Advanced technological solutions and strategic economic and management planning will be fundamentally essential in effectively mitigating natural disasters. This thesis, therefore, comprises the strategic plan and implementation of a novel system of ML for flood segmentation and prediction, with the prime focus on the economics and management of innovation. Our architecture seamlessly marries cutting-edge ML techniques with principles of strategic planning so that this solution satisfies both technology and managerial gaps. Critical elements of the strategic plan are a detailed market analysis that estimates the potential economic viability of the ML system in terms of return on investment and the articulation of a framework of innovation management to guide the development and deployment processes. To undertake quick system sustainability and scalability, stakeholder engagement, resource allocation, risk management, and performance assessment are critical elements within the innovative management framework. Through this research, the implementation will feature a solid pipeline for data acquisition and preprocessing, model training and validation, and finally system deployment and monitoring. Concerning our economic analysis, we show several cost-benefit scenarios in that it pinpoints potential savings as regards to mitigating flood damage and also the economic impact on the affected communities. The thesis discusses funding strategies, partnerships, and the policy implications of its adoption. Preliminary results show considerable improvements in both flood prediction accuracies and segmentation precisions, thus underpinning the potential of the system for eventual real-world applications. This paper provides a strategic blueprint of how advanced technologies could be integrated in disaster management practices to enhance the management of innovation.

Advanced technological solutions and strategic economic and management planning will be fundamentally essential in effectively mitigating natural disasters. This thesis, therefore, comprises the strategic plan and implementation of a novel system of ML for flood segmentation and prediction, with the prime focus on the economics and management of innovation. Our architecture seamlessly marries cutting-edge ML techniques with principles of strategic planning so that this solution satisfies both technology and managerial gaps. Critical elements of the strategic plan are a detailed market analysis that estimates the potential economic viability of the ML system in terms of return on investment and the articulation of a framework of innovation management to guide the development and deployment processes. To undertake quick system sustainability and scalability, stakeholder engagement, resource allocation, risk management, and performance assessment are critical elements within the innovative management framework. Through this research, the implementation will feature a solid pipeline for data acquisition and preprocessing, model training and validation, and finally system deployment and monitoring. Concerning our economic analysis, we show several cost-benefit scenarios in that it pinpoints potential savings as regards to mitigating flood damage and also the economic impact on the affected communities. The thesis discusses funding strategies, partnerships, and the policy implications of its adoption. Preliminary results show considerable improvements in both flood prediction accuracies and segmentation precisions, thus underpinning the potential of the system for eventual real-world applications. This paper provides a strategic blueprint of how advanced technologies could be integrated in disaster management practices to enhance the management of innovation.

Strategic plan and implementation of an innovative machine learning system for flood segmentation and prediction

KALEL, DARYN
2023/2024

Abstract

Advanced technological solutions and strategic economic and management planning will be fundamentally essential in effectively mitigating natural disasters. This thesis, therefore, comprises the strategic plan and implementation of a novel system of ML for flood segmentation and prediction, with the prime focus on the economics and management of innovation. Our architecture seamlessly marries cutting-edge ML techniques with principles of strategic planning so that this solution satisfies both technology and managerial gaps. Critical elements of the strategic plan are a detailed market analysis that estimates the potential economic viability of the ML system in terms of return on investment and the articulation of a framework of innovation management to guide the development and deployment processes. To undertake quick system sustainability and scalability, stakeholder engagement, resource allocation, risk management, and performance assessment are critical elements within the innovative management framework. Through this research, the implementation will feature a solid pipeline for data acquisition and preprocessing, model training and validation, and finally system deployment and monitoring. Concerning our economic analysis, we show several cost-benefit scenarios in that it pinpoints potential savings as regards to mitigating flood damage and also the economic impact on the affected communities. The thesis discusses funding strategies, partnerships, and the policy implications of its adoption. Preliminary results show considerable improvements in both flood prediction accuracies and segmentation precisions, thus underpinning the potential of the system for eventual real-world applications. This paper provides a strategic blueprint of how advanced technologies could be integrated in disaster management practices to enhance the management of innovation.
2023
Strategic plan and implementation of an innovative machine learning system for flood segmentation and prediction
Advanced technological solutions and strategic economic and management planning will be fundamentally essential in effectively mitigating natural disasters. This thesis, therefore, comprises the strategic plan and implementation of a novel system of ML for flood segmentation and prediction, with the prime focus on the economics and management of innovation. Our architecture seamlessly marries cutting-edge ML techniques with principles of strategic planning so that this solution satisfies both technology and managerial gaps. Critical elements of the strategic plan are a detailed market analysis that estimates the potential economic viability of the ML system in terms of return on investment and the articulation of a framework of innovation management to guide the development and deployment processes. To undertake quick system sustainability and scalability, stakeholder engagement, resource allocation, risk management, and performance assessment are critical elements within the innovative management framework. Through this research, the implementation will feature a solid pipeline for data acquisition and preprocessing, model training and validation, and finally system deployment and monitoring. Concerning our economic analysis, we show several cost-benefit scenarios in that it pinpoints potential savings as regards to mitigating flood damage and also the economic impact on the affected communities. The thesis discusses funding strategies, partnerships, and the policy implications of its adoption. Preliminary results show considerable improvements in both flood prediction accuracies and segmentation precisions, thus underpinning the potential of the system for eventual real-world applications. This paper provides a strategic blueprint of how advanced technologies could be integrated in disaster management practices to enhance the management of innovation.
Innovation
Machine Learning
Flood segmentation
Management
Economics
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/20.500.12608/70908