Sugarcane Yield and Yield Components as Affected by Harvest Time


Brazil is the largest sugarcane producing country in the world. Mills usually operate nine months to process the sugarcane produced in the country. Here we investigated the effect of harvest time on the on-farm sugarcane yield and yield components (stalk fresh yield [SFY], sucrose yield [SY], and sucrose concentration [POL%]). We used a large database collected from commercial sugarcane blocks to assess the effect of harvest time on SY and yield components. Blocks were first clustered based on similarity of climate and soil, referred as environments, and the effect of harvest season on SY, SFY, and POL%, as influenced by the environment and the number of harvests, was evaluated using analysis of variance. Harvest season strongly influenced POL% and SY but had a comparably smaller effect on SFY. Although relatively smaller compared with other sources of variation, there was a statistically significant interactive effect of harvest number and harvest season on SY, with highest SY when harvest occurred during the mid-season or late season in old ratoons and during the mid-season in the case of young ratoons. Closing the yield gap due to sub-optimal harvest time by concentrating the harvest around the productivity peak would increase national sucrose production by 8%, but this is not possible due to logistic and milling constrains. In contrast, our findings suggested room to extend the harvest period to 10 months, which will free up milling capacity by 8% with no yield penalty. The extra milling capacity could serve as a motivation to increase productivity via agronomic practices to fully exploit the milling processing capacity.

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Code Availability

Not applicable.

Data Availability

Data is confidential. Summary of data at the regional level to preserve the identity of producers and mills in the database can be shared upon request.


  1. 1.

    Assuming a national production of 642 million tons (CONAB 2020) and an overall fixed cost of US$60 for processing one metric ton of milled stalks. The extra fixed costs were calculated based on the extra production in the S3 scenario in relation to the current 9-month harvest season and the fixed cost per metric ton.


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Funding sources include the Fulbright program, the Global Engagement Office at the Institute of Agriculture and Natural Resources at University of Nebraska-Lincoln (UNL), the Brazilian Research Council (CNPq grants 425,174/2018–2 and 300,916/2018–3), the Research Foundation of the State of São Paulo (FAPESP 2017/20,925–0), and the FAPESP-UNL SPRINT Program (2017/50,445–0).

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FRM performed conceptualization, data collection, organization, data analysis, writing, and editing. JIRE and JFA were involved in data analysis, writing, and editing. PG contributed to conceptualization, writing, and editing.

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Correspondence to Fabio R. Marin.

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Marin, F.R., Rattalino Edreira, J.I., Andrade, J.F. et al. Sugarcane Yield and Yield Components as Affected by Harvest Time. Sugar Tech (2021).

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  • Sugarcane
  • Harvest time
  • Sucrose yield
  • Stalk fresh yield
  • POL