Big Data Analytics in Supply Chain Management
4. Big data in logistics
Since the 1980s, optimizing resource consumption and outsourcing non-specialized activities such as logistics processes had been a major practice in most businesses. Today, logistics is a critical part of both the manufacturing and service industries. Many multinational companies have outsourced their logistics processes to third-party logistics providers and consider them their strategic partners.
Many research projects have been developed in the transportation and logistics industries that use available data that generated by road sensors, GPS devices and customers' websites. Logistics providers manage a high volume of product flow and have access to a considerable volume of data. Any measurable criterion of product flow - such as origin, destination, size, weight, price, load content, etc. - can be a valuable method by which to use information for value creation. Improvements in GPS efficiency, applications of sensor networks, and developments in the Internet of Things have opened up new areas in logistics and supply chain automation.
Optimizing service experiences such as delivery time, resource application, and geographical coverage are continuous challenges for logistics systems. Both delayed and early deliveries would be costly for logistics providers. This time difference between the planned delivery and the actual delivery is one of the key risk factors for logistics companies. Weather forecasts and vehicles' performance reliability data can be used to minimize the risk of inaccurate delivery times.
Big data logistics can be defined as modeling and analyzing logistics systems using big data sets which have been generated by GPS devices, cell phones, and the logistics companies' operations. Considering the current trend of big data applications in the logistics industry, it can be safely said that the logistics industry is in a transition phase from product-based services to information-based services.
There are important business processes in the logistics industry such as forecasting, transportation, inventory management, and human resource planning and management that can be improved by using big data. Jin & Kim combined big data analytics and business intelligence to minimize the analysis cost for the sorting and logistics processes of a courier firm. The other possible applications are forecasting delivery times, managing customer relationships, developing real-time scheduling, and managing supplier relationships.
Data mining applications for logistics management are threefold: 1- Data analysis to match the needs of both logistics process management and the customer; 2- Data analysis to manage the logistics process based on methodical decisions; and 3- A supporting role for logistics managers. Network technology developments can improve logistics processes by using information regarding real-time transactions. As a result of the increased adaptability of logistics information, logistics has been transformed into a dynamic data process. Niu et al. studied two competing air cargo carriers and showed how using big data analytics benefits a carrier by allowing them to receive updated demand signals. There are many quality papers in this field; some of these journal articles are summarized in Table 3.
Table 3 High-quality articles using big data in logistics processes.
Author/Journal |
Contribution |
Study approach |
Case study (NA stands for Not Applicable) |
Future research topic(s) in the article |
Mehmood & Graham/Procedia Computer Science |
Improving transportation system efficiency by sharing load and capacity |
Mathematical modelling |
Healthcare transport operations in the United Kingdom, US, France, and the Middle East |
-Exploring load optimization in fields such as "bike sharing", "waste management", and "manufacturing plant location / freight delivery" |
Zhong et al./International Journal of Production Economics |
Using RFID logistics big data to develop a smart manufacturing environment |
Spatio-temporal sequential RFID patterns / RFID-Cuboid algorithm |
Unnamed collaborative company with 4 manufacturing shop floors |
-Developing a mathematical model to integrate production planning, scheduling, and material delivery strategy |
-Extending the evaluations of the aforementioned approach to big data |
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Kaur & Singh/Computers & Operations Research |
Developing a big data analytics model to make optimal sustainable logistics decisions |
Mixed integer linear & nonlinear programming / Heuristic method |
Unnamed manufacturing industries |
-Considering stochastic parameters along with big data |
-Considering late deliveries and shortages in a mathematical model |
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Witkowski/Procedia Engineering |
Creating smart solutions for logistics in the global market |
Analytical study |
NA |
NA |
Hopkins & Hawking/The International Journal of Logistics Management |
Using big data analytics and the Internet of Things to increase driver safety, reduce operating costs, and improve vehicles' environmental impact |
Analytical framework |
Data from 2012 to 2016 from a company in the logistics field |
NA |
Wu & Lin/Telematics and Informatics |
Generating logistical strategies by using unstructured big data |
Analytical field study |
Open-access logistic e-commerce professional websites |
-Investigating various types of unstructured data to develop logistical strategies |
-Implementing studies on structured e-commerce logistics data |