Crop Parameters for Modeling Sugarcane under Rainfed Conditions in Mexico

Crop models with well-tested parameters may help improve sugarcane productivity for food and biofuel generation, especially in rainfed areas where studies are scarce. This study aimed to calibrate crop parameters for the sugarcane cultivar CP 72-2086, an early-maturing cultivar widely grown in Mexic...

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Veröffentlicht in:Sustainability 2017-07, Vol.9 (8), p.1337
Hauptverfasser: Baez-Gonzalez, Alma Delia, Kiniry, James R, Meki, Manyowa N, Williams, Jimmy, Alvarez-Cilva, Marcelino, Ramos-Gonzalez, Jose L, Magallanes-Estala, Agustin, Zapata-Buenfil, Gonzalo
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container_end_page
container_issue 8
container_start_page 1337
container_title Sustainability
container_volume 9
creator Baez-Gonzalez, Alma Delia
Kiniry, James R
Meki, Manyowa N
Williams, Jimmy
Alvarez-Cilva, Marcelino
Ramos-Gonzalez, Jose L
Magallanes-Estala, Agustin
Zapata-Buenfil, Gonzalo
description Crop models with well-tested parameters may help improve sugarcane productivity for food and biofuel generation, especially in rainfed areas where studies are scarce. This study aimed to calibrate crop parameters for the sugarcane cultivar CP 72-2086, an early-maturing cultivar widely grown in Mexico and other countries, and evaluate their adequacy in simulating sugarcane in a diverse range of rainfed conditions. For the calibration and evaluation of parameters, the ALMANAC model was used with climate, soil, management, and yield for two growing seasons from 30 farms in three regions (Northeastern Mexico, Gulf of Mexico, and Pacific Mexico). Statistical analyses were made using regression analysis and mean squared deviation and its three components, i.e., the squared bias, the lack of correlation weighted by the standard deviations, and the squared difference between standard deviations. Model simulations with a light extinction coefficient (k) of 0.69, maximum leaf area index of 7.5, leaf area index decline rate of 0.3, optimal and minimum temperature for plant growth of 32 °C and 11 °C, respectively, potential heat units of 6000 to 7400 degree days (base 11 °C), harvest index of 0.9; maximum crop height of 4.0 m, and root depth of 2.0 m showed highest accuracy and captured best the magnitude of yield fluctuations with a root mean squared deviation of 7.8 Mg ha−1. The parameters were found to be reasonable to use in simulating sugarcane in diverse regions under rainfed conditions. Using a dynamic value of k (varying during the growing season) deserves further study as it may help improve crop model precision.
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subjects Biofuels
climate
Computer simulation
crop management
crop models
Crops
cultivars
Deviation
farms
Food
growing season
Gulf of Mexico
harvest index
heat
heat sums
Leaf area
Leaf area index
Leaves
Mexico
model validation
Plant growth
precision
rainfed farming
Regression analysis
Saccharum officinarum
Seasons
simulation models
soil
Standard deviation
Sugarcane
Sustainability
temperature
title Crop Parameters for Modeling Sugarcane under Rainfed Conditions in Mexico
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