Open Access
A fuzzy-based prediction approach for blood delivery using machine learning and genetic algorithm
Author(s) -
Marouane El Midaoui,
Mohammed Qbadou,
Khalifa Mansouri
Publication year - 2022
Publication title -
international journal of power electronics and drive systems/international journal of electrical and computer engineering
Language(s) - English
Resource type - Journals
eISSN - 2722-2578
pISSN - 2722-256X
DOI - 10.11591/ijece.v12i1.pp1056-1068
Subject(s) - economic shortage , computer science , blood bank , blood transfusion , blood units , algorithm , shortest path problem , fuzzy logic , medicine , operations management , artificial intelligence , emergency medicine , surgery , engineering , government (linguistics) , graph , linguistics , philosophy , theoretical computer science
Multiple diseases require a blood transfusion on daily basis. The process of a blood transfusion is successful when the type and amount of blood is available and when the blood is transported at the right time from the blood bank to the operating room. Blood distribution has a large portion of the cost in hospital logistics. The blood bank can serve various hospitals; however, amount of blood is limited due to donor shortage. The transportation must handle several requirements such as timely delivery, vibration avoidance, temperature maintenance, to keep the blood usable. In this paper, we discuss in first section the issues with blood delivery and constraint. The second section present routing and scheduling system based on artificial intelligence to deliver blood from the blood-banks to hospitals based on single blood bank and multiple blood banks with respect of the vehicle capacity used to deliver the blood and creating the shortest path. The third section consist on solution for predicting the blood needs for each hospital based on transfusion history using machine learning and fuzzy logic. The last section we compare the results of well-known solution with our solution in several cases such as shortage and sudden changes.