternary history of páramo vegetation and climate is reviewed, incorporating the first data from the Lateglacial and Holocene of the Páramo de Sumapaz. The general altitudinal zonation of the páramo vegetation was studied and is presented for both the dry and the humid side of the Cordillera. The zonal and azonal plant communities are described including their physiognomy, composition and syntaxonomy, habitat and distribution. Eighty five syntaxa from the rank of variant to that of the class are newly described, 17 of which are provisional. The vegetation is not ranked syntaxonomically yet, but described on the basis of preliminary tables. A number of azonal communities, part of them of lesser extent, are described in a similar way. The páramo vegetation is primarily determined by the tropical diurnal high mountain climate. The diversity of the páramo vegetation is related to temperature (altitudinal gradient) and to humidity (dry and wet climate). The presence of zonal bunchgrass páramo, bamboo-bunchgrass páramo or bamboo páramo mainly depends on the complex interrelation between these factors. Finally a synthesis is provided on ecology, morphology and phytogeography of the páramo vegetation of the study area.

Description: With the appearance in 1889 of Engler’s treatment of the Urticales in “Die natürlichen Pflanzenfamilien” there came a pause in the interesting development of the classification of this group, which was defined, albeit somewhat vaguely, by A.L. de Jussieu in 1789 in his “Genera Plantarum” as the order Urticeae. Since the 1830’s, many, including Gaudichaud, Trécul, Miquel, Bureau, Eichler, Baillon, and Bentham, have contributed to the establishment of the Engler system which until recently has been generally accepted. An important moment in this history was the appearance of Trécul’s treatment of the then most problematical group, the “family” Artocarpeae. Trécul (1847) considered the “families” which at that time were distinguished within the “class” Urticineae, viz Moreae, Urticeae, Ulmeae, Celtideae, and Cannabineae, as being very closely related to the Artocarpeae. Along with the Conocephaleae, split off from the Artocarpeae, we find these “families” as tribes of the “class” Urticaceae in the “Genera Plantarum” of Bentham and Hooker (1880) and as subfamilies or families in Engler: the subfamilies Moroideae, Artocarpoideae, Conocephaloideae, and Cannaboideae in the family Moraceae, the subfamilies Ulmoideae and Celtoideae in the family Ulmaceae, and finally the family Urticaceae. Since the end of the last century and until recently no revisions of any large groups of Moraceae and Urticaceae had appeared. But with the development of monographic taxonomic research the system has come out of its static situation, as can be seen from the study by Corner (1962). He proposed a new delimitation of the Moraceae and Urticaceae and another subdivision of the Moraceae sensu stricto.

Description: Nineteen species of Stereocaulon are treated from the northern Andes, mainly from Colombia. Descriptions and keys are given, with notes on the north-Andean distribution and ecology. Seven species are new for the Colombian flora, viz. St. atlanticum, St. claviceps, St. corticatulum (chem. strain with atranorin and perlatolic acid), St. delisei, St. microcarpum, St. pachycephalum and St. pomiferum. St. crambidiocephalum is reported for the first time from Costa Rica, as is St. didymicum from Venezuela, and St. delisei is reported for the first time from the New World (Colombia and Costa Rica). St. cornutum Müll. Arg. is reduced to synonymy under St. pityrizans Nyl.

Description: The wood and leaf anatomy of representatives of the 9 genera of the Opiliaceae are described in detail. It is possible to separate the genera on the base of both wood- and leaf anatomical characters. Herein the presence of cystoliths of varying shape and size is important. Some comments on the taxonomy and possible phylogeny of the familiy are given.

Description: Controversy over the taxonomic relationship of the Taxineae with the Coniferineae has created a new interest in the field of wood anatomy. This has been reflected by the flurry of investigations being conducted in families such as the Podocarpaceae. The systematic position of Amentotaxus is somewhat uncertain (see Keng, 1969). While many authors place Amentotaxus in the Taxaceae, this genus has also been referred to the Cephalotaxaceae or even considered to represent a separate family, the Amentotaxaceae. When Kudo and Yamamoto (1931) described this last family, it was considered to be represented by only a single species, Amentotaxus argotaenia (Hance) Pilger. In his revision of Amentotaxus Li (1952) recognized four species. However, the description and publication of three new species of Amentotaxus based on leaf morphology would appear to have been overly optimistic and has not gone unchallenged. Hu (1964) recognized only three of the species, since she thought that Amentotaxus cathayensis Li could not be usefully upheld as distinct. Moreover, Chuang and Hu (1963) considered that Amentotaxus formosana Li was better referred to Amentotaxus argotaenia (Hance) Pilger. The divergence of opinion has increased the need to investigate any anatomical features that may be of taxonomic importance. In connection with this work it was thought an examination of the wood anatomy would be worthwhile, even though taxonomic evaluation at the subgeneric level is not often successful in this field. A comparative study of the wood anatomy within the genus Amentotaxus is considerably limited by the lack of availability of suitable material; most locations of Amentotaxus are in China. The scanty and now somewhat rare wood specimens were collected before 1935, with the exception of some from Taiwan.

Description: This paper is a preliminary account of investigations on species of Campylopus, mainly from the high Andes of Colombia and from adjacent regions. The studies are based on herbarium specimens, field studies and cultural experiments. The genus Campylopus was founded by Bridel (1819) on the basis of a curved seta only and included, therefore, species of Grimmia and other genera. Later he modified his earlier circumscription (Bridel 1826) so that the genus then contained (except for one uncertain species) only species of Campylopus as known today. A subdivision of the genus was made by Limpricht (1886) based on the structure of the costa as seen in cross section: Pseudocampylopus Costa without stereids, ventral layer of large cells, other cells containing chlorophyll with moderately thickened walls. Campylopus Costa with dorsal stereid groups. Palinocraspis Costa with dorsal and ventral groups of stereids.

Description: Isoëtes Palmeri with a distribution in the High Andes from the Páramo of Venezuela to the Páramo of Ecuador is described as a new taxon, and dedicated to the then American specialist of the genus, Thomas Chalkley Palmer (1860-1934). The new species belongs to the tropical-Andeanaustral-antarctic section Laeves, described as new here as well. The publication of the new species had to be anticipated to the projected monographic treatment of the South-American representatives of the genus Isoëtes, as A.M. Cleef, Utrecht intends to base a new association, the Isoëtetum Palmeri on this new taxon, observed and collected by him at many instances within the Colombian Páramo between 1971 and 1980 in the context of the preparation of his doctoral thesis now under way.

Description: A key is offered to the wood of 35 out of 38 Inga species known from Suriname and the other Guianas. The wood structure indicates that the sections Leptinga, Diadema, Bourgonia and Euinga sensu Bentham are taxonomically sound. Section Pseudinga is unnatural and should be subdivided. The author is in favour of keeping the sections Leptinga and Diadema apart.

Description: Gradstein et al. (1982) propose to conserve four generic names of Lejeuneaceae: Lopholejeunea (Spruce) Schiffn., Acrolejeunea (Spruce) Schiffn., Trachylejeunea (Spruce) Schiffn. and Taxilejeunea (Spruce) Schiffn., each of which was introduced as a subgeneric name in Lejeunea by Spruce (1884), and subsequently raised to generic rank by Schiffner in his treatment of the Hepaticae in Engler-Prantl (preprint 1893) [see proposals to conserve 675-678 see p. 746]. Although Spruce (l.c.) used for his Lejeunea species a binary nomenclature by combining subgeneric names with specific epithets, it is clear (e.g. text, index) that the binomina are meant as Lejeunea combinations and they are considered as such by most authors (see Gradstein et al. for further details). Before 1893, however, the Sprucean subgeneric names were used in various papers by F. Stephani in a “seeming” generic rank; indeed Stephani now and then referred to them as “genus.” A chronological survey of a number of relevant papers by Stephani, mainly those published in Hedwigia, was given by Bonner et al. (1961), in conjunction with a brief discussion of the subject of this paper. These authors were the first to realize that on the basis of Art. 42 ICBN some generic names in Lejeuneaceae, e.g. Taxilejeunea and Trachylejeunea, can be considered as validly published by Stephani in Hedwigia 28, 1889. Later on Grolle (1979) demonstrated valid publication of monotypic new Lejeuneaceae genera by Stephani in the Bot. Gaz. 15, 1890, e.g. Lopho-Lejeunea and Acro-Lejeunea. For an evaluation of the status of Lopho- Lejeunea Steph., Acro-Lejeunea Steph., Trachylejeunea Steph. and Taxilejeunea Steph., one might consider these names against the background of the entire context of Stephani’s work on Lejeuneaceae until 1893. As the survey of Stephani’s papers in Bonner et al. is rather incomplete, and as there are several points of divergence in opinion, a new analysis of Stephani’s relevant papers (before Sep 1893) is presented below.

Description: Peculiar slit-like apertures in the walls of the fibre tracheids of Dicranostyles mildbraediana described in a previous paper, were recognized by the co-author as the result of a ‘soft-rot’ fungal attack. Consequently these structures are not a characteristic feature of this species.

Description: A small set of bryophytes collected on the islands of Malta and Gozo in April-May, 1968, and April, 1969, by K. U. Kramer and L. Y. Th. Westra (Utrecht) was handed to the author for identification. The results are presented here as a supplement to a paper on the vascular plants of the Maltese islands (Kramer et al. 1972). The collections are deposited in the herbarium of the State University of Utrecht. In the past few years many new data have been published on the bryophytes of the Mediterranean islands, cf. Sunding (1967,1971), Koppe (1965), Lübenau & Lübenau (1970), Düll (1967), Gradstein (1971), and Townsend (1965). The liverwort flora of the Mediterranean coasts is being studied thoroughly by Jovet-Ast & Bischler (cf. 1968). Yet the bryophyte flora of the Maltese islands received very little attention in the literature. A brief survey of the main data follows here.

Description: The chromosome numbers of 85 species of flowering plants from the Canary Islands were determined; 5 of the counts turned out to be new. Notes on some species are given. Numbers deviating from previous counts proved to occur in Polycarpaea divaricata (Pit.) Poir. and Koeleria phleoides (Vill.) Pers. 49 counts are new for the Canary Islands and are listed in table 2.

Description: In his introductory statements to 'The Symposium on the Phylogeny and Classification of the Filicopsida' which was held in London, 1972, HOLTTUM, when dealing with 'dubious groups of relationships which would particularly repay investigation', mentioned the Polypodiaceae first (HOLTTUM, 1973: 6). Talking about Polypodiaceae the present authors deal with the Polypodiaceae sensu stricto only, thus excluding the Cheiropleuriaceae, Dipteridaceae, Grammitidaceae, and also the Loxogrammaceae, taxa which were formerly (or are still) included in the Polypodiaceae sensu lato. As delineated in this way, this almost exclusively pantropical family consists of about 600 species and an indefinite number of genera.

Description: The new species Coussapoa manuënsis C.C. Berg is described.

Description: The present paper, the fifth¹) in this series, is a continuation of the documented list of chromosome numbers of Angiospermae occurring in the Netherlands. In this paper 49 species and two hybrids are listed. Some species show variation in chromosome number, as was concluded after comparison of our results with those of other authors [cf. the lists published by Löve and Löve (1961); Cave et al. (1956-1964); Ornduff (1967, 1968, 1969); Solbrig and Gadella (1970); Moore (1970)]. Some notes on 14 species and two hybrids are given.

Description: Until recently relatively little attention has been paid to the study of chromosomes in liverworts. The first substantial contributions were made by Heitz (1927, 1928) and Lorbeer (1934). In the second half of this century chromosome studies on liverworts were mainly carried out in Europe (e.g. Fritsch 1972; Newton 1977, 1979) and Japan (e.g. Tatuno 1959; Segawa 1965a, b, c; Inoue 1968). Inoue (in Koponen 1979) reports that until now 28% of all bryophyte species in Japan have been investigated as to their chromosome complement. A comprehensive, but rather outdated, survey of chromosome numbers in Hepaticae and Anthocerotae was given by Berrie (1960). Work on a new, updated survey is now underway (Fritsch, in prep.). In the present article results are presented of a cytotaxonomic investigation of European species of the genera Aneura and Riccardia (Aneuraceae). Most specimens were gathered in the Netherlands, but some chromosome counts based on French and German plants are also included.

Description: During 1981 the Botanical Survey of India had again collections made. We list them in the same manner as on pages 3559-3560. In Andaman & Nicobar Is.: Great Nicobar, 300 specimens. In Andhra Pradesh: Anantagiri, Endrika Hills, Ganganaju-medugula, Paderu, 1590. In Arunachal Pradesh: Ganganagar, Hapoli, Naharlagan, Namdapha Biosphere Reserve of Tirap Distr., Tamer Road, Tiruli of Subansiri Distr., Ziro, 1054. In West Bengal: areas of Jalpaiguri, Bankura and Midnapur Districts, places of Bangaon, Tantulia and Basirhat of 24-Parganas Districts, Jaldapara Reserve, Totopara, &c., 2240. In Gujrat: Lalpur and vicinity, 1090. In Karnataka: vicinity of S. Karnataka River-Mulla Periyar and catchment areas, 500. In Kerala: Alleppey, Anathode, Cannanore, Devicolam, Kakki, Kasargod, Kokharjam, Munnar Peermade, Muzhiyar, Pachakanam, Pamba Dam areas, Peruvanzuzhi, Ponnambala Medu, Sabarigiri, 4150. In Madhya Pradesh; areas of Panna Distr., 800. In Maharashtra: Bhimsankar, Janar, Purandar, 985. In Meghalaya: Cherrapunjee, Nongapoh, Sunnapahar of Khasi Hills, Jowai, Jorain of Saintea Hills, Tura of Garo Hills Distr., 3500. In Nagaland: areas of Mekokchung, Tuensang, Wokha, Zunbebato Districts, 500. In Rajasthan: Jaisalmer and areas of Barmer Distr., 1000. In Sikkim: Burtuk Busty, Chakung, Changu, Chuten, Enchy Monastery, below Honuman Top, Jorethang, Lower Bustak, Ranipal, Reumtek, Sang Ratepani, Sinchey, Singtham East, Soren, Suntale forests, Tadong, 4800. In Tamil-Nadu: Kannayakumari, Sethur Hills, Srivilliputhur R.F., 2090. In Uttar Pradesh: Agra-Khal, Ballaieri, Chamoli Chakrata, Dudhwa Nat. Park, Govana, Khan-Khaliadha, Mussoorie, Pam Vali-Kantha, Panwali, Parbagi, Rajkhark, Saharshradhara, 2500.

Description: The circular which was enclosed in Bulletin 24 has received full attention of our readers and a large number of cards were received. The large majority favours the continuation of our annotated bibliography as it is, not cutting off references on the Australian and Pacific floras, and not discarding the references on the Cryptogams. A review of Mr. Ferguson’s Index is given on p. 1912. October 21, 1970, Foundation Flora Malesiana existed twenty years. This anniversary was marked by a small festivity in the Rijksherbarium. Although curtailed financially since January 1958, it has kept its promise to promote all studies encompassing progress of the botany and plant geography of the Malesian subcontinent. It is gratifying that with the distinct tendency of the rehabilitation of the economical and political situation in Indonesia during the last few years, science in general, and biology in particular, are getting a new impetus. Amongst others through international agreement and co-operation, two master organisations have been set up, SEAMEC and BIOTROP, the latter being the centre of biological studies and education allotted to Bogor. It is clear that this focus will be a great stimulant and will sponsor biological activity. It was particularly pleasant to learn from Professor Sarwono and Dr. Didin, chairman and secretary of LIPI respectively, that this general scientific rehabilitation scheme included assistance towards the Flora Malesiana Foundation. Although the scientific elaboration of Flora Malesiana has been transferred as a major work project to the Rijksherbarium, a necessity since 1958, there are various desiderata left, amongst others contributions from Indonesian systematists. Unfortunately, the net result of Dr. Kostermans’s efforts to have promising Indonesian students thoroughly trained and prepared to share the tremendous task still before us, is meagre. Two of them, Dr. Soegeng and Dr. Didin, are occupied with very responsible and very necessary but largely administrative tasks, Dr. Prijanto died unexpectedly, and Dr. Soepadmo spends his time largely on educational matters. Clearly something must be done and we trust that in the near future creative work by Indonesian systematists can be resumed. We shall, I sincerely hope, overcome, and the future carries certainly very promising features for a more intense co-operation. And disinterested loyal co-operation is the very basis of ensuring achievement. It is with immense satisfaction that I see this perspective of a bright future ahead.

Description: Dr. W. Meijer, who is Dutch-born, worked in Indonesia from 1951 to 1958, first at Bogor, then at Pajakumbuh, Sumatra, and was Forest Botanist in Sabah for several years, revisited Indonesia with a National Science Foundation travel grant under an NSF-AID (Agency for International Development) program for Scientists and Engineers in Economic Development. The University of Kentucky Research Foundation covered part of the travel costs in Indonesia together with the Regional Center for Tropical Biology (BIOTROP) in Bogor, and Weyerhaeuser Timber Co., which is now also financing the printing at U.K. of a guide on trees in Indonesia which should be an excellent tool for better training of foresters in Dendrology (tree knowledge). The Japanese Sumitomo Timber Company also acted as liaison for Dr. Meijer during his visit to East Kalimantan. Dr. Meijer has written a fully documented final report which he hopes to submit to the Indonesian government through its Academy of Science. Parts of the report will be published in the Indonesian Forestry Journal and in International Nature Conservation Journals. He hopes for continuing support from the University, its Office for International Affairs, and the U.K. Research Foundation to get this report published. Officials in the World Bank in Washington D.C. and the Smithsonian Institution have also expressed great interest in the results of Dr. Meijer’s recent mission to Indonesia. The editor is glad to print this preliminary report:

Description: Because of their fleshy nature, thin leaves and membranous sepals and petals, Impatiens tend to make particularly poor herbarium specimens. If dried while still attached to the leafy part of the plant the flowers generally become badly crumpled and brittle. In such a state their more important characters become unrecognisable, and it is rarely possible to restore them to any useful degree. The leaves may also become badly crushed especially if they are not pressed absolutely flat. The collectors’ time may thus be completely wasted.

Description: Dr. J.A.R. Anderson, who retired from the Sarawak Forest Service, and now lives at 15 Church Hill, Edinburgh EH10 4BG, will continue his interest in Malesian botany and ecology as a consultant forester and ecologist. The MS. of a project on which he had been working for several years is now in the final stage. This is a ”Check List of the Trees of Sarawak”; the scientific names will be coded and alphabetically arranged by families, genera and species, together with a moderately comprehensive list of vernacular names. This should be of value to the Forest Department in Sarawak. Miss P. Aston, senior botanist at the Melbourne Herbarium, is Australian liaison officer at Kew where she will remain until mid-1974. She is specialized in aquatic plants of Australia on which subject she wrote a most informative book (1973) which will be duly reviewed in this journal.

Description: The entries have been split into five categories: a) Algae – b) Fungi & lichenes – c) Bryophytes – d) Pteridophytes – e) Spermatophytes & General subjects. — Books have been marked with an asterisk.

Description: IUCN, says the paper Categories, Objectives and Criteria for Protected Areas, ”is dedicated to the wise use of the Earth’s natural resources and to the maintenance of the Planet’s natural diversity.” What to think of the sequence? Use first, maintain second? And this comes from the International Union for the Conservation of Nature and Natural Resources? ”The World National Parks Congress, taking place in Bali, Indonesia, October 11-22, 1982, will provide case studies from around the world to illustrate how the various categories of protected areas are meeting the needs of countries of all economic, social, cultural, and political backgrounds,” writes J.A. McNeely, the secretary of the Commission on National Parks and Protected Areas, in a special issue of the Swedish journal Ambio (11: 237. 1982). ”No longer just playgrounds for vacationers and means for conserving natural heritage, protected areas have become an inseparable part of the modern human ecosystem.”

Description: Dr. M.M.J. van Balgooy and his companions on the Celebes Expedition, Dr. E. Hennipman, Mr. G.J. de Joncheere and Dr. E.F. de Vogel left Leiden on 5 April 1979, visited the SING and BO-Herbaria on the way. In Celebes visit was paid to Hasanudin University at Ujung Pandang (olim Makassar), in Bali to the Botanical Garden at Bedugul. In the course of August they returned to Holland. See also Exploration. The Botanical Survey of India kindly sent the following list of changes: D.K. Banerjee: to the Industrial Section of the Indian Museum at Calcutta; N. Bhargava: to the Northern Circle, Dehra Dun; U.C. Bhattacharyya: Deputy Director, Northern Circle, Dehra Dun; B.N. Chakraborty: Assistant curator, Industrial Section, Indian Museum, Calcutta; U. Chatterjee: Botanist, Eastern Circle, Shillong; Mrs. Dr. S.J. Das: Botanist, Eastern Circle, Shillong; P.K. Hajra: to HQ, Howrah; B. Krishna: to HQ, Howrah; Ram Lall: Botanist, Central Circle, Allahabad; C.L. Malhotra: to Northern Circle, Dehra Dun; P.C. Pant: to Northern Circle, Dehra Dun; B.B. Pramanick: Botanist, CAL-Herbarium, Howrah; M.K.V. Rao: to Andaman Circle, Port Blair; Dr. G.P. Roy: to Central Circle, Allahabad; B.D. Sharma: Deputy Director, Western Circle, Poona; Dr. R.C. Srivastava: Systematic Botanist, Eastern Circle, Shillong; C.R. Tarafder: Botanist, CAL-Herbarium, Howrah. Proficiat to all!

Description: Harold St. John has (in Le Naturaliste Canadien 98, 1971, 571-580) given an evaluation of J.R. & G. Forster plants described in their Characteres generum which is newly dated to have been issued March 1, 1776. We feel induced to correct some inaccuracies. Gingidium montanum (l.c. 574, no. 21) — later transferred to Ligusticum as L. gingidium by Forster f., Prod. (1736) 22; DC., Prod. 4 (1830) 159, as an illegitimate homotypic synonym — is unnecessarily named as a new (superfluous) combination Angelica forsteriana St. John. Hooker f., Handb. New Zeal.Fl. (1867) 97, had this (according to the present Code, art. 72) correctly named Angelica gingidium, as because of the earlier Angelica montana Brot. (1804) he could not use the epithet montanum. For the rest Dawson (New Zeal.J.Bot. 5, 1967, 90) has reinstated the generic name Gingidium. He has still more recently changed the name Gingidium Forst., non Hill (1756), into Gingidia as Hill’s herbal has been said to be declared nomenclaturally valid.

Description: The entries have been split into five categories: a) Algae — b) Fungi & Lichens — c) Bryophytes — d) Pteridophytes — e) Spermatophytes & General subjects. — Books have been marked with an asterisk. The SEM-observation of plant material normally requires dehydrated, dry specimens coated with carbon or metal. Unfortunately, the standard drying methods (including the critical-point-drying-technique) often cause shrinking and deformation of the specimen surface; therefore, SEMstudies on plant ontogeny are rather difficult, material- and time-consuming. Experiments using deep-frozen specimens have been carried out in England and in the USA, but have proved not satisfying.

Description: Mrs. Delia D. Adefuin, Museum Research Assistant, Manila, is pursuing her M.S. in Botany degree. She is currently the Secretary of the Fern Society of the Philippines. She is working on the Fern Flora of Metro Manila and is preparing the manuscript of a pictorial encyclopedia which will include descriptions of species and horticultural recommendations. Miss Barbro Axelius (S) collected and studied Xanthophytum and Lerchea (Rubiaceae) in Sarawak, Kalimantan and Sumatra, August 1982- February 1983.

Description: Tropical Botany in Aberdeen University. This was started by Professor J.W.H. Trail, who held the chair from 1877 to 1919, and travelled in the Amazon Valley (1873-75) mainly collecting cryptogams and studying palms. He was succeeded by Prof. W.G. Craib (1920-33) who was never in the tropics but devoted his work to the Flora of Siam, based on the collections of A.F.G. Kerr, and assisted by Miss E.C. Barnett. After a considerable lag, tropical botany was revived by the energetic efforts of Dr. P. Ashton as lecturer in systematics and ecology of the eastern tropics, establishing ties with Malayan colleges in teaching and research. This is at present perpetuated by two lecturers, Dr. K. Jong and Dr. M.D. Swaine, the latter’s experience lying largely in the tropics of West Africa. In addition Dr. N.M. Pritchard, Dr. J.B. Kenworthy and Dr. G. Hadley have been on secondment to the University of Malaya, while Dr. I. Alexander made research visits to India, Ghana and Peru. Over the years the Department has provided undergraduate and research training to innumerable students from many different tropical countries, some of which attained responsible posts, e.g. Prof. E. Soepadmo. Important courses in tropical biology are given, not available elsewhere in the U.K. (started 1973). The benefits for Aberdeen students is important: amongst others they led to expeditions to various parts of the tropics, recently to Sabah and to the Ivory Coast. Royal Society Tropical Rain Forest Collaborative Research Programme. Arising out of a feasibility study by Dr. T.C. Whitmore and P.F. Cockburn, the theme ’Recovery of tropical rain forest after disturbance’ was adopted as the initial basis of the programme. Possible territories for the research include Sabah and the Philippines. Detailed plans for a 5-year project are being prepared in consultation with colleagues in Southeast Asia.

Description: ANDERSON, J.A.R., A checklist of the trees of Sarawak, 364 pp. (1983, Dewan Bahasa dan Pustaka Cawangan Sarawak, for Forest Department, Kuching, Sarawak). Cloth Mal$ 15.00. When Dr. Anderson retired from the Forest Department in 1973 he left the manuscript of this checklist for publication. Unfortunately publication was delayed for 10 years. It contains data on over 2500 arboreous plant species. The text consists mainly of two parts: the first is a list of vernacular names with their scientific equivalents, the second is a list of plant names alphabetically arranged by family. Each species is concisely annotated with its vernacular name(s), maximum diameter, ecology, frequency, soils, etc. Species names have been coded: the first two figures are for the family, the next two for the genus and the last two for the species. A list is given of the trees of the peat-swamp forests of which Anderson was a great expert. A small draw-back is that the literature of the last ten years has not been included. Nevertheless this is a most helpful book. — C.G.G.J. van Steenis.

Description: Loss of species is the key issue of conservation. Contrary to misuse of land which is visible to anybody with eyes to see, the issue of extinction is sly, treacherous, and open to clear perception only for experts. It touches on quality, and reaches far out in time: hard things to grasp for non-biologists. Thus an extra responsibility devolves on those who are in a position to know and to speak. The value of the genetic resource base has been set forth in e.g. the book by O.H. Frankel & E. Bennett, Genetic resources in plants (1970), and in the BIOTROP symposium edited by J.T. Williams e.a., South East Asian plant genetic resources (1975); Myers adds many striking facts: half the prescriptions in the U.S.A. contain a drug of natural origin. The cardiac drug reserpine, from Rauvolfia, costs $ 1.25 per gram to synthesize, $ 0.75 from natural sources. The anti-polio vaccin was developed in experiments in chimpanzees. The Amerindians in Amazonia know 750 medicinal plant species. Now the possibility of massive destruction of tropical forests — where most species are located — casts some frightening shadows on the future. The question how to cope with the threat appears to be connected with human ethics and the international order. Consequently, most publications on the subject suffer from a partial lack of maturity: don’t look to Myers for ethics, nor to the Routleys for biology. It seems therefore advisable that on the part of all disciplines a common fund of knowledge and insight be built up. In my efforts, great stimulation was received from correspondence with Dr. Willem Meijer (Botany, University of Kentucky, Lexington, Ky. 40506, U.S.A.), who in his disinterested manner never fails to come up with things true and shocking.

Description: History. In order to understand its present function, a short historical account is necessary. Bibliotheca Bogoriensis is the oldest science library in Indonesia, established in 1842 at the proposal of J.K. Hasskarl, assistant hortulanus of the ’s-Lands Plantentuin in Buitenzorg, West Java (now called Kebun Raya Indonesia Bogor). The very first 25 books were bought from Dr. Jacques Pierot, a botanist who was sent by the Dutch Government to China. Ever since many visiting botanists left or sold their book collection, the reason why Bibliotheca avails of fine old antiquarian books in the field of botany. Among the library’s treasures are the reprint collection belonging to Melchior Treub with his own hand-written catalogue, as well as his correspondence, and all his awards received from many countries and scientific societies in the world.

Description: It is with the utmost regret that we announce the sudden and quite unexpected death of Dr. Marius Jacobs, editor of this Bulletin. See the obituary on page 3869. He was co-editor of the Flora Malesiana Bulletin for nr. 17 (1962) to nr. 22 (1968) and took full responsibility onwards of nr. 27 (1974). He showed great ability in enlarging its scope and we have many letters in our archives expressing appreciation and admiration for the lively and informative style in which he edited the Bulletin. I had to take over the editorial work for this number at short notice, but I was greatly helped by a number of Rijksherbarium colleagues, which help is gratefully acknowledged. In this way the delay has been kept to a minimum. It is, however, possible that some news items etc. have not been printed and that information submitted to Dr. Jacobs has not been entered due to this sudden change of editorship. I offer my apologies if this has happened and hope that (if still relevant) the news will again be forwarded to the new editor, Dr. J.F. Veldkamp, Rijksherbarium, who will take over starting next number.

Description: Apocynaceae wanted — pickled. Mary E. Fallen, Systematische Botanik, Zollikerstrasse 107, CH-8008 Zürich, Switzerland, who has done considerable morphological work on development of the reproductive organs in Apocynaceae, has been frustrated in her many efforts to obtain suitable material of Lepinia and Lepiniopsis. Ample information on both can be found in Pacific Plant Areas 3, Blumea Suppl. 5 (1966) 112-113, with map and description. The very oddly shaped fruit of Lepinia (W. Pacific) has been depicted in Blumea 11 (1962) 302, Van Steenis’s paper on the Land Bridge Theory. The one of Lepiniopsis (E. Malesia) seems to be buoyant. Also material of Anechites (Central America) is needed; it may be closely related to Condylocarpon. Any stages of flowers can be used, from tiny green buds at initiation up through anthesis, as well as fruiting stages. They should be pickled in FAA. Expenses of handling and postage will gladly be refunded. Vials with the liquid can be provided. Thanks on her behalf!

Description: In mid-1971 Dr. K. Iwatsuki made a four-weeks’ collecting trip in Thailand, 10 Sept.- 10 Oct. From Oct. 1971 till mid-January 1972 a joint Leyden exploring expedition was made by Mr. C.P. van Beusekom and Mr. R. Geesink to various parts of Thailand.

Description: I must apologize that this Bulletin appears late. Material had been assembled for it and I had anticipated to compose this number about Christmas 1971. But on my birthday, 31 Oct. 1971, it was announced as a complete surprise that the firm of Brill was authorised to publish a book on the Javanese Mountain Flora of which the core is 57 hand-coloured plates on which 456 different species are depicted. The fieldwork was done, and drawings were composed in 1939-1941. After the war no publisher could be found; a precursor with 4 plates appeared in Endeavour (21, 1962, 183-193). The condition attached to this allowance was that I should promise stante pede to deliver the text by end December 1971 or at least as soon as possible, because the promotors of the plan intended to present me with the printed book on the occasion of my retiring from office, 1 Sept. 1972. So the rather peculiar situation arose that I had to make my own present. With my already tight time schedule for my last year of office I hesitatingly agreed. The available text was, however, very incomplete, having been written in the war prison camp, thirty years ago. Moreover it was at that time intended to be very popular for a pocket size atlas, as Schröter’s ’Pflanzenführer fur Alpenwanderer’ which had stood model for the purpose. With the generous life-size plates and folio format book now envisaged to edit, this text had to be completely rewritten in much enlarged scope and all captions carefully checked with the present literature and with the herbarium. Though the plates are explained by the captions, the general text also needed illustration and so figures had to be made or selected and photographs sorted. I had to give this project absolute priority. Notwithstanding the most liberal assistance rendered to me by my senior staff members, to whom I could entrust several time-consuming official duties, the composition of the text was real slave labour for seven days a week until late for five months. The captions were delivered end January, the general text May 22nd. The colour plates are printed and come out magnificently, practically as good as the original water-colour drawings, and the captions are by now in page proof, so that I hope the work will indeed be printed early September and available in October. Publication of Flora Malesiana proceeds well. In April 1971 the third instalment of the Fern volume appeared (Lindsaea-group by Dr. Kramer) and the text for a fourth instalment by Prof. Holttum & Drs. Hennipman is almost finished in MS. The final instalment of vol. 6 is in press and will appear presumably in September. Of vol. 7 the first instalment containing revisions of 12 families appeared in Jan. 1972. The second instalment of vol. 7 is in print (Fagaceae, Passifloraceae) and will appear in autumn. There is the prospect of publishing in the rather near future three very large families: Moraceae, Cyperaceae and Dipterocarpaceae. From the third chapter of this Bulletin it can be observed that progress with revisional work is satisfactory, though speed of publication still falls short of my expectation.

Description: Families and higher taxa have been entered under their name. Names of families which have been revised in volumes 4, 5, 6, and 7 have been entered and are printed in bold type, so that as far as this is concerned this index is complete for all preceding volumes as well.

Description: Small evergreen trees, shrubs or lianas; two genera ( Cansjera and Opilia) are known to be root-parasites. Leaves distichous, simple, usually extremely variable in form and size, entire, exstipulate, pinnately veined; dried leaves mostly finely tubercled by cystoliths located in the mesophyll. Inflorescences axillary or cauliflorous, panicle-like, racemose, umbellate (in Africa) or spicate; bracts narrowly ovate or scale-like, in Opilia peltate, often early caducous. Flowers small, (3—) 4—5) (—6)-merous, mainly bisexual, sometimes unisexual and plants then dioecious ( Gjellerupia, Melientha, and Agonandra) or gynodioecious (Champereia). Perianth with valvate, free or sometimes partly united tepals (in ♀ flowers of Gjellerupia wanting). Stamens as many as and opposite to the tepals (in ♀ flowers only small staminodes); anthers introrse, 2-celled, longitudinally dehiscent. Disk intrastaminal, lobed (lobes alternating with the stamens), annular, or cupular. Ovary superior, 1-celled; style short or none, stigma entire or shallowly lobed. Ovule 1, pendulous from the apex of a central placenta, anatropous, unitegmic and tenuinucellar. Fruit drupaceous, pericarp rather thin, mesocarp ± fleshy-juicy, endocarp woody or crustaceous. Seed large, conform to the drupe, without testa; hilum basal, often in a funnel-shaped cavity. Embryo terete, embedded in rich, oily endosperm, nearly as long as the seed or shorter, with 3—4 linear cotyledons, radicle often very short. Distribution. There are 9 genera with about 30 spp., widespread in the tropics. Rhopalopilia is restricted to Africa and Madagascar, Agonandra to South and Central America. In Malesia: 7 genera, 5 of these only known from the eastern Old World (1 endemic: Gjellerupia in New Guinea); Opilia and Urobotrya occur also in tropical Africa.

Description: Monoecious, medium-sized to very large trees (rarely shrubby in very exposed situations). Either four independent cotyledons or two fused pairs (which may be retained in the seed after germination). The growing point of foliage shoots quite distinct between the two genera, being just a few highly reduced leaves in Araucaria and a highly organized bud formed of overlapping scales in Agathis. The leaves vary from scales or needles to broad leathery forms with many parallel veins sometimes on the same plant at different stages of growth. Pollen produced in cylindrical cones from one to as much as twenty cm long with numerous pedunculate spirally placed microsporophylls each with several to many pendent elongated pollen sacs attached to the lower side of an enlarged shieldlike apex which also projects apically more or less overlapping the adjacent microsporophylls. Pollen cones solitary, terminal or lateral, on branches separate from those bearing seed cones, subtended by a cluster of more or less modified leaves in the form of scales, deciduous when mature. Pollen globular, without ‘wings’. Seeds produced in large, well-formed cones which disintegrate when mature, dispensing the seeds in most cases with the help of wing-like structures; the seed cone terminal on a robust shoot or peduncle with more or less modified leaves that change in a brief transition zone at the base of the cone into cone bracts, formed of numerous spirally-placed bract complexes, usually maturing in the second year. Individual seed cone bract leathery or woody and fused with the fertile scale which bears one large inverted seed on its upper surface. Distribution. The 40 species in two genera are well represented in Malesia (13 spp.) and extend eastward and southward into Fiji, New Caledonia (18 spp.), Australia, and New Zealand, with 2 spp. also in the cooler parts of South America, giving the family a distinct Antarctic relationship. Only one species of Araucaria (in South America) occurs completely outside of the tropics, while the majority of the species in the family belong in the lowland tropics and others grow in the tropical highlands.

Description: In the past century Cornaceae were mostly delimited in a wide sense and they represented a fairly heterogeneous assemblage. HARMS (Ber. Deut. Bot. Ges. 15, 1897, 28 and in E. & P. Nat. Pfl. Fam. 3, 8, 1898, 255) distinguished 7 subfamilies. Of these Garryoideae were later mostly recognized as a separate family Garryaceae, as Alangioideae Alangiaceae, Nyssoideae and Davidioideae together as Nyssaceae, leaving Cornaceae with the remaining three subfamilies Cornoideae, Curtisioideae (monotypic, South Africa) and Mastixioideae (monotypic, Indo-Malesian tropics). Cf. WANGERIN, Pfl. Reich Heft 414 (1910) 18. In recent years, however, the other genera (6) of the Cornoideae, besides Cornus, have also been recognized as monotypic families, with the exception of Corokia which was transferred to Saxifragaceae-Escallonioideae. Notably TAKHTAJAN (Proiskh. Prokruitosem. Rast.: 89, non vidi) is in favour of these monotypic families. In his ‘Flowering Plants’ (ed. C. JEFFREY; 1969: 227) he accepted 7 segregate families besides Cornaceae sens. str. (omitting mention of two Madagascan genera, one of which he had formerly also raised to family rank, according to SHAW, 1973). These 7 families he arranged, together with Araliaceae and Umbelliferae, in the order Cornales, a phylogenetic construction of affinity not much different from earlier conceptions. The general impression is thus that the distinction of the segregate families is largely an inflation in rank.

Description: Monoecious trees or rarely shrubs, in Mai. evergreen, sometimes buttressed or with stilt-roots; growth mode flushwise, with perular buds. Hairs simple or stellate or fasciculate, rarely with resiniferous colleters, or scales on pits on the underside of the leaf. Leaves simple, spirally arranged, rarely in whorls of 3 or distichous, sometimes crowded near the top of each flush, penninerved, in Mal. entire or rarely crenate or sinuate. Stipules present, caducous or rarely rather long persistent, rarely interpetiolar or peltately attached. Inflorescence a cyme or a simple or branched spike, bracteate, ♂, ♀, androgynous (with the ♀ flowers borne on the lower part) or mixed. Flowers unisexual or functionally so. — ♂ Flowers: solitary or in dichasial clusters of 2-30 along the rachis, sessile or pedicelled; perianth campanulate or tubular, 6(-9)-lobed, or irregularly incised; stamens (4-)6-12(-90), filaments filiform, long exserted, free or rarely connate at the base; anthers linear to reniform, dorsi- or basifixed, lengthwise dehiscent; pistillode absent or present, densely hairy. — ♀ Flowers: sessile, solitary or in dichasial clusters of 2-15, surrounded by a cupule; ovary inferior, 2-6(-9)-celled, usually hairy; ovules anatropous, 2 per cell, apical and collateral; perianth usually regularly 6-lobed, sometimes poorly developed; staminodes 6-12, or absent; styles as many as ovary cells, terete, rather short, conical or tongue-shaped; stigmas capitate, punctiform, or covering the inner surface of the styles. Cupules solitary or in dichasial clusters, often woody, rarely reduced or absent, from saucer- or cup-shaped to enclosing the fruit, indehiscent or splitting into 2-8 or more ± equal segments, rarely consisting of 2 free segments, variously muricate, spiny, squamose, or with concentric or spiral lamellae, very rarely almost smooth. Fruit an indehiscent nut (achene), 1-3-celled, sometimes falsely multiseptate, rounded or sharply 2-3-angular. Seed one, exalbuminous; embryo-large; cotyledons large, flat-convex, plicate or ruminate; germination epigeal or hypogeal. Recent distribution. Seven genera with possibly c. 700 spp., the majority on the northern hemisphere. In the Old World the distribution extends southwards from 62°N in Scandinavia southheastwards to Kashmir and then northeastwards to the Sea of Okhotsk at c. 55°N. In Africa, Fagaceae are confined to the northern rim in the western Mediterranean region. In Asia Fagaceae are absent from the dry parts of the Middle East, from the Deccan Peninsula and Ceylon, from the desert and colder parts of China, from Manchuria, and from the extreme northern parts of Japan. In America, the distribution extends from Canada and the United States southwards to Central America, as far south as a few scattered localities in Columbia, in South America. On the southern hemisphere, Fageceae are present in Malesia, in the scarce wet parts of East Australia, in Tasmania, New Caledonia, and in New Zealand (otherwise absent from Pacific islands); in South America they occur from Fuegia and Staten I. northwards to Argentina and on the western slopes of the Andes in Chile up to 33°S. Fig. 1.

Description: Asher’s Guide to botanical periodicals is a 3-weekly printed announcement of articles published in more than five thousand selected periodicals, in the field of: anatomy bibliography botanical history cytology dendrology ecology economic botany evolution floristics horticulture hydrobiology limnology medical mycology microbiology morphology palaeobotany palynology personalia pharmaceutical botany phytochemistry phytogenetics phytogeography plant physiology plant taxonomy toxicology Symposium and Congress Proceedings also to be included in the journal. An author index and plant name index taken from the titles of the articles will be added annually.

Description: The Botanical Survey of India continued to make collections during 1982, with the following results: Andaman & Nicobar Is.: Shola Bag, Mt Harriet, Jirkathang, Poona Nallah, Saddle peak, Diglipur, Rutland I. & Little I., 2875 specimens. Arunachal Pradesh: Various areas of Kameng Distr., Subansiri Distr., 9750 specimens. Assam: Garampani, 60 specimens. West Bengal: Darjeeling, Jalpaiguri, Hollong, Jaldapara, Chilapata, Salkumar, Daidaighat, Barasat, 2665 specimens. Bihar: Madhuban, Nimiaghat, Paresnath Hills, 315 specimens. Dehra Dun: Chakrata, Missoori, 325 specimens. Gujrat: Catchment and submergence areas of Sipu Reservoir Project, 1505 specimens. Kerala: Trichur, Idduki, Silent Valley, Valra Reserve Forest, Cannanore, Trivandrum, 3770 specimens. Madhya Pradesh: Kanha National Park, Chhodarpur Distr., 1190 specimens. Maharashtra: Areas of Jalgaon Distr. and Buldhana Distr., 4390 specimens. Manipur: Cherrapunjee, Mawphlong, Sorharim, areas of West Khasi Hills Districts, 2000 specimens. Rajasthan: Bharatpur, Desert National Park, 1605 specimens. Sikkim: Rangpo, Singtham, Bumbing, Manuring, Duga, Pandam, Takchi, Meli, areas of Gangtok, Chungtham, Lachi, Thanga, Panthang, 2590 specimens. Uttar Pradesh: Gori & Kali Valley, Chittoragarh Distr., 500 specimens.