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References & Scientific Sources

Fog, Climate, and Atmospheric Structure (Atacama Desert)

Böhm, C., Garreaud, R., Rondanelli, R., et al. (2021).
Toward a climatology of fog frequency in the Atacama Desert via multispectral satellite data and machine learning techniques.
Journal of Applied Meteorology and Climatology, 60(7), 941–961.


Bonnail, E., et al. (2018).
Chemical characterization of coastal fog (camanchaca) in the Chañaral region of northern Chile.
Atmospheric Research, 214, 202–212.

  

Cáceres, L., Gómez-Silva, B., Garró, X., Rodríguez, V., Monardes, V., & McKay, C. P. (2007).
Relative humidity patterns and fog water precipitation in the Atacama Desert and biological implications.
Journal of Geophysical Research: Biogeosciences, 112, G04S14.

  

Cereceda, P., Osses, P., Larrain, H., Farías, M., & Schemenauer, R. S. (2008).
The occurrence of fog in the Atacama Desert (Chile).
Journal of Arid Environments, 72(11), 2043–2055.

  

Cereceda, P., & Larraín, H. (2008).
The spatial and temporal variability of fog and its relation to fog oases in the Atacama Desert, Chile.
Atmospheric Research, 87, 312–323.


Cordero, R. R., Damiani, A., Seckmeyer, G., et al. (2016). 

The Solar Spectrum in the Atacama Desert. 

Scientific Reports, 6, 22457. 


Cordero, R. R., Damiani, A., Jorquera, J., Sepúlveda, E., Caballero, M., Fernandez, S., Feron, S., Llanillo, P. J., Carrasco, J., Laroze, D., & Labbe, F. (2018).
Ultraviolet radiation in the Atacama Desert.
Antonie van Leeuwenhoek, 111, 1301–1312. 


Corvo, F., Pérez, A., Dzib, T., et al. (2008).
Atmospheric moisture availability and surface wetting processes in the Atacama Desert.
Corrosion Science, 50(8), 2202–2213. 

  

Crawford, T. W., Jr. (2019).
Responses of plants to stresses of the Sonoran Desert. 

In M. Pessarakli (Ed.)

Handbook of Plant and Crop Stress (3rd ed., pp. 251–270). CRC Press.


del Río, C., García, J.-L., Osses, P., et al. (2018).
ENSO influence on coastal fog-water yield in the Atacama Desert, Chile.
Atmospheric Research, 214, 162–175.


Fonseca, A., Ferreira, P. H., Nascimento, D. C., Fiaccone, R., Ulloa-Correa, C., García-Piña, A., & Louzada, F. (2021).

Water particles monitoring in the Atacama Desert: SPC approach based on proportional data.

Axioms, 10(3), 154.


Garreaud, R., Molina, A., Farias, M. (2010).
Andean uplift, ocean cooling and Atacama hyperaridity.
Climate of the Past, 6, 723–739.

 

Garreaud, R. D., et al. (2022).
The Atacama Desert: Climate variability, change, and implications for ecosystems.
Frontiers in Environmental Science, 10, 821961.

  

Jordan, P. W., & Nobel, P. S. (1981). 

Seedling establishment of Ferocactus acanthodes in relation to drought. 

Ecology, 62(4), 901–906.


Kaseke, K. F., & Wang, L. (2018).

Fog and dew as potable water resources: Maximizing harvesting potential and water quality concerns. 

Geophysical Research Letters, 45(14), 7229–7237.

  

Larraín Barrios, B. C. (2007).
Relaciones florísticas entre oasis de neblina del desierto costero del norte de Chile.
Memoria de Título, Universidad de Chile, Facultad de Ciencias Agronómicas.


Ibáñez, S. T., Muñoz-Schick, M., & Scherson, R. A. (2022). 

A new species of Diplostephium (Asteraceae, Astereae) from the Atacama Desert, Chile. 

PhytoKeys, 196, 105–125. 

  

Jung, P., Baumann, K., Lehnert, L. W., Samolov, E., Achilles, S., Scherger, B., Büdel, B., & Karsten, U. (2020).
Desert breath: How fog promotes a novel type of soil biocenosis, forming the coastal Atacama Desert’s living skin. 

Geobiology, 18(1), 113–124.


Moat, J., Smith, P., Chilvers, M., et al. (2021).
Fog frequency, cloud cover, and vegetation patterns in the coastal Atacama Desert.
Global Ecology and Biogeography, 30(5), 1008–1022.


Moat, J., et al. (2021).
Seeing through the clouds: Mapping desert fog oasis ecosystems using 20 years of MODIS imagery over Peru and Chile.
International Journal of Applied Earth Observation and Geoinformation, 103, 102468. 

  

Muñoz, R. C., Falvey, M. J., Arancibia, M., Astudillo, V. I., 

Elgueta, J., Ibarra, M., Santana, C., & Vásquez, C. (2018).

Wind energy exploration over the Atacama Desert:

A numerical model–guided observational program.

Bulletin of the American Meteorological Society, 99(10), 2079–2092.


Rundel, P. W., Dillon, M. O., Palma, B., Mooney, H. A., Gulmon, S. L., & Ehleringer, J. R. (1991).

The phytogeography and ecology of the coastal Atacama and Peruvian Deserts.

Aliso: A Journal of Systematic and Evolutionary Botany, 13(1), 1–49.


Schulz, N., Aceituno, P., & Richter, M. (2011).

Phytogeographic divisions, climate change and plant dieback along the coastal desert of northern Chile. 

Erdkunde, 65(2), 169–187.


Thompson, M. V., Palma, B., Knowles, J. T., & Holbrook, N. M. (2003).

Multi-annual climate in Parque Nacional Pan de Azúcar, Atacama Desert, Chile.

Revista Chilena de Historia Natural, 76, 235–254.

  

Weathers, K. C., et al. (2010).
The biology of fog: results from coastal and montane ecosystems.
BioScience, 60(2), 128–137.

Geology, Mineralization, and Substrate Chemistry (Northern Chile)

Servicio Nacional de Geología y Minería (SERNAGEOMIN). (2003).
Mapa Geológico de Chile.
Government of Chile.


Arancibia, G., Clark, A. H., Farías, M., et al. (2014).
Supergene mineralization processes in the Coastal Cordillera of northern Chile.
Economic Geology, 109, 1907–1936.

  

Casanova, M., Salazar, O., Seguel, O., & Luzio, W. (2013).
The soils of Chile.
Springer Science & Business Media.

  

Ewing, S. A., Sutter, B., Owen, J., Nishiizumi, K., Sharp, W., Cliff, S. S., Perry, K., Dietrich, W., McKay, C. P., & Amundson, R. (2006). 

A threshold in soil formation at Earth's arid–hyperarid transition. 

Geology, 34(9), 761–764.


Lopez, B. R., Bashan, Y., Bacilio, M., De la Cruz-Agüero, G. (2009).
Rock-colonizing plants: abundance of the endemic cactus Mammillaria fraileana related to rock type in the southern Sonoran Desert.
Plant Ecology, 201, 575–588. 

  

Santana-Sagredo, F., Schulting, R. J., Méndez-Quiros, P., Vidal-Elgueta, A., Uribe, M., Loyola, R., Maturana-Fernández, A., Díaz, F. P., Latorre, C., McRostie, V. B., Santoro, C. M., Mandakovic, V., Harrod, C., & Lee-Thorp, J. A. (2020).
“White Gold” Guano Fertiliser drove Agricultural Intensification in the Atacama Desert from 1000 AD.
Nature Plants.


Sebastián-Perroud, J. (2015).
Geología y evolución tectónica de la Cuenca de Chañarcillo, Chile.
Undergraduate thesis, Universidad de Chile. 


Villalobos-Amador, E., et al. (2019).
Origen y naturaleza de la mineralización supergénica de cobre en el depósito Barreal, Chile.
Revista Geológica de Chile.

Vegetation Diversity, Endemism, and Conservation

Alam, M. A., Mukherjee, A., Bhattacharya, P., & Bundschuh, J. (2023).
An appraisal of the principal concerns and controlling factors for arsenic contamination in Chile. 

Scientific Reports, 13, 11168.


Arcos, J., Jara, N., & Josselyn, G. (2024).
Toxicity of metals from the mining industry in Latin American countries. 

ESPOCH Congresses: The Ecuadorian Journal of S.T.E.A.M., 3(2), 10–128. 


Barrios, D., Sánchez, J. A., Flores, J., & Jurado, E. (2020).
Seed traits and germination in the Cactaceae family: A review across the Americas. 

Botanical Sciences.

  

Bastías, J. M., Jambon, P., Muñoz, O., Manquián, N., Bahamonde, P., & Neira, M. (2013).
Honey as a bioindicator of arsenic contamination due to volcanic and mining activities in Chile.
Chilean Journal of Agricultural Research, 73(2), 147–153.


Bobo-Pinilla, J., Salmerón-Sánchez, E., Mendoza-Fernández, A. J., Mota, J. F., & Peñas, J. (2022).

Conservation and phylogeography of plants: From the Mediterranean to the rest of the world.

Diversity, 14(2), 78.


Bonnail, E., Cruz-Hernández, P., Galleguillos, S., Izquierdo, T., & Abad, M. (2020).
La contaminación metálica en la bahía de Chañaral (norte de Chile): retrospección, prospección y proyección. 

Geogaceta, 67, 59–62. 


Costa, E., & González Matamala, L. (2022).
La ausencia de lo público: Una de las causas de pérdida de biodiversidad en Chile.
La Chiricoca, 28, 125–131. 


Díaz-Siefer, P., Ramm, A., Díaz-Fosterier, J., León-Lobos, P., & Celis-Diez, J. (2023). 

Biotic homogenization in the availability of ornamental seeds of the native flora in Chile. 

Ornamental Horticulture.


Díaz-Siefer, P., Gutiérrez, J. R., & Squeo, F. A. (2023). 

Native plant seed systems and restoration bottlenecks in Chile: Implications for biodiversity conservation. 

Restoration Ecology, 31(4), e13782. 


Gómez-Silva, B., & Rojas-Pallero, J. (2005). 

Jardín Botánico del Desierto (JBD): Una herramienta de extensión e investigación sobre los recursos naturales renovables del Desierto de Atacama. 

Chloris Chilensis, 8(2).


Korehi, H., Blöthe, M., Sitnikova, M. A., Dold, B., & Schippers, A. (2013).
Metal mobilization by iron- and sulfur-oxidizing bacteria in a multiple extreme mine tailings in the Atacama Desert, Chile. 

Environmental Science & Technology, 47(5), 2189–2196. 

  

Kranner, I. and Colville, L. (2011). 

Metals and seeds: Biochemical and molecular implications and their significance for seed germination. 

Environmental and Experimental Botany, 72(1), 93–105

 

Lam, E. J., Montofré, I. L., Álvarez, F. A., Gaete, N. F., Poblete, D. A., & Rojas, R. J. (2020). 

Methodology to prioritize Chilean tailings selection according to their potential risks. 

International Journal of Environmental Research and Public Health, 17(11), 3948.


Letelier, L., Squeo, F. A., Arancio, G., Marticorena, A., Muñoz-Schick, M., Arroyo, M. T. K., León-Lobos, P., Montecinos, S., & Gutiérrez, J. R. (2008).
Diversidad vegetal de la Región de Atacama, Chile.
In Libro Rojo de la Flora Nativa y de los Sitios Prioritarios para su Conservación: Región de Atacama (pp. 123–135).
Ediciones Universidad de La Serena, La Serena, Chile. 

  

Lundin Mining Corporation and Vicuña Corp. (2026). 

Vicuña Project, Argentina and Chile: NI 43-101 Technical Report on Preliminary Economic Assessment. 

Prepared by multiple qualified persons. Date of report: February 16, 2026; most recent site visit: March 2026.

  

Thompson, J. B., et al. (2024).
Identifying the multiple drivers of cactus diversification.
Nature Communications, 15, 7282.

  

Marambio-Alfaro, Y., Valdés Saavedra, J., Ñacari Enciso, L., López Marras, A., Serrano, A. E., Martínez Peláez, R., Castillo Bruna, A., Álvarez Ávalos, G., & Vidal Maldonado, M. (2020). 

Data on metal accumulation in the tails of the lizard Microlophus atacamensis in a coastal zone of the Atacama Desert, northern Chile: A non-destructive biomonitoring tool for heavy metal pollution. 

Data in Brief.

  

Moran, A. C., Hengst, M. B., De la Iglesia, R., Andrade, S., Correa, J. A., & Gonzalez, B. (2008).
Changes in bacterial community structure associated with coastal copper enrichment. 

Environmental Toxicology and Chemistry, 27(11), 2239–2245.

  

Moț, A., Madjar, R., Bădulescu, L., & Mihalache, M. (2019).
The effects of heavy metals on seed germination and seedling growth of Lactuca sativa L. and Spinacia oleracea L.
Research Journal of Agricultural Science, 51(3), 124–132.

  

Nagajyoti, P. C., Lee, K. D., & Sreekanth, T. V. M. (2010). 

Heavy metals, occurrence and toxicity for plants: a review. 

Environmental Chemistry Letters, 8, 199–216.

  

Nic Lughadha, E., Bachman, S. P., Govaerts, R., et al. (2020).
Extinction risk and threats to plants and fungi. 

Plants, People, Planet, 2(5), 389–408.


Ortega-Baes, P., Galíndez, G., Sühring, S., Rojas-Aréchiga, M., & Cuevas, E. (2010). 

Thermal buffering capacity of the germination niche in cacti: Implications for species persistence under climate change. 

Journal of Arid Environments, 74(7), 810–816. 

  

Ramírez, M., Massolo, S., Frache, R., & Correa, J. A. (2005).
Metal speciation and environmental impact on sandy beaches due to El Salvador copper mine, Chile. 

Marine Pollution Bulletin, 50(1), 62–72.

  

Royal Botanic Gardens, Kew (2020).
State of the World’s Plants and Fungi 2020. 

Kew Publishing.

  

Sanjosé, I., Navarro, T., Marchante, E., & Mateos-Naranjo, E. (2021).
Germination and early seedling growth responses of Salsola vermiculata L. to heavy metals: Implications for phytoremediation.
Environmental Science and Pollution Research, 28, 41987–41999.

  

Santa-Cruz, S., Sepúlveda, M., & Aravena, R. (2021).
Metal toxicity in soils: A comparison between spiked and field-contaminated soils and implications for ecological risk assessment.
Science of the Total Environment, 757, 143845.

  

Valladares, P., Lobos, G., & Mella, J. (2013).
Heavy metal concentrations in the turkey vulture (Cathartes aura) in a mining-impacted coastal zone of northern Chile.
Revista Chilena de Historia Natural, 86, 403–410.


Westermann, F. 2020.
Environmental degradation and pollution legacies in the Atacama Desert: the case of Chañaral Bay. 

Atacama Desert: Climate, Ecology, and Environmental Change.

  

Wisskirchen, C., & Dold, B. (2006).
The marine shore porphyry copper mine tailings deposit at Chañaral, northern Chile. 

In Proceedings of the 7th International Conference on Acid Rock Drainage (ICARD) (pp. 2480–2489). American Society of Mining and Reclamation.

  

Yohannessen, K., Alvarado, S., Mesías, S., Klarián, J., Silva, C., Vidal, D., & Cáceres, D.D. (2015).
Exposure to fine particles by mine tailing and lung function effects in a panel of schoolchildren, Chañaral, Chile.
Journal of Environmental Protection, 6, 118–128. 

  

Zanetta-Colombo, A., et al. (2024).
Spatial modeling of metal(loid) dispersion in the Atacama Desert reveals long-distance wind-driven transport from mining operations and tailings impoundments.
Science of the Total Environment.

CAM Photosynthesis and Desert Plant Physiology

Lüttge, U. (2004).
Ecophysiology of Crassulacean Acid Metabolism (CAM).
Annals of Botany, 93, 629–652.


Osmond, C. B. (1978).
Crassulacean acid metabolism: a curiosity in context.
Annual Review of Plant Physiology, 29, 379–414.


Winter, K., Smith, J. A. C. (1996).
Crassulacean Acid Metabolism: Biochemistry, Ecophysiology and Evolution.
Springer, Berlin. 

Light Measurement, Spectral Metrics, and Photobiology

Apogee Instruments.
Technical documentation on extended photosynthetically active radiation (ePAR) and quantum sensor spectral response (400–750 nm).


Bugbee, B. (Utah State University), Crop Physiology Laboratory.
Research on extended photosynthetically active radiation (ePAR) and far-red effects in plant lighting (c. 2020–present).

  

McCree, K. J. (1972).
The action spectrum, absorptance and quantum yield of photosynthesis in crop plants.
Agricultural Meteorology, 9, 191–216.


Taiz, L., Zeiger, E., Møller, I. M., & Murphy, A. (2015).
Plant Physiology and Development. 

Sinauer Associates, Sunderland, MA. 


Zhen, S., & Bugbee, B. (2020).
Far-red photons have equivalent efficiency to traditional photosynthetic photons: Implications for redefining photosynthetically active radiation.
Plant, Cell & Environment.

  

Zhen, S., & Bugbee, B. (2020)
Substituting far-red for traditionally defined photosynthetic photons results in equal canopy quantum yield for CO₂ fixation and increased photon capture during long-term studies.

Frontiers in Plant Science, 11:581156.  


Zhen, S., van Iersel, M., & Bugbee, B. (2021).
Why far-red photons should be included in the definition of photosynthetic photons and the measurement of horticultural fixture efficacy.
Frontiers in Plant Science, 12:693445.  

Cactus Morphology, Spines, and Functional Anatomy

Aliscioni, N. L., Delbón, N. E., & Gurvich, D. E. (2021).
Spine function in Cactaceae: a review.
Journal of the Professional Association for Cactus Development, 23, 1–24. 

  

Barthlott, W., Mail, M., Bhushan, B., & Koch, K. (2017).
Plant Surfaces: Structures and Functions for Biomimetic Innovations.
Nano-Micro Letters, 9:23.


de la Rosa-Manzano, E., Flores, J., Delgado-Sánchez, P. (2016).

Effects of spine shading on photosynthesis in three cactus species.

Botanical Sciences, 94(2), 301–310.


Dubrovsky, J. G., North, G. B. 2002. 

Root structure and function. In: Nobel, P. S. (ed.), 

Cacti: Biology and Uses. University of California Press, Berkeley, pp. 41–56. 


F.T. Malik, et al. (2016).
Hierarchical structures of cactus spines that aid in the directional movement of dew droplets.
Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences, 374(2073), 20160184.

  

Loik, M. E. (2008).

The effect of cactus spines on light interception and Photosystem II for three sympatric species of Opuntia from the Mojave Desert.

Physiologia Plantarum, 134, 87–98.


Martinez, Stewart & Szeto (2017)
The Relationship Between Structural Parameters and Mechanical Properties of Cactus Spines.
B.S. Materials Engineering thesis, Cal Poly 


Mauseth, J. D. (2005).
Anatomical adaptations to xeric conditions in cacti.
Cactus and Succulent Journal (U.S.), 77(4), 198–208. 


Mauseth, J. D. (2006).
Structure–function relationships in highly modified shoots of Cactaceae.
Annals of Botany, 98, 901–926.


Mauseth, J. D. (2013).
Spines and glochids of cacti: structure, development, and function.
Bradley Journal of Botany, 2, 45–67.


Miesen, F., de Porras, M. E., & Maldonado, A. (2015).

Pollen morphology of Cactaceae in Northern Chile.

Gayana Botánica, 72(2), 258–271.


Nobel, P. S. (2002).
Cactus Biology and Uses.
University of California Press.

  

Nolasco, H., Vega-Villasante, F., Díaz-Rondero, A., & Flores, J. (1997).
Spine and trichome density in cacti as an adaptation to drought.
Journal of Arid Environments, 35(2), 251–258.


Nyffeler & Eggli (1997)

Comparative Stem Anatomy and Systematics of Eriosyce sensu lato

Annals of Botany

  

Riglet, L., Gatti, S., & Moyroud, E. (2021). 

Sculpting the surface: Structural patterning of plant epidermis. 

iScience, 24, 103346.


Reyes-Rivera J, Solano E, Terrazas T, Soto-Hernández M, Arias S, Almanza-Arjona YC, Polindara-García LA

Classification of lignocellulosic matrix of spines in Cactaceae by Py-GC/MS combined omic tools and multivariate analysis: a chemotaxonomic approach. Journal of Analytical and Applied Pyrolysis (2020) 


Warren, S. D., Aguilera, L. E., & Baggett, L. S. (2016).

Directional orientation of reproductive tissue of Eulychnia breviflora (Cactaceae) in the hyperarid Atacama Desert. 

Revista Chilena de Historia Natural, 89, 10.

Thermal Regulation, Albedo, and Microclimate

Geller, G. N., Nobel, P. S. (1984).
Influence of trichomes and spines on boundary layer properties of desert plants.
Oecologia, 64, 1–8.


Nobel, P. S. (1988).
Environmental Biology of Agaves and Cacti.
Cambridge University Press.

Microbial Ecology, Lithic Hydration, and Endolithic Systems

Azúa-Bustos, A., González-Silva, C., Mancilla, R. A., Salas, L., Gómez-Silva, B., McKay, C. P., Vicuña, R. (2011). 

Hypolithic cyanobacteria supported mainly by fog in the coastal range of the Atacama Desert. 

Microbial Ecology, 61(3), 568–581.


Castro et al. 2022. 

Soil microbiome influences on seedling establishment and growth of Prosopis chilensis and Prosopis tamarugo from northern Chile 

Plants 2022, 11, 2717


Connon, S. A., Lester, E. D., Shafaat, H. S., Obenhuber, D. C., Ponce, A. (2007). 

Bacterial diversity in hyperarid Atacama Desert soils. 

Journal of Geophysical Research: Biogeosciences, 112(G4), G04S17.


Crits-Christoph, A., et al. (2013).
Colonization patterns of lithic microbial communities in the Atacama Desert.
Frontiers in Microbiology, 4, 1–14.


Eshel, G., et al. (2021). 

Plant ecological genomics at the limits of life in the Atacama Desert. 

Proceedings of the National Academy of Sciences, 118(46), e2101177118.


Fuentes, A., Herrera, H., Charles, T. C., Arriagada, C. (2020). 

Fungal and bacterial microbiome associated with the rhizosphere of native plants from the Atacama Desert. 

Microorganisms, 8(2), 209.


Gostinčar, C., Zalar, P., Gunde-Cimerman, N. (2022). 

No need for speed: slow development of fungi in extreme environments. 

Fungal Biology Reviews, 39, 1–14.


Huang, S., Li, Y., Wu, X., et al. (2020).
Microbial extraction of structural water from gypsum in hyper-arid environments.
Proceedings of the National Academy of Sciences (PNAS), 117(19), 10602–10608.


Lazcano, C., Boyd, E., Holmes, G., Hewavitharana, S., Pasulka, A., Ivors, K. (2021). 

The rhizosphere microbiome plays a role in the resistance to soil-borne pathogens and nutrient uptake of strawberry cultivars under field conditions. 

Scientific Reports, 11, 3188. 


Prisa, D. (2021). 

Biochar effects in the growing and control of biotic and abiotic stress in Astrophytum myriostigma and Astrophytum capricorne. 

GSC Biological and Pharmaceutical Sciences, 16(1), 186–194.


Sánchez-Reinoso, A. D., Ávila-Pedraza, E. A., & Restrepo-Díaz, H. (2020). 

Use of biochar in agriculture. 

Acta Biológica Colombiana, 25(2), 327–338.


Santiago, I. F., Gonçalves, V. N., Gómez-Silva, B., Galetovic, A., & Rosa, L. H. (2018).
Fungal diversity in the Atacama Desert.
Antonie van Leeuwenhoek, 111, 1345–1361. 


Vásquez-Dean, J., et al. (2020).
Microbial and mineralogical patterns in the hyper-arid Atacama Desert.
Scientific Reports, 10(1), Article 1–13.


Vannini, A., Bianchi, E., Avi, D., Damaggio, N., Di Lella, L. A., Nannoni, F., Protano, G., & Loppi, S. (2021). 

Biochar amendment reduces the availability of Pb in the soil and its uptake in lettuce. 

Toxics, 9(10), 268.  


Wierzchos, J., Ascaso, C., McKay, C. P. (2012).
Endolithic microbial habitats as refuges in hyper-arid deserts.
Antonie van Leeuwenhoek, 101, 1–16.


Yadav, S. P. S., Bhandari, S., Bhatta, D., Poudel, A., Bhattarai, S., Yadav, P., Ghimire, N., Paudel, P., Paudel, P., Shrestha, J., & Oli, B. (2023). 

Biochar application: A sustainable approach to improve soil health. 

Journal of Agriculture and Food Research, 11, 100498. 

Fog-Dependent Nutrient Cycling and Atmospheric Inputs

Dillon, M. O., Nakazawa, M., & Leiva González, S. (2003).
The lomas formations of coastal Peru: Composition and biogeographic history. In J. Haas & M. O. Dillon (Eds.), El Niño in Peru: Biology and Culture Over 10,000 Years.
Fieldiana Botany, New Series 43. Field Museum of Natural History.


Ewing, S. A., et al. (2008).
Fog deposition and nutrient cycling in hyper-arid ecosystems.
Biogeochemistry, 87, 53–64.

  

Fletcher, L. A., Parro, V., Gómez, F., et al. (2012).
Variability of organic material in surface horizons of hyper-arid Atacama Desert soils.
Geochimica et Cosmochimica Acta, 87, 30–44.

  

González, A. L., Farina, J. M., Pinto, R., Pérez, C., Weathers, K. C., Armesto, J. J., & Marquet, P. A. (2011).
Bromeliad growth and stoichiometry: responses to atmospheric nutrient supply in fog-dependent ecosystems of the hyper-arid Atacama Desert, Chile. 

Oecologia, 167, 835–845.

  

Pinto, R., Barría, I., Marquet, P. A., & Jaksic, F. M. (2006).
The role of fog in the maintenance of Tillandsia landbeckii populations in the Atacama Desert, Chile.
Journal of Arid Environments, 65(4), 558–567.


Weathers, K. C., et al. (2010).
Atmospheric deposition and canopy interactions in fog-dominated systems.
Ecosystems, 13, 767–780.

Copiapoa Biology, History, and Cultivation

Copiapoa ecology and biology


Ehleringer, J. R., Mooney, H. A., Gulmon, S. L., & Rundel, P. W. (1980).

Orientation and its consequences for Copiapoa (Cactaceae) in the Atacama Desert.

Oecologia, 46, 63–67. 


Cayo, M., Solís-Cornejo, F., Santos, A., Zamorano, P., & Valenzuela, B. (2025).
The abundance and distribution of the acdS gene in microbial communities from the rhizosphere of Copiapoa solaris, a native cactus in the arid coastal region of Antofagasta, Chile.
Microorganisms, 13, 1547. 


Flores, J., Jurado, E., & Chapa-Vargas, L. (2011). 

Germination of Cactaceae: A review of germination ecology, seed traits, and environmental requirements. 

Seed Science Research, 21(3), 1–15. 


Tkachenko, H. (2020).
Latent time characteristic of some species of Cactaceae.
Ukrainian Journal of Ecology, 10(3), 114–120.

  

  

Copiapoa-associated insect ecology


Pineda, C., & Mondaca, J. (2020).
Sobre el estatus taxonómico de Ectinogonia darwini Waterhouse, 1913 y Ectinogonia angulicollis (Fairmaire & Germain, 1858) (Coleoptera: Buprestidae): fijación del holotipo por monotipia, designación de lectotipo y descripción de dos nuevas especies de Ectinogonia del norte de Chile.
Insecta Mundi, 0825, 1–15.

  

Chilean cactus field ecology


Señoret, F., & Acosta, J. P. (2013).
Cactáceas Nativas de Chile: Guía de Campo.
Corporación Chilena de la Madera (CORMA), Concepción, Chile. 

  

Copiapoa taxonomy and monographs


Doweld, A. B. (2001). 

On the phylogeny and systematics of the genus Copiapoa Britton et Rose. 

Succulents (CYKKY JIEHTbl), 1–2, 46–56.


Ritter, F. (1980).
Kakteen in Südamerika, Band 3: Chile.
Spangenberg Verlag.


Sarnes, J. (2025).
Copiapoa: The Complete Monograph.
Self-published / Private edition. 


Schulz, R., Kapitany, A. (1994).
Copiapoa.
Cactus & Co.

  

Cultivation and collector literature


Charles, G. (1998).
Copiapoa and their cultivation.
British Cactus & Succulent Society.


Stone, G. (2014).
Copiapoa: The extreme end of the scale.
Cactus and Succulent Journal (U.S.), 86(3).


Panco, D. (2013).
The Stone Eaters.
Xerophilia, Issue 2.

  

Seed bank / seed persistence


Lindow-López, L., et al. 2023.
Soil seed banks in Cactaceae: seed density, distribution, and persistence across arid environments.

Journal of Arid Environments.


Álvarez-Espino, R., et al. 2014.
Seed banks and germination dynamics in desert cacti: implications for recruitment under variable rainfall. 

Plant Ecology.

 

Evolutionary and Phylogenetic Context  

Gulmon, S. L., Rundel, P. W., Ehleringer, J. R., Mooney, H. A. 1979. 

Spatial relationships and competition in a Chilean desert cactus. 

Oecologia 44: 40–43. 


Hernández-Hernández, T., Brown, J. W., Schlumpberger, B. O., Eguiarte, L. E., & Magallón, S. (2014).
Beyond aridification: multiple explanations for the elevated diversification of cacti in the New World Succulent Biome.
New Phytologist, 202(4), 1382–1397.


Larridon, I., Walter, H. E., Eggli, U., Ogburn, R. M., & Moore, M. J. (2014).
Is there a future for the Cactaceae genera Copiapoa, Eriosyce and Eulychnia?
Biodiversity and Conservation, 23, 1249–1287.


Larridon, I., Walter, H. E., Eggli, U., Ogburn, R. M., & Moore, M. J. (2015).
An integrative approach to understanding the evolution and diversity of Copiapoa.
American Journal of Botany, 102(11), 1853–1867.


Larridon, I., et al. (2018).

Investigating taxon boundaries and extinction risk in endemic Chilean cacti (Copiapoa subsection Cinerei, Cactaceae) using chloroplast DNA sequences, microsatellite data and 3D mapping. 

Kew Bulletin, 73: 55. 

Documentation, Provenance, and Collection Data Integrity

Davis, T. J., & Pillet, M. D. (2023).
Don’t Tell Me, Show Me: The Importance of Managing Collection Data.
Cactus and Succulent Journal (U.S.), 95(3).

 

Korotkova, N., Borsch, T., Arias, S., Barthlott, W., Hunt, D. R., Taylor, N. P., & Liede-Schumann, S. (2021).
Cactaceae at Caryophyllales.org: A dynamic online species-level taxonomic backbone for the family.
Willdenowia, 51(2), 251–270.

Interpretation Note

This site synthesizes peer-reviewed research across climatology, geology, plant physiology, and desert ecology. Where Copiapoa-specific experimental data are limited, broader cactus and fog-desert literature is used conservatively to interpret recurring morphological and ecological patterns. 

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