# Assessing Crisis Management Tools for Sustainability of Industrial Safety
## 7 Conclusions  
This study provided models of three scenarios created using ALOHA software. Each of these scenarios differed in the type of hazard being simulated and the conditions under which the hazardous substance was leaked, or a fire occurred. Scenario 1.1 modelled a situation in which an ammonia leak occurred under stable atmospheric conditions, which are usually prevalent in the summer months. This scenario focused on the spread of ammonia in the air and identified danger zones with concentrations defined by ERPG-1, ERPG-2, and ERPG-3. The simulation results were transferred to Google Earth, which enabled the visualisation of danger zones in a real environment. Scenario 1.2 was also modelled under similar atmospheric conditions as Scenario 1.1, but it focused on specific concentrations of ammonia that can have immediate fatal consequences. In this scenario, zones with concentrations of 4300 ppm and 2160 ppm were marked, with the IDLH zone being the most dangerous. The scenario highlighted the risk of dying within minutes in the 4300 ppm zone, and the life-threatening risk of thirty minutes of exposure in the 2160 ppm zone. Scenario 2 differed from the previous ones in that it simulated a pool fire in a hazardous substance, focusing on thermal radiation. This scenario showed danger zones caused by thermal radiation, while also using Google Earth to visualise these zones in a real-world environment. For Scenarios 1 and 2, the routes of the rescue services were simulated using ALOHA. These simulations were used to plan and optimise interventions in the event of a leak of hazardous substances, namely, ammonia, and in the event of a fire. For Scenario 1, the emergency services' driving route was designed to enable a quick and efficient response, taking into account critical buildings that needed to be evacuated, such as schools and medical centres. The simulation also considered danger zones based on ammonia concentrations. In Scenario 2, a situation with a pool fire of a hazardous substance was simulated. The route of the rescue services was planned in such a way as to minimise exposure to thermal radiation and enable safe and effective intervention in the affected areas. The route also took into account weather conditions and wind direction to avoid hitting zones with high heat radiation. Each of these scenarios focused on different aspects of the hazard and provided different perspectives on the possible risks associated with a leak or fire of a hazardous substance. In conclusion, the future of ALOHA software will depend on its ability to constantly innovate and adapt to the changing needs of its users. In order for ALOHA software to remain relevant and effective in crisis management, development teams will need to invest in improving the software's features, integrating new technologies, such as advanced simulations or Artificial Intelligence, and expanding its compatibility with modern data collection and analysis tools. Such steps will enable ALOHA to keep up with technological trends and increasing demands for accuracy and reliability in the field of emergency management. Conceptualization, O.G.V. and J.K.G. ; methodology, O.G.V. and J.K.G. ; software, O.G.V. ; validation, O.G.V. and J.K.G. ; formal analysis, O.G.V. and J.K.G. ; investigation, O.G.V. and J.K.G. ; resources, O.G.V. and J.K.G. ; data curation, O.G.V. and J.K.G. ; writing--original draft preparation, O.G.V. and J.K.G. ; writing--review and editing, O.G.V. and J.K.G. ; visualization, O.G.V. and J.K.G. ; supervision, O.G.V. and J.K.G. ; project administration, O.G.V. ; funding acquisition, O.G.V. and J.K.G. All authors have read and agreed to the published version of the manuscript. This research was funded by the project KEGA, grant number 010 TUKE-4/2023: Application of educational robots in the process of teaching the study program industrial logistics. Not applicable. The original contributions presented in the study are included in the article, further inquiries can be directed to the corresponding author.