Plant-Pollinator Interactions in East Asia: a Review
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Energy Gardens for Small-Scale Farmers in Nepal Institutions, Species and Technology Fieldwork Report
Energy Gardens for Small-Scale Farmers in Nepal Institutions, Species and Technology Fieldwork Report Bishnu Pariyar, Krishna K. Shrestha, Bishnu Rijal, Laxmi Raj Joshi, Kusang Tamang, Sudarshan Khanal and Punyawati Ramtel Abbreviations and Acronyms AEPC Alternative Energy Promotion Centre ANSAB Asia Pacific Network for Sustainable Bio Resources BGCI Botanical Gardens Conservation International CFUG/s Community Forestry User Group/s DFID Department of International Development, UK Government DFO District Forest Office DPR Department of Plant Resources ESON Ethnobotanical Society of Nepal ESRC Economic and Social Research Council FECOFUN Federation of Community Forestry Users Nepal FEDO Feminist Dalit Organization GHG Green House Gas GoN Government of Nepal I/NGOs International/Non-Government Organizations KATH National Herbarium and Plant Laboratories MSFP Multi Stakeholder Forestry Programme NAST Nepal Academy of Science and Technology NRs Nepalese Rupees PTA Power Trade Agreement RECAST Research Centre for Applied Science and Technology, Tribhuvan University Acknowledgement We are very grateful to Department for International Development (DfID) and Economic and Social Research Council (ESRC) of the United Kingdom for providing funding for this project through ESRC-DFID Development Frontiers Research Fund - Grant reference: ES/K011812/1. Executive Summary Whilst access to clean energy is considered a fundamental to improve human welfare and protect environment, yet a significant proportion of people mostly in developing lack access to -
UPDATED 18Th February 2013
7th February 2015 Welcome to my new seed trade list for 2014-15. 12, 13 and 14 in brackets indicates the harvesting year for the seed. Concerning seed quantity: as I don't have many plants of each species, seed quantity is limited in most cases. Therefore, for some species you may only get a few seeds. Many species are harvested in my garden. Others are surplus from trade and purchase. OUT: Means out of stock. Sometimes I sell surplus seed (if time allows), although this is unlikely this season. NB! Cultivars do not always come true. I offer them anyway, but no guarantees to what you will get! Botanical Name (year of harvest) NB! Traditional vegetables are at the end of the list with (mostly) common English names first. Acanthopanax henryi (14) Achillea sibirica (13) Aconitum lamarckii (12) Achyranthes aspera (14, 13) Adenophora khasiana (13) Adenophora triphylla (13) Agastache anisata (14,13)N Agastache anisata alba (13)N Agastache rugosa (Ex-Japan) (13) (two varieties) Agrostemma githago (13)1 Alcea rosea “Nigra” (13) Allium albidum (13) Allium altissimum (Persian Shallot) (14) Allium atroviolaceum (13) Allium beesianum (14,12) Allium brevistylum (14) Allium caeruleum (14)E Allium carinatum ssp. pulchellum (14) Allium carinatum ssp. pulchellum album (14)E Allium carolinianum (13)N Allium cernuum mix (14) E/N Allium cernuum “Dark Scape” (14)E Allium cernuum ‘Dwarf White” (14)E Allium cernuum ‘Pink Giant’ (14)N Allium cernuum x stellatum (14)E (received as cernuum , but it looks like a hybrid with stellatum, from SSE, OR KA A) Allium cernuum x stellatum (14)E (received as cernuum from a local garden centre) Allium clathratum (13) Allium crenulatum (13) Wild coll. -
Bletilla Striata (Orchidaceae) Seed Coat Restricts the Invasion of Fungal Hyphae at the Initial Stage of Fungal Colonization
plants Article Bletilla striata (Orchidaceae) Seed Coat Restricts the Invasion of Fungal Hyphae at the Initial Stage of Fungal Colonization Chihiro Miura 1, Miharu Saisho 1, Takahiro Yagame 2, Masahide Yamato 3 and Hironori Kaminaka 1,* 1 Faculty of Agriculture, Tottori University, 4-101 Koyama Minami, Tottori 680-8553, Japan 2 Mizuho Kyo-do Museum, 316-5 Komagatafujiyama, Mizuho, Tokyo 190-1202, Japan 3 Faculty of Education, Chiba University, 1-33 Yayoicho, Inage-ku, Chiba 263-8522, Japan * Correspondence: [email protected]; Tel.: +81-857-31-5378 Received: 24 June 2019; Accepted: 8 August 2019; Published: 11 August 2019 Abstract: Orchids produce minute seeds that contain limited or no endosperm, and they must form an association with symbiotic fungi to obtain nutrients during germination and subsequent seedling growth under natural conditions. Orchids need to select an appropriate fungus among diverse soil fungi at the germination stage. However, there is limited understanding of the process by which orchids recruit fungal associates and initiate the symbiotic interaction. This study aimed to better understand this process by focusing on the seed coat, the first point of fungal attachment. Bletilla striata seeds, some with the seed coat removed, were prepared and sown with symbiotic fungi or with pathogenic fungi. The seed coat-stripped seeds inoculated with the symbiotic fungi showed a lower germination rate than the intact seeds, and proliferated fungal hyphae were observed inside and around the stripped seeds. Inoculation with the pathogenic fungi increased the infection rate in the seed coat-stripped seeds. The pathogenic fungal hyphae were arrested at the suspensor side of the intact seeds, whereas the seed coat-stripped seeds were subjected to severe infestation. -
A Review of Alocasia (Araceae: Colocasieae) for Thailand Including a Novel Species and New Species Records from South-West Thailand
THAI FOR. BULL. (BOT.) 36: 1–17. 2008. A review of Alocasia (Araceae: Colocasieae) for Thailand including a novel species and new species records from South-West Thailand PETER C. BOYCE* ABSTRACT. A review of Alocasia in Thailand is presented. One new species (A. hypoleuca) and three new records (A. acuminata, A. hypnosa & A. perakensis) are reported. A key to Alocasia in Thailand is presented and the new species is illustrated. INTRODUCTION Alocasia is a genus of in excess of 100 species of herbaceous, laticiferous, diminutive to gigantic, usually robust herbs. The genus has recently been revised for New Guinea (Hay, 1990), Australasia (Hay & Wise, 1991), West Malesia and Sulawesi (Hay, 1998), the Philippines (Hay, 1999) while post main-treatment novelties have been described for New Guinea (Hay, 1994) Borneo (Hay, Boyce & Wong, 1997; Hay, 2000; Boyce, 2007) & Sulawesi (Yuzammi & Hay, 1998). Currently the genus is least well understood in the trans-Himalaya (NE India to SW China) including the northern parts of Burma, Thailand, Lao PDR and Vietnam with only the flora of Bhutan (Noltie, 1994) partly covering this range. In the absence of extensive fieldwork the account presented here for Thailand can at best be regarded as provisional. STRUCTURE & TERMINOLOGY Alocasia plants are often complex in vegetative and floral structure and some notes on their morphology (based here substantially on Hay, 1998) are useful to aid identification. The stem of Alocasia, typically of most Araceae, is a physiognomically unbranched sympodium. The number of foliage leaves per module is variable between and within species and individuals, but during flowering episodes in some species it may be reduced to one. -
Minireview Paper Golden Camellias
1 1 Minireview Paper 2 Golden Camellias: A Review 3 4 ABSTRACT 5 Golden camellias or yellow camellias are species belonging to genus Camellia L., family 6 Theaceae. Fifty two species were described in southern China and Vietnam. Active 7 ingredients such as polysaccharides, polyphenols, tea saponins, and flavonoids are well 8 known characteristics of golden camellias. Its leaves and flowers have been long 9 traditionally used for health improvement. It was found to be able to inhibit the 10 transplanted cancer, lower blood pressure, lower blood lipid, lower cholesterol, and 11 prevent atherosclerosis. Currently, it cost 320-700US$ per one kg of dry flowers. Such 12 price attracts many local ethnic people to plant golden camellias for poverty reduction. 13 This work reviews (1) species and natural distribution, (2) uses and healthcare values, (3) 14 techniques for seedling production, planting and tending, and (4) opportunities and 15 challenges for future development of golden camellias. 16 17 Keywords: Active ingredient; Camellia L.; poverty reduction; shade-tolerant species; yellow flower. 2 18 1. SPECIES AND NATURAL DISTRIBUTION 19 Golden camellias or yellow camellias are shrubs and small-sized trees belonging to genus 20 Camellia L [1], family Theaceae [2-8]. Golden camellias have light to heavy yellow 21 flowers (Fig. 1) and are 3-12 m tall at maturity in natural distribution conditions. The size 22 of flowers are different among species from 1 to 10 cm in diameter (Fig. 1). About 52 23 species (Table 1) of golden camellias have been described in southern China and Vietnam. 24 Of which, nearly 40 species have natural distribution in Vietnam. -
Fl. China 23: 75–79. 2010. 25. ALOCASIA (Schott) G. Don in Sweet, Hort. Brit., Ed. 3, 631. 1839, Nom. Cons., Not Necker Ex Ra
Fl. China 23: 75–79. 2010. 25. ALOCASIA (Schott) G. Don in Sweet, Hort. Brit., ed. 3, 631. 1839, nom. cons., not Necker ex Rafinesque (1837). 海芋属 hai yu shu Li Heng (李恒 Li Hen); Peter C. Boyce Colocasia sect. Alocasia Schott in Schott & Endlicher, Melet. Bot. 18. 1832; Ensolenanthe Schott; Panzhuyuia Z. Y. Zhu; Schizocasia Schott ex Engler; Xenophya Schott. Herbs, evergreen, rarely seasonally dormant, latex-bearing, medium sized to rarely arborescent and gigantic. Stem thick, often hypogeal, sometimes stoloniferous and bulbiferous, epigeal stem usually erect and later decumbent, rather less often elongated and creeping. Leaves few to several in terminal crown, less often scattered, sometimes each subtended by a cataphyll; petiole long [sometimes minutely asperous, minutely puberulent, or glandular], sheath relatively long; leaf blade sometimes pubescent abaxially, juvenile blade peltate, at maturity usually sagittate, less often ± hastate or cordate, but remaining peltate in some species, margin entire or sinuate [or slightly to deeply pinnatifid]; posterior divisions ovate or triangular; basal ribs well developed, wax glands present in axils of primary lateral veins and midrib; primary lateral veins pinnate, forming submarginal collective vein, 1 or 2 closely adjacent marginal veins also present, secondary and tertiary lateral veins arising from primaries at a wide angle, then arching strongly toward leaf margin, sometimes forming interprimary veins, higher order venation reticulate. Inflorescences 1 or 2 to many in each floral sympodium; peduncle usually shorter than petioles. Spathe persistent, erect, convolute, gaping only basally, strongly con- stricted between tube and blade, rarely not; tube with convolute margins, shorter than limb, ovoid or oblong, persistent and then splitting irregularly in fruit; limb oblong, usually boat-shaped, rarely arching, at anthesis at first erect, then reflexing and later usually deciduous. -
Genetic Variation and Conservation of Changnienia Amoena, an Endangered Orchid Endemic to China
Pl. Syst. Evol. 258: 251–260 (2006) DOI 10.1007/s00606-006-0410-4 Genetic variation and conservation of Changnienia amoena, an endangered orchid endemic to China A. Li and S. Ge Laboratory of Systematic and Evolutionary Botany, Institute of Botany, Chinese Academy of Sciences, Beijing, China Received November 4, 2005; accepted December 27, 2005 Published online: April 11, 2006 Ó Springer-Verlag 2006 Abstract. Changnienia amoena is a diploid and genetic structure found in C. amoena. Based on self-compatible orchid endemic to China. This these findings, we proposed conservation manage- species is in great danger of extinction with its ments for this endangered species, including current distribution being highly fragmented and habitat protection along with the protection of discontinuous. This study investigated the level their pollinators, artificial pollination as well as and apportionment of genetic diversity of this ex situ conservation. species using RAPD technique. Based on 119 discernible DNA fragments generated by 16 prim- Key words: Conservation genetics, RAPDs, ers, an intermediate level of genetic diversity was Changnienia amoena, endangered orchid. found at the species level with the percentage of polymorphic bands (P) of 76.5%, expected het- erozygosity (He) of 0.194. However, the genetic Introduction diversity at the population level was significantly lower (P=37.2%, He=0.120) compared with the The Orchidaceae is one of the largest and most average of other species with similar life history diverse families of flowering plants, including characteristics. A high level of population differ- up to one tenth of all flowering plant species in entiation was detected with 43.8% variation the world (Dressler 1993). -
Chapter 4 Phytogeography of Northeast Asia
Chapter 4 Phytogeography of Northeast Asia Hong QIAN 1, Pavel KRESTOV 2, Pei-Yun FU 3, Qing-Li WANG 3, Jong-Suk SONG 4 and Christine CHOURMOUZIS 5 1 Research and Collections Center, Illinois State Museum, 1011 East Ash Street, Springfield, IL 62703, USA, e-mail: [email protected]; 2 Institute of Biology and Soil Science, Russian Academy of Sciences, Vladivostok, 690022, Russia, e-mail: [email protected]; 3 Institute of Applied Ecology, Chinese Academy of Sciences, P.O. Box 417, Shenyang 110015, China; 4 Department of Biological Science, College of Natural Sciences, Andong National University, Andong 760-749, Korea, e-mail: [email protected]; 5 Department of Forest Sciences, University of British Columbia, 3041-2424 mail Mall, Vancouver, B.C., V6T 1Z4, Canada, e-mail: [email protected] Abstract: Northeast Asia as defined in this study includes the Russian Far East, Northeast China, the northern part of the Korean Peninsula, and Hokkaido Island (Japan). We determined the species richness of Northeast Asia at various spatial scales, analyzed the floristic relationships among geographic regions within Northeast Asia, and compared the flora of Northeast Asia with surrounding floras. The flora of Northeast Asia consists of 971 genera and 4953 species of native vascular plants. Based on their worldwide distributions, the 971 gen- era were grouped into fourteen phytogeographic elements. Over 900 species of vascular plants are endemic to Northeast Asia. Northeast Asia shares 39% of its species with eastern Siberia-Mongolia, 24% with Europe, 16.2% with western North America, and 12.4% with eastern North America. -
Alternative Translation Initiation Codons for the Plastid Maturase Matk: Unraveling the Pseudogene Misconception in the Orchidaceae Michelle M
Barthet et al. BMC Evolutionary Biology (2015) 15:210 DOI 10.1186/s12862-015-0491-1 RESEARCH ARTICLE Open Access Alternative translation initiation codons for the plastid maturase MatK: unraveling the pseudogene misconception in the Orchidaceae Michelle M. Barthet1,2* , Keenan Moukarzel3, Kayla N. Smith1, Jaimin Patel3 and Khidir W. Hilu3 Abstract Background: The plastid maturase MatK has been implicated as a possible model for the evolutionary “missing link” between prokaryotic and eukaryotic splicing machinery. This evolutionary implication has sparked investigations concerning the function of this unusual maturase. Intron targets of MatK activity suggest that this is an essential enzyme for plastid function. The matK gene, however, is described as a pseudogene in many photosynthetic orchid species due to presence of premature stop codons in translations, and its high rate of nucleotide and amino acid substitution. Results: Sequence analysis of the matK gene from orchids identified an out-of-frame alternative AUG initiation codon upstream from the consensus initiation codon used for translation in other angiosperms. We demonstrate translation from the alternative initiation codon generates a conserved MatK reading frame. We confirm that MatK protein is expressed and functions in sample orchids currently described as having a matK pseudogene using immunodetection and reverse-transcription methods. We demonstrate using phylogenetic analysis that this alternative initiation codon emerged de novo within the Orchidaceae, with several reversal events at the basal lineage and deep in orchid history. Conclusion: These findings suggest a novel evolutionary shift for expression of matK in the Orchidaceae and support the function of MatK as a group II intron maturase in the plastid genome of land plants including the orchids. -
Article 1. General Provisions
Article 1. General Provisions ― 1 ― Article 1. General Provisions 1. General Principles This Food Code shall be principally interpreted and applied by general provisions, except as otherwise specified. 1) This Food Code contains the following items. (1) Standard about methods of manufacturing, processing, using, cooking, storing foods and specification about food components under the regulations of Paragraph 1 in Article 7 of Food Sanitation Act. (2) Standard about manufacturing methods of utensil, container, packaging and specification about utensil, container, packaging and their raw materials under the regulations of Paragraph 1 in Article 9 of Food Sanitation Act. (3) Labeling standard about food, food additives, utensil, container, packaging and GMO under the regulations of Paragraph 1 in Article 10 of Food Sanitation Act. 2) Weights and measures shall be applied by the metric system and are indicated in following codes. (1) Length : m, cm, mm,μ m, nm (2)Volume:L,mL,μ L (3)Weight : kg, g, mg,μ g, ng, pg (4) Area : cm 2 (5) Calorie : kcal, kj 3) Weight percentage is indicated with the symbol of %. However, material content (g) in 100 mL solution is indicated with w/v% and material content (mL) in 100 mL solution with v/v%. Weight parts per million may be indicated with the symbol of mg/kg, ppm, or mg/L. 4) Temperature indication adopts Celsius(℃ ) type. 5) Standard temperature is defined as 20℃ , and ordinary temperature as 15~25 ℃ , and room temperature as 1~3 5℃ , and slightly warm temperature as 30~40℃ . 6) Except as otherwise specified, cold water is defined as waterof15℃ orlower,hotwater aswaterof60~70 ℃ , boiling water as water of about 100℃ , and heating temperature "in/under water bath" is, except as otherwise specified, defined as about 100℃ and water bath can be replaced with steam bath of about 100℃ . -
Orchid Historical Biogeography, Diversification, Antarctica and The
Journal of Biogeography (J. Biogeogr.) (2016) ORIGINAL Orchid historical biogeography, ARTICLE diversification, Antarctica and the paradox of orchid dispersal Thomas J. Givnish1*, Daniel Spalink1, Mercedes Ames1, Stephanie P. Lyon1, Steven J. Hunter1, Alejandro Zuluaga1,2, Alfonso Doucette1, Giovanny Giraldo Caro1, James McDaniel1, Mark A. Clements3, Mary T. K. Arroyo4, Lorena Endara5, Ricardo Kriebel1, Norris H. Williams5 and Kenneth M. Cameron1 1Department of Botany, University of ABSTRACT Wisconsin-Madison, Madison, WI 53706, Aim Orchidaceae is the most species-rich angiosperm family and has one of USA, 2Departamento de Biologıa, the broadest distributions. Until now, the lack of a well-resolved phylogeny has Universidad del Valle, Cali, Colombia, 3Centre for Australian National Biodiversity prevented analyses of orchid historical biogeography. In this study, we use such Research, Canberra, ACT 2601, Australia, a phylogeny to estimate the geographical spread of orchids, evaluate the impor- 4Institute of Ecology and Biodiversity, tance of different regions in their diversification and assess the role of long-dis- Facultad de Ciencias, Universidad de Chile, tance dispersal (LDD) in generating orchid diversity. 5 Santiago, Chile, Department of Biology, Location Global. University of Florida, Gainesville, FL 32611, USA Methods Analyses use a phylogeny including species representing all five orchid subfamilies and almost all tribes and subtribes, calibrated against 17 angiosperm fossils. We estimated historical biogeography and assessed the -
Comparative Morphology and Anatomy of Non-Rheophytic and Rheophytic Types of Adenophora Triphylla Var
American Journal of Plant Sciences, 2012, 3, 805-809 805 http://dx.doi.org/10.4236/ajps.2012.36097 Published Online June 2012 (http://www.SciRP.org/journal/ajps) Comparative Morphology and Anatomy of Non-Rheophytic and Rheophytic Types of Adenophora triphylla var. japonica (Campanulaceae) Kyohei Ohga1, Miwako Muroi1, Hiroshi Hayakawa1, Jun Yokoyama2, Katsura Ito1, Shin-Ichi Tebayashi1, Ryo Arakawa1, Tatsuya Fukuda1* 1Faculty of Agriculture, Kochi University, Kochi, Japan; 2Faculty of Science, Yamagata University, Yamagata, Japan. Email: [email protected] Received April 10th, 2012; revised April 30th, 2012; accepted May 18th, 2012 ABSTRACT The morphology and anatomy of leaves of rheophytic and non-rheophytic types of Adenophora triphylla (Thunb.) ADC var. japonica (Regel) H. Hara were compared in order to clarify how leaf characteristics differ. Our results revealed that the leaf of the rheophytic type of A. triphylla var. japonica was narrower than the leaf of the non-rheophytic type be- cause of fewer cells that were also smaller. Moreover, surprisingly, the rheophytic ecotype of A. triphylla var. japonica was thinner than that of the non-rheophytic type, although the general tendency is that the rheophytic leaf is thicker than the closely related non-rheophytic species, suggesting that the rheophytic type of A. triphylla var. japonica adapts dif- ferently, as compared to other rheophytic plants, to solar radiation and evaporation. Keywords: Rheophyte; Leaf; Ecotype; Adenophora triphylla var. japonica 1. Introduction leaf modification from fern to angiosperm (Osmunda lancea Thunb. (Osmundaceae): [5]; Aster microcephalus (Miq.) Morphological diversity is a special feature of angios- Franch. et Sav. var. ripensis Makino (Asteraceae): [6]; perms, and a key challenge in biology is to understand Dendranthema yoshinaganthum Makino ex Kitam.