Data-driven ERP-BPMS model for public utilities’ crisis resilience

Public utility enterprises (PUEs) increasingly operate in volatile environments characterized by geopolitical tensions, infrastructure disruptions, and workforce mobilization, all threatening essential services. This study proposes a hybrid risk management model integrating Enterprise Resource Planning (ERP) and Business Process Management Systems (BPMS) with heuristic decision-making and predictive analytics. Using a mixed-methods approach, we analyzed key performance indicators (KPIs) – including response times, resource utilization, and continuity – extracted from BOS CIS at Mastergaz (a Ukrainian utility). Pre- and post-integration comparisons showed a 50% reduction in response times, 20% lower logistical costs, and continuity above 90%. A qualitative thematic analysis of 15 interviews confirmed that improved transparency, preparedness, and decentralized decision-making aligned with these KPI gains. Scenario-based simulations (including Monte Carlo) validated the model under infrastructure loss and workforce shortages. These integrated findings support the hypothesis that an ERP-BPMS integrated model grounded in both quantitative and qualitative metrics enhances agility, cost-effectiveness, and resilience. This framework offers utility leaders a data-driven, adaptable tool for proactive crisis management across diverse scenarios.

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Publication Details

Journal
Management of Development of Complex Systems
Published
2025-06-27
DOI
https://doi.org/10.32347/2412-9933.2025.62.12-23
Primary Topic
Software System Performance and Reliability
Type
article
Field-Weighted Citation Impact
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article

Data-driven ERP-BPMS model for public utilities’ crisis resilience

Yuri Chernenko, Alexander Semko
Management of Development of Complex Systems
Software System Performance and Reliability
article

Data-driven ERP-BPMS model for public utilities’ crisis resilience

Yuri Chernenko, Alexander Semko
article en

Abstract

Public utility enterprises (PUEs) increasingly operate in volatile environments characterized by geopolitical tensions, infrastructure disruptions, and workforce mobilization, all threatening essential services. This study proposes a hybrid risk management model integrating Enterprise Resource Planning (ERP) and Business Process Management Systems (BPMS) with heuristic decision-making and predictive analytics. Using a mixed-methods approach, we analyzed key performance indicators (KPIs) – including response times, resource utilization, and continuity – extracted from BOS CIS at Mastergaz (a Ukrainian utility). Pre- and post-integration comparisons showed a 50% reduction in response times, 20% lower logistical costs, and continuity above 90%. A qualitative thematic analysis of 15 interviews confirmed that improved transparency, preparedness, and decentralized decision-making aligned with these KPI gains. Scenario-based simulations (including Monte Carlo) validated the model under infrastructure loss and workforce shortages. These integrated findings support the hypothesis that an ERP-BPMS integrated model grounded in both quantitative and qualitative metrics enhances agility, cost-effectiveness, and resilience. This framework offers utility leaders a data-driven, adaptable tool for proactive crisis management across diverse scenarios.

Management of Development of Complex Systems(62)
International University of Business and Law (UA), Cherkasy State Technological University (UA), Carol I National Defence University (RO)
Openalex Percentile: Top 81%
Software System Performance and Reliability
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