TY - JOUR
T1 - Digital transformation to mitigate emergency situations
T2 - increasing opioid overdose survival rates through explainable artificial intelligence
AU - Johnson, Marina
AU - Albizri, Abdullah
AU - Harfouche, Antoine
AU - Tutun, Salih
N1 - Publisher Copyright:
© 2021, Emerald Publishing Limited.
PY - 2023/2/3
Y1 - 2023/2/3
N2 - Purpose: The global health crisis represents an unprecedented opportunity for the development of artificial intelligence (AI) solutions. This paper aims to integrate explainable AI into the decision-making process in emergency scenarios to help mitigate the high levels of complexity and uncertainty associated with these situations. An AI solution is designed to extract insights into opioid overdose (OD) that can help government agencies to improve their medical emergency response and reduce opioid-related deaths. Design/methodology/approach: This paper employs the design science research paradigm as an overarching framework. Open-access digital data and AI, two essential components within the digital transformation domain, are used to accurately predict OD survival rates. Findings: The proposed AI solution has two primary implications for the advancement of informed emergency management. Results show that it can help not only local agencies plan their resources for timely response to OD incidents, thus improving survival rates, but also governments to identify geographical areas with lower survival rates and their primary contributing factor; hence, they can plan and allocate long-term resources to increase survival rates and help in developing effective emergency-related policies. Originality/value: This paper illustrates that digital transformation, particularly open-access digital data and AI, can improve the emergency management framework (EMF). It also demonstrates that the AI models developed in this study can identify opioid OD trends and determine the significant factors improving survival rates.
AB - Purpose: The global health crisis represents an unprecedented opportunity for the development of artificial intelligence (AI) solutions. This paper aims to integrate explainable AI into the decision-making process in emergency scenarios to help mitigate the high levels of complexity and uncertainty associated with these situations. An AI solution is designed to extract insights into opioid overdose (OD) that can help government agencies to improve their medical emergency response and reduce opioid-related deaths. Design/methodology/approach: This paper employs the design science research paradigm as an overarching framework. Open-access digital data and AI, two essential components within the digital transformation domain, are used to accurately predict OD survival rates. Findings: The proposed AI solution has two primary implications for the advancement of informed emergency management. Results show that it can help not only local agencies plan their resources for timely response to OD incidents, thus improving survival rates, but also governments to identify geographical areas with lower survival rates and their primary contributing factor; hence, they can plan and allocate long-term resources to increase survival rates and help in developing effective emergency-related policies. Originality/value: This paper illustrates that digital transformation, particularly open-access digital data and AI, can improve the emergency management framework (EMF). It also demonstrates that the AI models developed in this study can identify opioid OD trends and determine the significant factors improving survival rates.
KW - Digital transformation
KW - Emergency management framework
KW - Explainable artificial intelligence
KW - Machine learning
KW - Opioid OD
KW - Survival prediction
UR - http://www.scopus.com/inward/record.url?scp=85116791655&partnerID=8YFLogxK
U2 - 10.1108/IMDS-04-2021-0248
DO - 10.1108/IMDS-04-2021-0248
M3 - Article
AN - SCOPUS:85116791655
SN - 0263-5577
VL - 123
SP - 324
EP - 344
JO - Industrial Management and Data Systems
JF - Industrial Management and Data Systems
IS - 1
ER -