Cane sugar production in El Salvador and its relationship with the variability of Solar and Geomagnetic Activity: An approach to Bio economics and Climate Change

Authors

DOI:

https://doi.org/10.5377/ribcc.v5i10.8946

Keywords:

Climate Change, Heliobiology, Bioeconomy, Ecointensification, Geomagnetism

Abstract

The present work is a contribution of the Bioeconomy in the productive path of Eco intensification, where the effects of climatic variability affect the productivity levels of sugarcane production. The eruptive Activity of the Sun and Space Weather are important elements of the cosmic environment that affect the variability of the planet's climate and numerous processes of the Biosphere and the Environment. The time series of productivity in the sugar industry in El Salvador for a period of 31 years (1985-2015) were analyzed from the data published in the Yearbook of Agricultural Statistics, DGEA-MAG, in relation to the rainy regime for that same period and with two indexes of the Space Weather. The work was carried out in different phases in Cuba, El Salvador and Mexico. The objective of the work was to assess the hypothesis that establishes the associations between these variables (sugar production series and spatial climate indices) and at the same time confirm the possible influence for this Central American territory, and the sample with which it was contrasted. It is shown that there is a close synchrony between the Solar and Geomagnetic Activity and the sugarcane, molasses and sugar production indices, clearly manifesting in these last ones a multi-year cycle of approximately 10 to 12 years.

Downloads

Download data is not yet available.

Metrics

Metrics Loading ...

Author Biographies

P. Sierra-Figueredo, Institute of Geophysics and Astronomy. Cuba

Scientific researcher of AMA-CITMA, member of the Ibero-American Network of Bioeconomics and
Climate Change, and the Ibero-American Society of Bioeconomics and Climate Change.

E. A. Marinero-Orantes, El Salvador University. El Salvador

Scientist of the Center for Environmental Research of the Paracentral Multidisciplinary Faculty,
University of El Salvador (CEIA). Member of the Ibero-American Network of Bioeconomics and
Climate Change and the Ibero-American Society of Bioeconomics and Climate Change.

A. Sol-Sánchez., Postgraduate College-Campus Tabasco. Mexico

Researcher of the Graduate College, Tabasco, Mexico. President of the Ibero-American Society of
Bioeconomics and Climate Change and member of the Ibero-American Network of Bioeconomics and
Climate Change section Mexico.

C. A. Zúniga-Gonzalez, National Autonomous University of Nicaragua, León. Nicaragua

 Research professor at UNAN Leon. Director of the Iberomericana network of Bioeconomics and Climate Change. Member of the Ibero-American Society of Bioeconomics and Cliamtico Change. Director of the research center in agricultural sciences and applied economics.

References

Chizhevskii, A. 1940. Cosmobiologie et Rythme du Milieu extérieur. Verhandlungen, Zweiten Konferenz der Internationalen Gesellschaft für Biologische Rhythmusforschung, am 25. und 26. August 1939, Utrecht, Holland, HolmgrenHj, editor. Acta med scand 1940; 108 (Suppl): 211–226.

Chizhevskii, A. 1973. El eco terrestre de las tormentas solares. Ed. "Misl" Moscú, 1973.

Muthanna, A. Al-Tameemi; Chukin V. 2016. Global wather cycle and solar activity variations. Journal of Atmospheric and Solar-Terrestrial Physics142 (2016) 55–59.

Piccardi, G. 1971. Actividad Solar y los test químicos. Influencia de la Actividad Solar en la Atmósfera y la Biosfera de la Tierra. Moscú, 1971, p. 141 – 147.

Piccardi, G. 1962. The chemical basis of medical climatology. Springfield (Ill. USA, Charles C. Thomas..

Pustil’nik, L.A. & Din, G.Y. (2004). Influence of solar activity on the state of the wheat market in medieval England. Sol Phys (2004) 223: 335.

Dios P. R., Alcaide, J. D., Jurado, M., Guijarro, A. P., Martinez-Paz, J., & Zúniga-González, C. (2015). Aspectos medioambientales en los análisis de eficiencia. Revista Iberoamericana de Bioeconomía y Cambio Climàtico, 1(1).

Sierra, P., Sierra, S., Rodríguez R., Pérez P. 1999. Impacto Medioambiental de las Perturbaciones Heliogeofísicas. Consideraciones a partir de Resultados Observacionales. México, D.F. Rev. Geofísica, No. 50, Enero-Junio 1999, pp. 9-23..

Sanchez, Á. S., Sierra-Figueredo, P., & Marinero-Orantes, E. A. (2017). Actividad solar y su asociación con el régimen de lluvias en El Salvador. Revista Iberoamericana de Bioeconomia y Cambio Climático, 3(6), 782-799.

Virden L. Harrison. 1976. Do sunspot cycles affect crop yields? Economic Research Service, U.S. Department of Agriculture. Agricultural Economic Report No. 327.

Vitinskii Yu. 1973. Ciclicidad y pronóstico de la Actividad Solar (ruso). Ed. "NAUKA". Leningrado 1973. 254p

Vitinskii Yu. 1983. Actividad Solar y Biosfera (ruso). Actividad Solar. Moscú. Ed."Nauka", 1983. pp.179-192

Zúniga-González, C. A., Durán Zarabozo, O., Dios Palomares, R., Sol Sánchez, A., Guzman Moreno, M. A., Quiros, O., & Montoya Gaviria, G. D. J. (2014). Estado del arte de la bioeconomía y el cambio climático (No. 1133-2016-92457, pp. 20-329).

Published

2019-12-11

How to Cite

Sierra-Figueredo, P., Marinero-Orantes, E. A., Sol-Sánchez, Ángel, & Zúniga-Gonzalez, C. A. (2019). Cane sugar production in El Salvador and its relationship with the variability of Solar and Geomagnetic Activity: An approach to Bio economics and Climate Change. Revista Iberoamericana De bioeconomía Y Cambio climático, 5(10), 1209–1221. https://doi.org/10.5377/ribcc.v5i10.8946

Issue

Section

Review article

Categories