
Data usage in agribusiness is essential for optimizing complex operations, such as logistics between the field and the mill. By analyzing variables like distances, cycle times, and machinery maintenance, businesses can make more effective decisions, overcoming the limitations of traditional spreadsheets. The emphasis should be on solving problems through data, ensuring efficiency and productivity.


Willian Fernandes
Project ManagerSTAUFEN.Brasil
He has worked in agribusiness for companies such as Biosev and Citrosuco, implementing technologies to optimize harvesting and agricultural operations.
In consultancy, years of experience in Big-Data and Business Intelligence projects, with Ihara, Long-Ping, Nutrien, Agrichem, Minerva Foods and Honda as the main clients.
In Business Development, advisory work on various technology and digitalization projects, with a focus on improving client performance through data analysis, governance and processes.
Projects:
Tereos DoT (Database of Truth): centralization of industrial and agricultural data in a single source for visibility of plant maintenance and operations;
Agrichem (Nutrien): mapping commercial area indicators to create a data warehouse and Power BI dashboards;
Ihara Data lake: mapping of more than 136 indicators and data modeling of the commercial, marketing, logistics and operations areas for centralization in an AWS repository;
brMalls: 360º Assessment Data Advisor in the areas of sales, marketing, finance and mall operations, looking for gaps and proposing improvement actions.
Contact:
willian.fernandes@staufen.com.br
* By Willian Fernandes
Project manager at Staufen
Data Analytics in Action: A Case Study in Sugarcane Logistics
In the sugar-energy sector, logistics between the field and the mill plays a critical role in operational efficiency and profitability. A practical example demonstrating the importance of data in this process involves two sugarcane harvesting fronts, both equipped with the same number of harvesters, tractors, and trucks but situated at different distances from the mill.
The first harvesting front is located 10 km from the mill, while the second is 60 km away. Despite identical operational setups, the longer distance of the second front poses greater logistical challenges, such as extended travel times for trucks hauling sugarcane to the mill and returning for additional loads. This disparity demands meticulous planning to ensure that the mill receives a steady supply of sugarcane, avoiding interruptions in production.

Now, imagine that the second harvesting front is moved even farther to 80 km from the mill. This increased distance lengthens truck cycle times, disrupting the continuous flow of sugarcane to the mill. To address this logistical bottleneck, more trucks would be required to maintain a stable supply of sugarcane. Otherwise, the mill’s processing capabilities may be compromised, resulting in downtime and reduced operational efficiency.
Additionally, if one of the harvesters in either front experiences extended maintenance time, leading to reduced harvesting output, the logistics will be directly affected. Less sugarcane will be harvested and transported to the mill, further straining operations. In such scenarios, the interplay of factors like mill distance, truck availability, and machine maintenance time creates a complex planning challenge.
Optimizing Logistics Through Data-Driven Insights: Overcoming Complexity for Greater Efficiency
Analyzing these interconnected variables—distance, truck cycle times, harvester maintenance, and field productivity—quickly exceeds the capabilities of traditional spreadsheet-based management. Analytics tools and data-driven optimization models become indispensable for simulating scenarios, anticipating bottlenecks, and making decisions that enhance transport efficiency while minimizing operational costs.
By integrating real-time data from the field, maintenance operations, and logistics, mills and agricultural operations can allocate resources more effectively, ensuring a consistent sugarcane supply even under complex conditions.
