Tropical Plant Collecting from the Field to the Internet
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Ergosterol Purified from Medicinal Mushroom Amauroderma Rude Inhibits Cancer Growth in Vitro and in Vivo by Up-Regulating Multiple Tumor Suppressors
www.impactjournals.com/oncotarget/ Oncotarget, Vol. 6, No. 19 Ergosterol purified from medicinal mushroom Amauroderma rude inhibits cancer growth in vitro and in vivo by up-regulating multiple tumor suppressors Xiangmin Li1,2,3,4,*, Qingping Wu2,*, Yizhen Xie2, Yinrun Ding2, William W. Du3,4, Mouna Sdiri3,4, Burton B. Yang3,4 1School of Bioscience and Bioengineering, South China University of Technology, Guangzhou 510006, PR China 2State Key Laboratory of Applied Microbiology Southern China (The Ministry-Province Joint Development), Guangdong Institute of Microbiology, Guangzhou, 510070, PR China 3Sunnybrook Research Institute, Sunnybrook Health Sciences Centre, Toronto, M4N3M5, Canada 4Department of Laboratory Medicine and Pathobiology, University of Toronto, Toronto, M4N3M5, Canada *These authors have contributed equally to this work Correspondence to: Yizhen Xie, e-mail: [email protected] Burton B. Yang, e-mail: [email protected] Keywords: herbal medicine, medicinal mushroom, Foxo3a, Bim, Fas Received: April 08, 2015 Accepted: May 13, 2015 Published: May 27, 2015 ABSTRACT We have previously screened thirteen medicinal mushrooms for their potential anti-cancer activities in eleven different cell lines and found that the extract of Amauroderma rude exerted the highest capacity in inducing cancer cell death. The current study aimed to purify molecules mediating the anti-cancer cell activity. The extract of Amauroderma rude was subject to fractionation, silica gel chromatography, and HPLC. We purified a compound and identified it as ergosterol by EI-MS and NMR, which was expressed at the highest level in Amauroderma rude compared with other medicinal mushrooms tested. We found that ergosterol induced cancer cell death, which was time and concentration dependent. -
A New Pericarbonyl Lignan from Amauroderma Rude
ORIGINAL ARTICLE Rec. Nat. Prod. 13:4 (2019) 296-300 A New Pericarbonyl Lignan from Amauroderma rude Miao Dong 1, Zuhong Ma 2, Qiaofen Yang 2, Qiuyue Hu 2, Yanqing Ye 2,* and Min Zhou 1,* 1Key Laboratory of Chemistry in Ethnic Medicinal Resources, State Ethnic Affairs Commission & Ministry of Education, Yunnan Minzu University, Kunming 650031, P.R. China 2 School of Chemistry and Environment, Yunnan Minzu University, Kunming 650031, P.R. China (Received October 24, 2018; Revised November 29, 2018; Accepted November 30, 2018) Abstract: A new pericarbonyl lignan (1), named amaurolignan A was isolated from an ethanol extract of the fruiting bodies in Amauroderma rude of family Ganodermataceae, together with two known lignans, 4-methoxymatairesinol 4′-β-D-glucoside (2) and lappaol F (3). The structures of compounds (1-3) were elucidated using NMR and MS spectroscopic methods. Keywords: Pericarbonyl lignan; amaurolignan A; Amauroderma rude. © 2019 ACG Publications. All rights reserved. 1. Introduction “Lingzhi” is a mushroom that has been renowned in China for more than 2000 years because of its claimed medicinal properties and symbolic fortune, which translates as ‘Ganodermataceae’ in a broad sense, and in a narrow sense it represents the highly prized medicinal Ganoderma species distributed in East Asia [1]. Its medicinal properties include anti-aging, lowering blood pressure, improving immunity, and preventing and treating various cancers, chronic bronchitis, gastric ulcers, hepatitis, neurasthenia and thrombosis [2-4]. The medicinal effects of many mushrooms such as Ganoderma lucidum, Lentinula edodes, Agaricus blazei, Antrodia camphorate and Grifola frondosaI come from their metabolites including polysaccharides, triterpenes, lucidenic acids, adenosine, ergosterol, glucosamine and cerebrosides [5-8]. -
Cambridge University Press 978-1-107-17944-8 — Evolution And
Cambridge University Press 978-1-107-17944-8 — Evolution and Development of Fishes Edited by Zerina Johanson , Charlie Underwood , Martha Richter Index More Information Index abaxial muscle,33 Alizarin red, 110 arandaspids, 5, 61–62 abdominal muscles, 212 Alizarin red S whole mount staining, 127 Arandaspis, 5, 61, 69, 147 ability to repair fractures, 129 Allenypterus, 253 arcocentra, 192 Acanthodes, 14, 79, 83, 89–90, 104, 105–107, allometric growth, 129 Arctic char, 130 123, 152, 152, 156, 213, 221, 226 alveolar bone, 134 arcualia, 4, 49, 115, 146, 191, 206 Acanthodians, 3, 7, 13–15, 18, 23, 29, 63–65, Alx, 36, 47 areolar calcification, 114 68–69, 75, 79, 82, 84, 87–89, 91, 99, 102, Amdeh Formation, 61 areolar cartilage, 192 104–106, 114, 123, 148–149, 152–153, ameloblasts, 134 areolar mineralisation, 113 156, 160, 189, 192, 195, 198–199, 207, Amia, 154, 185, 190, 193, 258 Areyongalepis,7,64–65 213, 217–218, 220 ammocoete, 30, 40, 51, 56–57, 176, 206, 208, Argentina, 60–61, 67 Acanthodiformes, 14, 68 218 armoured agnathans, 150 Acanthodii, 152 amphiaspids, 5, 27 Arthrodira, 12, 24, 26, 28, 74, 82–84, 86, 194, Acanthomorpha, 20 amphibians, 1, 20, 150, 172, 180–182, 245, 248, 209, 222 Acanthostega, 22, 155–156, 255–258, 260 255–256 arthrodires, 7, 11–13, 22, 28, 71–72, 74–75, Acanthothoraci, 24, 74, 83 amphioxus, 49, 54–55, 124, 145, 155, 157, 159, 80–84, 152, 192, 207, 209, 212–213, 215, Acanthothoracida, 11 206, 224, 243–244, 249–250 219–220 acanthothoracids, 7, 12, 74, 81–82, 211, 215, Amphioxus, 120 Ascl,36 219 Amphystylic, 148 Asiaceratodus,21 -
William Wayt Thomas1,2 & Melissa Tulig1
Rodriguésia 66(4): 983-987. 2015 http://rodriguesia.jbrj.gov.br DOI: 10.1590/2175-7860201566404 Hard Copy to Digital: Flora Neotropica and the World Flora Online William Wayt Thomas1,2 & Melissa Tulig1 Abstract One of the greatest challenges in achieving the goals of the World Flora Online (WFO) will be to make available the huge amount of botanical information that is not yet available digitally. The New York Botanical Garden is using the Flora Neotropica monograph series as a model for digitization. We describe our efforts at digitizing Flora Neotropica monographs and why digitization of hardcopy descriptions must be a priority for the WFO project. Key words: Electronic monographs, open access, Flora Neotropica, monographs. Resumo Um dos maiores desafios para alcançar as metas do projeto World Flora Online (WFO), será a disponibilizar a enorme quantidade de informações botânicas que ainda não estão disponíveis digitalmente. O New York Botanical Garden está utilizando a série de monografias da Flora Neotropica como um modelo para a digitalização. Nós aqui descrevemos nossos esforços na digitalização das monografias da Flora Neotropica e porque a digitalização das descrições impressas deve ser uma prioridade para o projeto WFO. Palavras-chave: Monografias eletrônicas, open access, Flora Neotropica, monografias. Introduction is called the World Flora Online (WFO). This consortium of professionals will create open- The World Flora Online (WFO) was access one-stop searching of world flora with developed as part of the United Nation’s Global verified information, including new and previously Strategy for Plant Conservation with the goal of published data, and coordinated with links to other providing “an online flora of all known plants,” One plant database and catalog Web sites. -
A Population Genetic Survey of the Tropical Tree Cariniana Estrellensis (Lecythidaceae) in a Highly Fragmented Habitat
Heredity (2016) 116, 339–347 & 2016 Macmillan Publishers Limited All rights reserved 0018-067X/16 www.nature.com/hdy ORIGINAL ARTICLE Small but not isolated: a population genetic survey of the tropical tree Cariniana estrellensis (Lecythidaceae) in a highly fragmented habitat MC Guidugli1,2, AG Nazareno3, JM Feres1,2, EPB Contel1,2, MA Mestriner1 and AL Alzate-Marin1,2 Here, we explore the mating pattern and genetic structure of a tropical tree species, Cariniana estrellensis, in a small population in which progeny arrays (n = 399), all adults (n = 28) and all seedlings (n = 39) were genotyped at nine highly informative microsatellite loci. From progeny arrays we were able to identify the source tree for at least 78% of pollination events. The gene immigration rates, mainly attributable to pollen, were high, varying from 23.5 to 53%. Although gene dispersal over long distance was observed, the effective gene dispersal distances within the small population were relatively short, with mean pollination distances varying from 69.9 to 146.9 m, and seed dispersal distances occurring up to a mean of 119.6 m. Mating system analyses showed that C. estrellensis is an allogamous species (tm = 0.999), with both biparental inbreeding (tm − ts = − 0.016) and selfing rates (s = 0.001) that are not significantly different from zero. Even though the population is small, the presence of private alleles in both seedlings and progeny arrays and the elevated rates of gene immigration indicate that the C. estrellensis population is not genetically isolated. However, genetic diversity expressed by allelic richness was significantly lower in postfragmentation life stages. -
Upper Devonian) of Latvia
Estonian Journal of Earth Sciences, 2021, 70, 1, 3–17 https://doi.org/10.3176/earth.2021.01 Revision of asterolepidoid antiarch remains from the Ogre Formation (Upper Devonian) of Latvia Ervīns Lukševičs Department of Geology, University of Latvia, Raiņa Boulevard 19, Riga LV1586, Latvia; [email protected] Received 3 June 2020, accepted 8 September 2020, available online 15 December 2020 Abstract. The Frasnian (Upper Devonian) antiarch Walterilepis speciosa was first described in 1933 (as Taeniolepis) on the basis of a single specimen. The newly collected material has allowed the head to be described in a more detail, especially the nuchal and paranuchal plates. Other newly described elements include bones of the pectoral appendages and trunk armour, demonstrating a rather high and short trunk armour. The shape and proportions of the head and trunk armour suggest the attribution of Walterilepis to the family Pterichthyodidae; it is most probably closely related to Lepadolepis from the Late Frasnian of Germany. Whilst W. speciosa is endemic to the Latvian part of the Baltic Devonian Basin, the connection to the Rheinisches Schiefergebirge is probably closer than previously presumed. Walterilepis fits into the biostratigraphical column at the same level as Bothriolepis maxima and B. evaldi, indicating the high diversity of antiarchs during Pamūšis time. Key words: Frasnian, biostratigraphy, morphology, placoderm, Baltic Devonian basin. INTRODUCTION noted that the generic name of Gross (1932, 1933a) is preoccupied by the sarcopterygian name Taeniolepis The wellknown Baltic German palaeontologist Walter Trautschold, 1874, and he erected the replacement name Gross, who was born in the close vicinity of Riga, made Walterilepis (Moloshnikov 2001). -
(Cariniana Pyriformis Miers) En La
Plan de Manejo y Conservación del Abarco (Cariniana pyriformis Miers) en la jurisdicción CAR 2020 Plan de manejo y conservación d el Abarco (Cariniana pyriformis Miers) en la jurisdicción CAR PLAN DE MANEJO Y CONSERVACIÓN DEL ABARCO (Cariniana pyriformis Miers) EN LA JURISDICCIÓN CAR DIRECCIÓN DE RECURSOS NATURALES DRN LUIS FERNADO SANABRIA MARTINEZ Director General RICHARD GIOVANNY VILLAMIL MALAVER Director Técnico DRN JOHN EDUARD ROJAS ROJAS Coordinador Grupo de Biodiversidad DRN JOSÉ EVERT PRIETO CAPERA Grupo de Biodiversidad DRN CORPORACIÓN AUTÓNOMA REGIONAL DE CUNDINAMARCA CAR ACTUALIZACIÓN 2020 2 TERRITORIO AMBIENTALMENTE SOSTENIBLE Bogotá, D. C. Avenida La Esperanza # 62 – 49, Centro Comercial Gran Estación costado Esfera, pisos 6 y 7 Plan de manejo y conservación d el Abarco (Cariniana pyriformis Miers) en la jurisdicción CAR Los textos de este documento podrán ser utilizados total o parcialmente siempre y cuando sea citada la fuente. Corporación Autónoma Regional de Cundinamarca Bogotá-Colombia Diciembre 2020 Este documento deberá citarse como: Corporación Autónoma Regional de Cundinamarca CAR. 2020. Plan de manejo y conservación d Abarco (Cariniana pyriformis Miers) en la jurisdicción CAR. 53p. 2020. Plan de manejo y conservación d el Abarco (Cariniana pyriformis Miers) en la jurisdicción CAR. Todos los derechos reservados. 3 TERRITORIO AMBIENTALMENTE SOSTENIBLE Bogotá, D. C. Avenida La Esperanza # 62 – 49, Centro Comercial Gran Estación costado Esfera, pisos 6 y 7 Plan de manejo y conservación d el Abarco (Cariniana pyriformis Miers) en la jurisdicción CAR PLAN DE MANEJO Y CONSERVACIÓN DEL ABARCO (Cariniana pyriformis Miers) EN LA JURISDICCIÓN CAR Autor: Giovanny Andrés Morales Mora Plan de manejo y conservación del Abarco (Cariniana pyriformis Miers) en la jurisdicción CAR. -
Ganoderma: Progresos En Investigación, Manejo Y Retos a Futuro* Ganoderma: Research Advances, Management and Future Challenges
sesión 1. plagas y enfermedades Ganoderma: progresos en investigación, manejo y retos a futuro* Ganoderma: Research Advances, Management and Future Challenges autores: Shamala Sundram, Idris Abu Seman, Nur Diyana Roslan, Lee Pei Lee Angel, Intan Nur Ainni Mohamed Azni, Salwa Abdullah Sirajuddin. citación: Sundram, S., Seman, I. A., Roslan, N. D., Angel, L. P. L., Mohamed- Azni, I. N. A., & Sirajuddin, S. A. (2019). Ganoderma: progresos en investigación, manejo y retos a futuro. Palmas, 40 (Especial Tomo I), 57-69. palabras clave: palma de aceite, Ganoderma, Pudrición basal del estípite, manejo, retos. keywords: Oil palm, Ganoderma, basal stem rot, control, challenges. *Artículo original recibido en inglés y traducido por Carlos Arenas París. Shamala Sundram Junta de Aceite de Palma de Malasia Malaysian Palm Oil Board (MPOB) Resumen La palma de aceite, el cultivo que se extiende por la región del cinturón ecuatorial, no está exenta de pestes y enfermedades. Este cultivo es altamente susceptible a una serie de enfermedades limitadas a la región donde se planta. La Pudrición basal del estípite es causada por Ganoderma spp., la amenaza número uno en la región del Sudeste Asiático. Históricamente, era percibida como una enfermedad senescente, pero pronto se descubrió que su prevalencia no tiene correlación con la edad de la palma. Además de los factores predisponentes que incluyen parámetros bióticos y abióticos, se planteó la hipótesis de que los materiales de siembra anteriores, el tipo de suelo, el estado de los nutrientes y las técnicas de replantación contribuían a su propagación. De todos estos factores, la técnica de replantación juega un papel fundamental para controlarla, pero no es suficiente. -
Review on Combretaceae Family
Int. J. Pharm. Sci. Rev. Res., 58(2), September - October 2019; Article No. 04, Pages: 22-29 ISSN 0976 – 044X Review Article Review on Combretaceae Family Soniya Rahate*, Atul Hemke, Milind Umekar Department of Quality Assurance, Shrimati Kishoritai Bhoyar College of Pharmacy, Kamptee, Dist-Nagpur 441002, India. *Corresponding author’s E-mail: [email protected] Received: 06-08-2019; Revised: 22-09-2019; Accepted: 28-09-2019. ABSTRACT Combretaceae, the family of flowering plants consisting of 20 genus and 600 important species in respective genus. The two largest genera of the family are Combretum and Terminalia which contains the more no. of species. The members of the family are widely distributed in tropical and subtropical regions of the world. Most members of the trees, shrubs or lianas of the combretaceae family are widely used medicinally. The members of this family contain the different phytoconstituents of medicinal value e.g tannins, flavonoids, terpenoids and alkaloids. Most of the species of this family are used as antimicrobial, antioxidant and antifungal. The biological activities of the some members of this family yet not found. Apart from the medicinal value many members of the Combretaceae are of culinary and ornamental value. Keywords: Combretaceae, Tannins, Flavonoid, Terminalia, Combretum. INTRODUCTION species of Combretum have edible kernels whereas Buchenavia species have edible succulent endocarps. he family combretaceae is a major group of Chemical constituents like tannins are also found in fruits, flowering plants (Angiosperms) included in the bark, leaves, roots and timber in buchenavia and order of Myrtales. Robert Brown established it in T terminalia genera. Many of the species are reputed to 1810 and its inclusion to the order is not in dispute. -
Phylogenetic Relationships in the Order Ericales S.L.: Analyses of Molecular Data from Five Genes from the Plastid and Mitochondrial Genomes1
American Journal of Botany 89(4): 677±687. 2002. PHYLOGENETIC RELATIONSHIPS IN THE ORDER ERICALES S.L.: ANALYSES OF MOLECULAR DATA FROM FIVE GENES FROM THE PLASTID AND MITOCHONDRIAL GENOMES1 ARNE A. ANDERBERG,2,5 CATARINA RYDIN,3 AND MARI KAÈ LLERSJOÈ 4 2Department of Phanerogamic Botany, Swedish Museum of Natural History, P.O. Box 50007, SE-104 05 Stockholm, Sweden; 3Department of Systematic Botany, University of Stockholm, SE-106 91 Stockholm, Sweden; and 4Laboratory for Molecular Systematics, Swedish Museum of Natural History, P.O. Box 50007, SE-104 05 Stockholm, Sweden Phylogenetic interrelationships in the enlarged order Ericales were investigated by jackknife analysis of a combination of DNA sequences from the plastid genes rbcL, ndhF, atpB, and the mitochondrial genes atp1 and matR. Several well-supported groups were identi®ed, but neither a combination of all gene sequences nor any one alone fully resolved the relationships between all major clades in Ericales. All investigated families except Theaceae were found to be monophyletic. Four families, Marcgraviaceae, Balsaminaceae, Pellicieraceae, and Tetrameristaceae form a monophyletic group that is the sister of the remaining families. On the next higher level, Fouquieriaceae and Polemoniaceae form a clade that is sister to the majority of families that form a group with eight supported clades between which the interrelationships are unresolved: Theaceae-Ternstroemioideae with Ficalhoa, Sladenia, and Pentaphylacaceae; Theaceae-Theoideae; Ebenaceae and Lissocarpaceae; Symplocaceae; Maesaceae, Theophrastaceae, Primulaceae, and Myrsinaceae; Styr- acaceae and Diapensiaceae; Lecythidaceae and Sapotaceae; Actinidiaceae, Roridulaceae, Sarraceniaceae, Clethraceae, Cyrillaceae, and Ericaceae. Key words: atpB; atp1; cladistics; DNA; Ericales; jackknife; matR; ndhF; phylogeny; rbcL. Understanding of phylogenetic relationships among angio- was available for them at the time, viz. -
Tropical Forests
1740 TROPICAL FORESTS / Bombacaceae in turn cause wild swings in the ecology and these Birks JS and Barnes RD (1990) Provenance Variation in swings themselves can sometimes prove to be beyond Pinus caribaea, P. oocarpa and P. patula ssp. tecunuma- control through management. In the exotic environ- nii. Tropical Forestry Papers no. 21. Oxford, UK: Oxford ments, it is impossible to predict or even conceive of Forestry Institute. the events that may occur and to know their Critchfield WB and Little EL (1966) Geographic Distribu- consequences. Introduction of diversity in the forest tion of the Pines of the World. Washington, DC: USDA Miscellaneous Publications. through mixed ages, mixed species, rotation of Duffield JW (1952) Relationships and species hybridization species, silvicultural treatment, and genetic variation in the genus Pinus. Zeitschrift fu¨r Forstgenetik und may make ecology and management more complex Forstpflanzenzuchtung 1: 93–100. but it will render the crop ecosystem much more Farjon A and Styles BT (1997) Pinus (Pinaceae). Flora stable, robust, and self-perpetuating and provide Neotropica Monograph no. 75. New York: New York buffers against disasters. The forester must treat crop Botanical Garden. protection as part of silvicultural planning. Ivory MH (1980) Ectomycorrhizal fungi of lowland tropical pines in natural forests and exotic plantations. See also: Pathology: Diseases affecting Exotic Planta- In: Mikola P (ed.) Tropical Mycorrhiza Research, tion Species; Diseases of Forest Trees. Temperate and pp. 110–117. Oxford, UK: Oxford University Press. Mediterranean Forests: Northern Coniferous Forests; Ivory MH (1987) Diseases and Disorders of Pines in the Southern Coniferous Forests. Temperate Ecosystems: Tropics. Overseas Research Publication no. -
VII. MORICHALES Y CANANGUCHALES DE LA ORINOQUIA Y AMAZONIA: COLOMBIA-VENEZUELA Parte I
SERIE RECURSOS HIDROBIOLÓGICOS Y PESQUEROS CONTINENTALES DE COLOMBIA VII. MORICHALES Y CANANGUCHALES DE LA ORINOQUIA Y AMAZONIA: COLOMBIA-VENEZUELA Parte I Carlos A. Lasso, Anabel Rial y Valois González-B. (Editores) © Instituto de Investigación de Recursos Impresión Biológicos Alexander von Humboldt. 2013 JAVEGRAF – Fundación Cultural Javeriana de Artes Gráficas. Los textos pueden ser citados total o parcialmente citando la fuente. Impreso en Bogotá, D. C., Colombia, octubre de 2013 - 1.000 ejemplares. SERIE EDITORIAL RECURSOS HIDROBIOLÓGICOS Y PESQUEROS Citación sugerida CONTINENTALES DE COLOMBIA Obra completa: Lasso, C. A., A. Rial y V. Instituto de Investigación de Recursos Biológicos González-B. (Editores). 2013. VII. Morichales Alexander von Humboldt (IAvH). y canangunchales de la Orinoquia y Amazonia: Colombia - Venezuela. Parte I. Serie Editorial Editor: Carlos A. Lasso. Recursos Hidrobiológicos y Pesqueros Continen- tales de Colombia. Instituto de Investigación de Revisión científica: Ángel Fernández y Recursos Biológicos Alexander von Humboldt Fernando Trujillo. (IAvH). Bogotá, D. C., Colombia. 344 pp. Revisión de textos: Carlos A. Lasso y Paula Capítulos o fichas de especies: Isaza, C., Sánchez-Duarte. G. Galeano y R. Bernal. 2013. Manejo actual de Mauritia flexuosa para la producción de Asistencia editorial: Paula Sánchez-Duarte. frutos en el sur de la Amazonia colombiana. Capítulo 13. Pp. 247-276. En: Lasso, C. A., A. Fotos portada: Fernando Trujillo, Iván Mikolji, Rial y V. González-B. (Editores). 2013. VII. Santiago Duque y Carlos A. Lasso. Morichales y canangunchales de la Orinoquia y Amazonia: Colombia - Venezuela. Parte I. Serie Foto contraportada: Carolina Isaza. Editorial Recursos Hidrobiológicos y Pesqueros Continentales de Colombia. Instituto de Foto portada interior: Fernando Trujillo.