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Martina Gajardo-Rojas, A. Muñoz, J. Barichivich, Karin Klock-Barría, Eugenia Gayo, F. Fontúrbel, Matías Olea, C. Lucas, Camilo Veas (2022)
Declining honey production and beekeeper adaptation to climate change in ChileProgress in Physical Geography: Earth and Environment, 46
Julian Brown, P. Barton, S. Cunningham (2020)
Flower visitation and land cover associations of above ground- and below ground-nesting native bees in an agricultural region of south-east AustraliaAgriculture, Ecosystems & Environment
D. Theobald, D. Harrison-Atlas, W. Monahan, C. Albano (2015)
Ecologically-Relevant Maps of Landforms and Physiographic Diversity for Climate Adaptation PlanningPLoS ONE, 10
A. Decourtye, E. Mader, N. Desneux (2010)
Landscape enhancement of floral resources for honey bees in agro-ecosystemsApidologie, 41
N. Gorelick, Matt Hancher, M. Dixon, S. Ilyushchenko, D. Thau, R. Moore (2017)
Google Earth Engine: Planetary-scale geospatial analysis for everyoneRemote Sensing of Environment, 202
C. Soto‐Navarro, C. Ravilious, Andy Arnell, X. Lamo, M. Harfoot, S. Hill, S. Hill, Oliver Wearn, M. Santoro, A. Bouvet, S. Mérmoz, T. Toan, J. Xia, S. Liu, W. Yuan, W. Yuan, S. Spawn, H. Gibbs, S. Ferrier, T. Harwood, R. Alkemade, A. Schipper, A. Schipper, G. Schmidt-Traub, B. Strassburg, L. Miles, N. Burgess, N. Burgess, V. Kapos (2020)
Mapping co-benefits for carbon storage and biodiversity to inform conservation policy and actionPhilosophical Transactions of the Royal Society B, 375
DB Sponsler, R. Johnson (2015)
Honey bee success predicted by landscape composition in Ohio, USAPeerJ, 3
W. Anderegg, J. Kane, L. Anderegg (2013)
Consequences of widespread tree mortality triggered by drought and temperature stressNature Climate Change, 3
M. Smart, J. Pettis, N. Euliss, M. Spivak (2016)
Land use in the Northern Great Plains region of the U.S. influences the survival and productivity of honey bee coloniesAgriculture, Ecosystems & Environment, 230
I. Steffan‐Dewenter, Arno Kuhn (2003)
Honeybee foraging in differentially structured landscapesProceedings of the Royal Society of London. Series B: Biological Sciences, 270
M. Merzlyak, A. Gitelson, O. Chivkunova, V. Rakitin (1999)
Non‐destructive optical detection of pigment changes during leaf senescence and fruit ripeningPhysiologia Plantarum, 106
David Smith, A. Davis, Claudia Hitaj, Daniel Hellerstein, Amanda Preslicka, Emma Kogge, D. Mushet, E. Lonsdorf (2021)
The contribution of land cover change to the decline of honey yields in the Northern Great PlainsEnvironmental Research Letters, 16
Raimunda Soares, P. Ferreira, D. Boscolo, A. Rocha, L. Lopes (2021)
Forest cover and non-forest landscape heterogeneity modulate pollination of tropical understory plantsLandscape Ecology, 37
Sandra Uribe, C. Estades, V. Radeloff (2020)
Pine plantations and five decades of land use change in central ChilePLoS ONE, 15
April Hamblin, E. Youngsteadt, M. López-Uribe, S. Frank (2017)
Physiological thermal limits predict differential responses of bees to urban heat-island effectsBiology Letters, 13
A. Zayed, G. Robinson (2012)
Understanding the relationship between brain gene expression and social behavior: lessons from the honey bee.Annual review of genetics, 46
C. Morales, M. Aizen (2006)
Invasive mutualisms and the structure of plant–pollinator interactions in the temperate forests of north‐west Patagonia, ArgentinaJournal of Ecology, 94
Clint Otto, Cali Roth, Benjamin Carlson, M. Smart (2016)
Land-use change reduces habitat suitability for supporting managed honey bee colonies in the Northern Great PlainsProceedings of the National Academy of Sciences, 113
A. Affek (2017)
Indicators of ecosystem potential for pollination and honey productionEcological Indicators
V. Chalcoff, M. Aizen, L. Galetto (2006)
Nectar concentration and composition of 26 species from the temperate forest of South America.Annals of botany, 97 3
M. Couvillon, Fiona Pearce, Christopher Accleton, Katherine Fensome, Shaun Quah, Esme Taylor, F. Ratnieks (2014)
Honey bee foraging distance depends on month and forage typeApidologie, 46
Alberto Alaniz, Ana Abarzúa, Alejandra Martel-Cea, Leonora Jarpa, M. Hernandez, M. Aquino-López, C. Smith‐Ramírez (2021)
Linking sedimentological and spatial analysis to assess the impact of the forestry industry on soil loss: The case of Lanalhue Basin, ChileCatena, 207
D. Völker, J. Geersen, E. Contreras‐Reyes, J. Sellanes, S. Pantoja, W. Rabbel, M. Thorwart, C. Reichert, M. Block, W. Weinrebe (2014)
Morphology and geology of the continental shelf and upper slope of southern Central Chile (33°S–43°S)International Journal of Earth Sciences, 103
L. Nahuelhual, A. Carmona, A. Lara, C. Echeverría, Mauro González (2012)
Land-cover change to forest plantations: Proximate causes and implications for the landscape in south-central ChileLandscape and Urban Planning, 107
Ana González‐Robles, Teresa Salido, A. Manzaneda, F. Valera, P. Rey (2020)
Habitat loss and degradation due to farming intensification modify the floral visitor assemblages of a semiarid keystone shrubEcological Entomology, 45
S. Kratschmer, B. Pachinger, Martina Schwantzer, D. Paredes, G. Guzmán, J. Gómez, J. Entrenas, Muriel Guernion, F. Burel, A. Nicolai, A. Fertil, D. Popescu, L. Macavei, A. Hoble, C. Bunea, M. Kriechbaum, J. Zaller, S. Winter (2019)
Response of wild bee diversity, abundance, and functional traits to vineyard inter‐row management intensity and landscape diversity across EuropeEcology and Evolution, 9
Julia Lanner, S. Kratschmer, Božana Petrović, Felix Gaulhofer, H. Meimberg, B. Pachinger (2019)
City dwelling wild bees: how communal gardens promote species richnessUrban Ecosystems, 23
E. Evans, M. Smart, D. Cariveau, M. Spivak (2018)
Wild, native bees and managed honey bees benefit from similar agricultural land usesAgriculture, Ecosystems & Environment
F. Dube, Miguel Espinosa, N. Stolpe, E. Zagal, N. Thevathasan, A. Gordon (2012)
Productivity and carbon storage in silvopastoral systems with Pinus ponderosa and Trifolium spp., plantations and pasture on an Andisol in Patagonia, ChileAgroforestry Systems, 86
J. González‐Varo, M. Vilà (2017)
Spillover of managed honeybees from mass-flowering crops into natural habitatsBiological Conservation, 212
M. Aizen, C. Morales, J. Morales (2008)
Invasive Mutualists Erode Native Pollination WebsPLoS Biology, 6
H. Dhaliwal, P. Sharma (1974)
Foraging Range of the Indian HoneybeeJournal of Apicultural Research, 13
T. Hengl, Jorge Jesus, G. Heuvelink, Maria González, M. Kilibarda, Aleksandar Blagotić, Shangguan Wei, Marvin Wright, X. Geng, B. Bauer-Marschallinger, M. Guevara, R. Vargas, R. MacMillan, N. Batjes, J. Leenaars, E. Ribeiro, Ichsani Wheeler, S. Mantel, B. Kempen (2017)
SoilGrids250m: Global gridded soil information based on machine learningPLoS ONE, 12
(2016)
Historical nectar assessment reveals the fall and rise of floral resources in Britain, 530
Sharon S, Laura Pérez-Giraldo, P. Vergara, Máriom Carvajal, A. Alaniz (2021)
Native bees in Mediterranean semi-arid agroecosystems: Unravelling the effects of biophysical habitat, floral resource, and honeybeesAgriculture, Ecosystems & Environment, 307
Carlos González-Césped, A. Alaniz, P. Vergara, E. Chiappa, J. Zamorano, V. Mandujano (2020)
Effects of urban environmental conditions and landscape structure on taxonomic and functional groups of insectsUrban Forestry & Urban Greening
I. Flores, P. Osses (2017)
The effect of native forest replacement by Pinus radiata plantations on riparian plant communities in ChilePlant Ecology & Diversity, 10
Adam Dolezal, Ashley Clair, Ge Zhang, A. Toth, M. O'Neal (2019)
Native habitat mitigates feast–famine conditions faced by honey bees in an agricultural landscapeProceedings of the National Academy of Sciences of the United States of America, 116
R. Gaigher, J. Pryke, M. Samways (2021)
Habitat complementarity and butterfly traits are essential considerations when mitigating the effects of exotic plantation forestryBiodiversity and Conservation, 30
L. Garibaldi, L. Schulte, Diego Jordar, Dulce Carella, C. Kremen (2021)
Time to Integrate Pollinator Science into Soybean Production.Trends in ecology & evolution
M. Beekman, F. Ratnieks (2000)
Long-range foraging by the honey-bee, Apis mellifera L.Functional Ecology, 14
Eric Vides-Borrell, L. Porter-Bolland, B. Ferguson, P. Gasselin, R. Vaca, J. Valle-Mora, R. Vandame (2019)
Polycultures, pastures and monocultures: Effects of land use intensity on wild bee diversity in tropical landscapes of southeastern MexicoBiological Conservation
P. Theodorou, Rita Radzevičiūtė, Guillaume Lentendu, B. Kahnt, M. Husemann, C. Bleidorn, J. Settele, O. Schweiger, I. Grosse, T. Wubet, T. Murray, R. Paxton (2020)
Urban areas as hotspots for bees and pollination but not a panacea for all insectsNature Communications, 11
Andrés Fierro, P. Vergara (2019)
A native long horned beetle promotes the saproxylic diversity in exotic plantations of Monterrey pineEcological Indicators
Nicholas Tew, Katherine Baldock, I. Vaughan, Stephanie Bird, J. Memmott (2022)
Turnover in floral composition explains species diversity and temporal stability in the nectar supply of urban residential gardensJournal of Applied Ecology
Jorge Pérez-Quezada, Cecilia Pérez, Carla Brito, J. Fuentes, Aurora Gaxiola, David Aguilera-Riquelme, Javier Lopatin (2021)
Biotic and abiotic drivers of carbon, nitrogen and phosphorus stocks in a temperate rainforestForest Ecology and Management, 494
Grecia Groot, M. Aizen, A. Sáez, C. Morales (2021)
Large-scale monoculture reduces honey yield: The case of soybean expansion in ArgentinaAgriculture, Ecosystems & Environment, 306
A. Alaniz, Máriom Carvajal, Andrés Fierro, Valentina Vergara-Rodríguez, Gisela Toledo, Diego Ansaldo, D. Moreira‐Arce, Alejandro Rojas-Osorio, P. Vergara (2021)
Remote-sensing estimates of forest structure and dynamics as indicators of habitat quality for Magellanic woodpeckersEcological Indicators
L. Garibaldi, N. Pérez‐Méndez, G. Cordeiro, A. Hughes, Michael Orr, I. Alves-dos-Santos, B. Freitas, Favízia Oliveira, G. LeBuhn, I. Bartomeus, M. Aizen, P. Andrade, B. Blochtein, D. Boscolo, P. Drumond, M. Gaglianone, B. Gemmill-Herren, R. Halinski, C. Krug, M. Maués, Lucia Kiill, Mardiore Pinheiro, C. Pires, B. Viana (2021)
Negative impacts of dominance on bee communities: Does the influence of invasive honey bees differ from native bees?Ecology
J. Agüero, N. Pérez‐Méndez, J. Torretta, L. Garibaldi (2020)
Impact of Invasive Bees on Plant-Pollinator Interactions and Reproductive Success of Plant Species in Mixed Nothofagus antarctica ForestsNeotropical Entomology, 49
Hans Verboven, Roel Uyttenbroeck, R. Brys, M. Hermy (2014)
Different responses of bees and hoverflies to land use in an urban–rural gradient show the importance of the nature of the rural land useLandscape and Urban Planning, 126
Christian Little, A. Lara, J. McPhee, R. Urrutia (2009)
Revealing the impact of forest exotic plantations on water yield in large scale watersheds in South-Central ChileJournal of Hydrology, 374
Máriom Carvajal, Alberto Alaniz, P. Vergara, Carlos Hernández-Valderrama, Andrés Fierro, Gisela Toledo, Juan Gamin (2021)
Climate-induced tree senescence leads to a transient increase in reproductive success of a large woodpecker species.The Science of the total environment
A. Hass, Urs Kormann, T. Tscharntke, Y. Clough, Aliette Baillod, Clélia Sirami, L. Fahrig, Jean-Louis Martin, J. Baudry, C. Bertrand, J. Bosch, L. Brotóns, F. Burel, Romain Georges, D. Giralt, M. Marcos-garcía, A. Ricarte, G. Siriwardena, P. Batáry (2018)
Landscape configurational heterogeneity by small-scale agriculture, not crop diversity, maintains pollinators and plant reproduction in western EuropeProceedings of the Royal Society B: Biological Sciences, 285
Ulrika Samnegård, A. Persson, Henrik Smith (2011)
Gardens benefit bees and enhance pollination in intensively managed farmlandBiological Conservation, 144
Mihail Garbuzov, R. Schürch, F. Ratnieks (2015)
Eating locally: dance decoding demonstrates that urban honey bees in Brighton, UK, forage mainly in the surrounding urban areaUrban Ecosystems, 18
Łukasz Dylewski, Ł. Maćkowiak, Weronika Banaszak-Cibicka (2019)
Are all urban green spaces a favourable habitat for pollinator communities? Bees, butterflies and hoverflies in different urban green areasEcological Entomology, 44
Mathilde Baude, Mathilde Baude, W. Kunin, N. Boatman, S. Conyers, Nancy Davies, M. Gillespie, R. Morton, S. Smart, J. Memmott (2015)
Historical nectar assessment reveals the fall and rise of Britain in bloomNature, 530
A. Lara, Christian Little, R. Urrutia, J. McPhee, C. Álvarez-Garretón, C. Oyarzún, D. Soto, Pablo Donoso, L. Nahuelhual, M. Pino, I. Arismendi (2009)
Assessment of ecosystem services as an opportunity for the conservation and management of native forests in ChileForest Ecology and Management, 258
Fernanda Valdovinos, E. Chiappa, J. Simonetti (2009)
Nestedness of bee assemblages in an endemic South American forest: the role of pine matrix and small fragmentsJournal of Insect Conservation, 13
Hyunok Lee, D. Sumner, A. Champetier (2018)
Pollination Markets and the Coupled Futures of Almonds and Honey Bees: Simulating Impacts of Shifts in Demands and CostsAmerican Journal of Agricultural Economics, 101
C. Smith‐Ramírez, P. Martínez, M. Núñez, C. González, J. Armesto (2005)
Diversity, flower visitation frequency and generalism of pollinators in temperate rain forests of Chiloé Island, ChileBotanical Journal of the Linnean Society, 147
Damian Łowicki, K. Fagiewicz (2021)
A new model of pollination services potential using a landscape approach: A case study of post-mining area in PolandEcosystem Services
Abstract Land use and cover change have a high influence on bee species, where honey bees (Apis mellifera) could be affected in terms of resources, dispersal, and habitat. However, the influence of landscape context on honey productivity has been scarcely explored in comparison with population parameters, which is an essential topic for the economic development of rural communities based on apiculture. Here, we tested the hypothesis if honey production decreases with the increase of exotic forest plantations in the landscape as the cover of native forest decreases, vegetation and soils become increasingly degraded. We compiled data on honey productivity for two years (2018 and 2019) of small-scale honey production in 17 landscapes of 1 km radii (Curanilahue state in south-central Chile). Then, the landscapes were characterized by using remote sensing techniques, including biophysical and compositional landscape variables. Finally, Generalized Linear Mixed Models were implemented to explore the relationship between landscape variables and honey productivity. We identified a positive relationship between honey productivity with built cover and grassland cover. On the other hand, a negative relationship was found between honey production and net primary production, exotic forest plantations, and tree senescence index. Our results provide new insights into the landscape-scale drivers of hive productivity in rural landscapes of south-central Chile.
Journal of Apicultural Research – Taylor & Francis
Published: May 17, 2023
Keywords: Exotic plantations; honey bees; honey productivity; native forest; gardens; biophysical variables
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