Chambira in a Changing Landscape by Sydney Larson
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
ACTION PLAN AMAZON TRIPLE BORDER Colombia-Brazil-Peru
ACTION PLAN AMAZON TRIPLE BORDER Colombia-Brazil-Peru August 2020 Puerto Nariño, Amazon, The Amazon region is being significantly impacted by COVID-19, threatening the lives Colombia and livelihoods of its population and posing an existential threat to its large indigenous Cover photo credit: Sergio communities. Rojas/ Umari Journal The basin is home to an estimated 30 million people, and includes territory in Brazil, Colombia, Ecuador, French Guyana, Peru and Venezuela. The largest territories in the Amazonas are in The region currently Brazil, Peru and Colombia which host more than 400 indigenous communities amounting to registers the highest an estimated 6 million people. The main channel of the river, which is a vital route for transport mortality rates from in the region, played a key role in the transmission of the disease affecting, in particular, the indigenous population along the border region of Peru, Colombia and Brazil. COVID-19 per 100,000 people in the world. As a result, the United Nations Resident Coordinators in the three countries have come together with the support of OCHA and the participation of WFP, WHO, UNICEF, UNFPA to develop an Action Plan to support Government responses to the urgent needs in the area. The plan is initially focused on mobilizing an emergency response to address the most immediate needs of those affected in the area. First level responses in the three countries have already commenced through reprogramed funding but additional resources are needed to scale up the response. The plan focuses on areas near the so-called Triple Border - between Colombia, Peru and Brazil - home to 208,699 people and where the majority of the population (57%) is indigenous. -
Micro-Heterogeneity of Malaria Transmission in the Peruvian Amazon
Rosas‑Aguirre et al. Malar J (2017) 16:312 DOI 10.1186/s12936-017-1957-y Malaria Journal RESEARCH Open Access Micro‑heterogeneity of malaria transmission in the Peruvian Amazon: a baseline assessment underlying a population‑based cohort study Angel Rosas‑Aguirre1,2, Mitchel Guzman‑Guzman3, Dionicia Gamboa1,3,4, Raul Chuquiyauri1,6, Roberson Ramirez3, Paulo Manrique3, Gabriel Carrasco‑Escobar3,5, Carmen Puemape3, Alejandro Llanos‑Cuentas1,5 and Joseph M. Vinetz1,3,4,6* Abstract Background: Understanding the dynamics of malaria transmission in diverse endemic settings is key for designing and implementing locally adapted and sustainable control and elimination strategies. A parasitological and epide‑ miological survey was conducted in September–October 2012, as a baseline underlying a 3-year population-based longitudinal cohort study. The aim was to characterize malaria transmission patterns in two contrasting ecological rural sites in the Peruvian Amazon, Lupuna (LUP), a riverine environment, and Cahuide (CAH), associated with road- linked deforestation. Methods: After a full population census, 1941 individuals 3 years and older (829 in LUP, 1112 in CAH) were inter‑ viewed, clinically examined and had a blood sample taken for the detection of malaria parasites by microscopy and PCR. Species-specifc parasite prevalence was estimated overall and by site. Multivariate logistic regression models assessed risk factors for parasite infection by PCR, while SaTScan detected spatial clusters of PCR-positive individuals within each site. In addition, data from routine malaria surveillance in the period 2009–2012 were obtained. Results: Parasite prevalence by PCR was higher in CAH than in LUP for Plasmodium vivax (6.2% vs. -
LOW WATER SEASON (June-November)
SEVEN-NIGHT ITINERARY AQUA AMAZON LOW WATER SEASON (June-November) Day 1: SaturdAy IQUITOS/AMAZON RIVER 6:00 p.m. Embarkation and Check-In From the moment you step on board, enjoy the AQUA AMAZON’s low-key luxury. As you settle into your handsomely appointed, generously proportioned suite, you will feel the vessel begin to move – the beginning of one of your life’s great adventures. We suggest you stand on the Upper Deck to take in the view, as the AQUA AMAZON leaves Iquitos behind. Over the next seven days, you will also sail along the two largest tributaries of the Peruvian Amazon, the Ucayali and the Maranon, as well as on the mighty Amazon itself. You are embarking on a spectacular journey to a place visited by only a very few of even the most experienced world travelers. 7:30 p.m. Safety Drill and Briefing on the Upper Deck Before dinner we will perform a routine safety drill. Then it’s into the air-conditioned lounge, where you will learn about life on board, and will have the first nightly briefing about your next day’s Amazon adventure. You will meet our naturalist guides and your cruise director, who will use video, photos, and maps to introduce the details of your journey deep into the Peruvian Amazon. 8:00 p.m. Welcome Dinner Sit down, relax, sip fine South American wine, toast the beginning of a beautiful journey and enjoy the innovative Amazonian cuisine, created by our Executive Chef Pedro Miguel Schiaffino, whose restaurant, Malabar, is the one of Lima’s top ranked dining experiences. -
Peru | Flooding in Iquitos
Financing Experience in the Peruvian Amazon region Changing the paradigm to act faster FLOODING IN THE PERUVIAN AMAZON REGION River Amazon monitoring (Enapu) Every year parts of the Amazon forest flood from December to May. This floo- ding is caused by seasonal rains in the Peruvian Andes. Flow09_10 Flow10_11 Flooding can be extreme Flow11_12 Flow12_13 in some years due to chan- Flow13_14 Level ges in rainfall patterns that Flow14_15 are getting more extreme Flow15_16 and more frequent due to climate change. This cau- ses losses in infrastructure and livelihoods and affects people’s health. Oct 2016 Jan 2017 Apr 2017 Jul 2017 Date The largest recent floods came in 1999, 2012 and 2015. The highest record was 118.97m river level, in April 2012 at the Enapu station. Many communities were affected (see be- low); 26,000 hectares were flooded, as well as urban areas of the province Maynas. 2 2012 3,417 72,642 229,412 displaced affected victims families houses 2015 1,558 18,612 113,485 displaced affected victims families houses Source: INDECI THE CONCEPT OF FORECAST-BASED FINANCING Forecast-based financing (FbF) develops new procedures and methodologies to prepare vulnerable people facing a disaster in a more efficient and effective way. Using domestic and international hydro-meteorological forecast information, it sets danger levels and pre- defines early actions. These actions are activated when a forecast exceeds a danger level in the intervention area (for example, a river flow that has caused flooding in the past). Ac- tions can be implemented before the disaster occurs and resilience is strengthened, both at institutional and community level. -
Seed Dispersal of a Useful Palm (Astrocaryum Chambira Burret) in Three Amazonian Forests with Different Human Intervention
SEED DISPERSAL OF A USEFUL PALM (ASTROCARYUM CHAMBIRA BURRET) IN THREE AMAZONIAN FORESTS WITH DIFFERENT HUMAN INTERVENTION Dispersión de semillas de la palma útil (Astrocaryum chambira Burret) en tres bosques amazónicos con diferente grado de intervención humana Keywords: Amazon forest, chambira palm, seed predation, insect seed predation, rodents. Beatriz H. Ramírez1,2 Ángela Parrado-Rosselli3 Palabras clave: bosque amazónico, depredación de semillas, 1 depredación por insectos, palma de chambira, roedores. Pablo Stevenson ABSTRACT distances from the parent palm (10 m) was found. Future studies should focus on seedling establish- The young leaves of Astrocaryum chambira are ment, recruitment rates and the effects of human used by the indigenous people in the Amazon as intervention on subsequent life stages of the palm. raw material for handicrafts. However, few studies have been made on the natural history of this palm and on the indirect impact caused by the decrease RESUMEN of its dispersal agents. Considering that the loss of Las hojas jóvenes de Astrocaryum chambira son animal dispersal vectors due to hunting and lands- utilizadas por las comunidades indígenas amazóni- cape modification can affect seed dispersal proces- cas como materia prima para la fabricación de ar- ses of tropical forest plants, the goal of this study tesanías. Sin embargo, son muy pocos los estudios was to compare seed dispersal of A. chambira in acerca de su historia de vida y de los impactos in- three terra firme forests of the Colombian Amazon, directos causados por la disminución de sus agen- with different degrees of human intervention. We tes dispersores. Teniendo en cuenta que la pérdida censused densities of dispersal agents of A. -
LEAGUE of NATIONS. Tcominunicated to the Council D Members of the League,- ' Geneva, January 24 Th, 1933'
LEAGUE OF NATIONS. tCominunicated to the Council d Members of the League,- ' Geneva, January 24 th, 1933' COMMUNICATION FROM THE GOVERNMENT OF PERU. Note by the Secretary-General. The Secretary-General has the honour to circulate to the Council and Members of the League the following communication, dated January 20th, which he has received from the Government •f Peru, Sir, You have brought to the notice of my Government, and to the Members of the Council of the League of Nations, the letter sent you by the Colombian Government on January 2nd concerning the situation at LETICIA. In conformity with instructions just received, I have the honour to transmit to you the requisite details concerning the events which occurred in this town and the present divergencies between Peru and Colombia. The occupation of LETICIA by a group of Peruvians on September 1st, 1932» and the expulsion of the Colombian authorities is the origin of the present dispute. LETICIA, a port on the river Amazon, was founded by Peruvians more than a century ago. It has always been inhabited by Peruvians, but was ceded to Colombia under the Salamon-Lozano Treaty which, in I9 2 8 , fixed the frontier between the two countries. The accusations brought by the Colombian Government against the assailants are absolutely unfounded. The object of these (1} See Document C.2O.M.5 .I9 3 3 .VII. - 2 - || c. ecus' tiv>ns is to obscure the disinterested char a ct or of t no movement. Faced with a situation which ;vas bound to trouble the friendly and neighbourly relations between P. -
The Global Abundance of Tree Palms
Received: 23 August 2019 | Revised: 28 April 2020 | Accepted: 4 May 2020 DOI: 10.1111/geb.13123 RESEARCH PAPER The global abundance of tree palms Robert Muscarella1,2 | Thaise Emilio3,4 | Oliver L. Phillips5 | Simon L. Lewis5,6 | Ferry Slik7 | William J. Baker4 | Thomas L. P. Couvreur8 | Wolf L. Eiserhardt2,4 | Jens-Christian Svenning2,9 | Kofi Affum-Baffoe10 | Shin-Ichiro Aiba11 | Everton C. de Almeida12 | Samuel S. de Almeida13 | Edmar Almeida de Oliveira14 | Esteban Álvarez-Dávila15 | Luciana F. Alves16 | Carlos Mariano Alvez-Valles17 | Fabrício Alvim Carvalho18 | Fernando Alzate Guarin19 | Ana Andrade20 | Luis E. O. C. Aragão21,22 | Alejandro Araujo Murakami23 | Luzmila Arroyo24 | Peter S. Ashton25 | Gerardo A. Aymard Corredor26,27 | Timothy R. Baker5 | Plinio Barbosa de Camargo28 | Jos Barlow29 | Jean-François Bastin30 | Natacha Nssi Bengone31 | Erika Berenguer29,32 | Nicholas Berry33 | Lilian Blanc34,35 | Katrin Böhning-Gaese36,37 | Damien Bonal38 | Frans Bongers39 | Matt Bradford40 | Fabian Brambach41 | Francis Q. Brearley42 | Steven W. Brewer43 | Jose L. C. Camargo20 | David G. Campbell44 | Carolina V. Castilho45 | Wendeson Castro46 | Damien Catchpole47 | Carlos E. Cerón Martínez48 | Shengbin Chen49,50 | Phourin Chhang51 | Percival Cho52 | Wanlop Chutipong53 | Connie Clark54 | Murray Collins55 | James A. Comiskey56,57 | Massiel Nataly Corrales Medina58 | Flávia R. C. Costa59 | Heike Culmsee60 | Heriberto David-Higuita61 | Priya Davidar62 | Jhon del Aguila-Pasquel63 | Géraldine Derroire64 | Anthony Di Fiore65 | Tran Van Do66 | Jean-Louis Doucet67 | Aurélie Dourdain64 | Donald R. Drake68 | Andreas Ensslin69 | Terry Erwin70 | Corneille E. N. Ewango71 | Robert M. Ewers72 | Sophie Fauset73 | Ted R. Feldpausch74 | Joice Ferreira75 | Leandro Valle Ferreira76 | Markus Fischer69 | Janet Franklin77 | Gabriella M. Fredriksson78 | Thomas W. Gillespie79 | Martin Gilpin5 | Christelle Gonmadje80,81 | Arachchige Upali Nimal Gunatilleke82 | Khalid Rehman Hakeem83 | Jefferson S. -
Fact Sheet Fact Sheet
AMAZON FACT SHEET AMAZON FACT SHEET INTRODUCTION The Amazon is the world’s largest tropical rainforest spanning 9 different countries in South America - Peru, Bolivia, Ecuador, Colombia, Venezuela, Guyana, Suriname, French Guiana and of course Brazil which contains 60% of the Amazon Rainforest. The Rainforest covers over 75% of the Amazon Basin, with an area of 5.5 million sq kms. It comprises the largest and most bio diverse tract of tropical rainforest in the world. It is dissected by hundreds of rivers, the most notable being the mighty Amazon. The river towns of Manaus and Belem in Brazil and Iquitos and Puerto Maldonado in Peru have 19th century architecture dating back to the days of the rubber boom. There are over 1,400 species of mammals found in the Amazon, the larger mammals including the jaguar, ocelot, capybara and tapir. The Basin is inhabited by more than 1,500 species of birds including toucans, hummingbirds, macaws and other parrots. Reptiles found here include the anaconda and boa constrictor. The area is also home to over 1,000 species of amphibians and 2,200 species of fish including the red-bellied piranha. The Amazon Basin also contains thousands of plant species with tropical fruit trees such as Brazil nut, cocoa and rubber trees as well as orchids and the kapok tree, the largest tree of the Amazon that can grow to a height of 60 metres. AMAZON FACT SHEET CLIMATE The Amazon Rainforest has a tropical equatorial climate, being hot and humid throughout the year with an annual average temperature of 27°C. -
The Whole World Will Be Able to See Us: Cultural Factors Affecting Insecticide-Treated Bed Net Use for Malaria Control in the Peruvian Amazon
The whole world will be able to see us: Cultural factors affecting insecticide-treated bed net use for malaria control in the Peruvian Amazon by Steven A. Harvey A dissertation submitted to Johns Hopkins University in conformity with the requirements for the degree of Doctor of Philosophy Baltimore, Maryland January 2006 © Steven A. Harvey 2006 All rights reserved Abstract According to the most recent WHO estimates, 107 countries worldwide are endemic for malaria, putting about 3.2 billion of the world’s population at risk. Malaria causes or contributes to between 1.5 and 3 million deaths and up to 500 million acute clinical cases each year. Because of their demonstrated effectiveness at reducing malaria-related morbidity and mortality, insecticide-impregnated bed nets (IBNs) are distributed and promoted by malaria control programs throughout the world. This dissertation draws upon qualitative evidence to document how social, cultural, and economic factors affect malaria exposure and bed net use in rural mestizo villages around the city of Iquitos in the Peruvian Amazon. The introduction presents an overview of malaria epidemiology worldwide, in the Americans, and in the Peruvian Amazon. It describes the theoretical framework of the research, the study sites, and the data collection methods employed. Paper #1 describes the use of nighttime household observations to determine the type and extent of bed net use and document evening and nighttime social, cultural, and economic activities that might increase exposure. Data confirm that untreated net use is nearly universal in the study area, but IBN use less common. Entering and leaving nets frequently throughout the night is likely to reduce their protective effect. -
Amazon Fact Sheet Amazon Fact Sheet
AMAZON FACT SHEET AMAZON FACT SHEET INTRODUCTION The Amazon is the world’s largest tropical rainforest spanning 9 different countries in South America - Peru, Bolivia, Ecuador, Colombia, Venezuela, Guyana, Suriname, French Guiana and of course Brazil which contains 60% of the Amazon Rainforest. The Rainforest covers over 75% of the Amazon Basin, with an area of 5.5 million sq kms. It comprises the largest and most bio diverse tract of tropical rainforest in the world. It is dissected by hundreds of rivers, the most notable being the mighty Amazon. The river towns of Manaus and Belem in Brazil and Iquitos and Puerto Maldonado in Peru have 19th century architecture dating back to the days of the rubber boom. There are over 1,400 species of mammals found in the Amazon, the larger mammals including the jaguar, ocelot, capybara and tapir. The Basin is inhabited by more than 1,500 species of birds including toucans, hummingbirds, macaws and other parrots. Reptiles found here include the anaconda and boa constrictor. The area is also home to over 1,000 species of amphibians and 2,200 species of fish including the red-bellied piranha. The Amazon Basin also contains thousands of plant species with tropical fruit trees such as Brazil nut, cocoa and rubber trees as well as orchids and the kapok tree, the largest tree of the Amazon that can grow to a height of 60 metres. AMAZON FACT SHEET CLIMATE The Amazon Rainforest has a tropical equatorial climate, being hot and humid throughout the year with an annual average temperature of 27°C. -
Las Palmeras En El Marco De La Investigacion Para El
REVISTA PERUANA DE BIOLOGÍA Rev. peru: biol. ISSN 1561-0837 Volumen 15 Noviembre, 2008 Suplemento 1 Las palmeras en el marco de la investigación para el desarrollo en América del Sur Contenido Editorial 3 Las comunidades y sus revistas científicas 1he scienrific cornmuniries and their journals Leonardo Romero Presentación 5 Laspalmeras en el marco de la investigación para el desarrollo en América del Sur 1he palrns within the framework ofresearch for development in South America Francis Kahny CésarArana Trabajos originales 7 Laspalmeras de América del Sur: diversidad, distribución e historia evolutiva 1he palms ofSouth America: diversiry, disrriburíon and evolutionary history Jean-Christopbe Pintaud, Gloria Galeano, Henrik Balslev, Rodrigo Bemal, Fmn Borchseníus, Evandro Ferreira, Jean-Jacques de Gran~e, Kember Mejía, BettyMillán, Mónica Moraes, Larry Noblick, FredW; Staufl'er y Francis Kahn . 31 1he genus Astrocaryum (Arecaceae) El género Astrocaryum (Arecaceae) . Francis Kahn 49 1he genus Hexopetion Burret (Arecaceae) El género Hexopetion Burret (Arecaceae) Jean-Cbristopbe Pintand, Betty MiJJány Francls Kahn 55 An overview ofthe raxonomy ofAttalea (Arecaceae) Una visión general de la taxonomía de Attalea (Arecaceae) Jean-Christopbe Pintaud 65 Novelties in the genus Ceroxylon (Arecaceae) from Peru, with description ofa new species Novedades en el género Ceroxylon (Arecaceae) del Perú, con la descripción de una nueva especie Gloria Galeano, MariaJosé Sanín, Kember Mejía, Jean-Cbristopbe Pintaud and Betty MiJJán '73 Estatus taxonómico -
Seed Geometry in the Arecaceae
horticulturae Review Seed Geometry in the Arecaceae Diego Gutiérrez del Pozo 1, José Javier Martín-Gómez 2 , Ángel Tocino 3 and Emilio Cervantes 2,* 1 Departamento de Conservación y Manejo de Vida Silvestre (CYMVIS), Universidad Estatal Amazónica (UEA), Carretera Tena a Puyo Km. 44, Napo EC-150950, Ecuador; [email protected] 2 IRNASA-CSIC, Cordel de Merinas 40, E-37008 Salamanca, Spain; [email protected] 3 Departamento de Matemáticas, Facultad de Ciencias, Universidad de Salamanca, Plaza de la Merced 1–4, 37008 Salamanca, Spain; [email protected] * Correspondence: [email protected]; Tel.: +34-923219606 Received: 31 August 2020; Accepted: 2 October 2020; Published: 7 October 2020 Abstract: Fruit and seed shape are important characteristics in taxonomy providing information on ecological, nutritional, and developmental aspects, but their application requires quantification. We propose a method for seed shape quantification based on the comparison of the bi-dimensional images of the seeds with geometric figures. J index is the percent of similarity of a seed image with a figure taken as a model. Models in shape quantification include geometrical figures (circle, ellipse, oval ::: ) and their derivatives, as well as other figures obtained as geometric representations of algebraic equations. The analysis is based on three sources: Published work, images available on the Internet, and seeds collected or stored in our collections. Some of the models here described are applied for the first time in seed morphology, like the superellipses, a group of bidimensional figures that represent well seed shape in species of the Calamoideae and Phoenix canariensis Hort. ex Chabaud.