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Model for Real-Time Decision Intelligence Supporting Energy Efficiency and Environmental Sustainability
Subject area: Science,Engineering and Technology · Area of research: Machine Learning
Abstract
The escalating demand for energy, coupled with increasing environmental concerns, necessitates advanced frameworks for real-time decision intelligence to optimize energy consumption and promote sustainability. Traditional energy management systems often rely on static control strategies and delayed reporting, which limit responsiveness to dynamic operational conditions and hinder effective integration of renewable energy sources. This presents a conceptual model for real-time decision intelligence, designed to support energy efficiency and environmental sustainability by leveraging data from Internet of Things (IoT) sensor networks, advanced analytics, and machine learning algorithms.The proposed model integrates heterogeneous data streams from smart meters, occupancy sensors, weather stations, and renewable energy generators to provide a comprehensive view of energy usage patterns. Machine learning techniques, including predictive analytics, anomaly detection, and optimization algorithms, enable proactive decision-making, such as adjusting heating, ventilation, and air conditioning (HVAC) settings, optimizing lighting schedules, and managing distributed energy resources in real time. By continuously analyzing energy consumption trends and environmental factors, the system can recommend or autonomously execute energy-saving interventions while minimizing operational disruption.Key components of the model include a data aggregation and processing layer for cleansing, normalizing, and contextualizing raw sensor data, a predictive analytics engine for forecasting demand and identifying inefficiencies, and a decision support interface for real-time visualization, alerts, and automated controls. The framework emphasizes scalability, interoperability, and adaptability, allowing it to operate across commercial buildings, industrial facilities, and smart grid networks.Simulation studies and case scenarios demonstrate that the model can significantly reduce energy consumption, lower carbon emissions, and support compliance with environmental sustainability standards. By integrating real-time intelligence, machine learning, and IoT infrastructure, this approach enables organizations to achieve energy optimization proactively, enhance operational efficiency, and contribute to global sustainability goals. The proposed model represents a forward-looking paradigm for intelligent, responsive, and environmentally responsible energy management.
Keywords
Time Decision Intelligence, Energy Efficiency, Environmental Sustainability, Predictive Analytics, IoT Sensors, Smart Grids, Renewable Energy Integration, Adaptive Control Systems, Machine Learning
References
[1] Abass, O.S., Balogun, O. and Didi, P.U., 2021. A Policy-Research Integration Model for Expanding Broadband Equity through Data-Governed Sales Outreach. International Journal of Multidisciplinary Research and Growth Evaluation, 2(2), pp.524-537.
[2] Abdulkareem, A.O., Akande, J.O., Babalola, O., Samson, A. and Folorunso, S., 2023. Privacy-Preserving AI for Cybersecurity: Homomorphic Encryption in Threat Intelligence Sharing.
[3] ADESHINA, Y.T. and NDUKWE, M.O., 2024. Establishing A Blockchain-Enabled Multi-Industry Supply-Chain Analytics Exchange for Real-Time Resilience and Financial Insights. IRE Journals, 7(12), pp.599-610.
[4] Ajakaye O. G., Ajileye M.O., Fadipe O. O., Orekoya S. O. (2023) Balancing Workforce Mobility and Trade Secret Protection in Contemporary Labor Markets, International Journal of Advanced Multidisciplinary Research and Studies, 3(4):1286-1304
[5] Ajakaye O., & Lawal A. (2024) Combatting Human Trafficking Through International Legal Harmonization: A U.S.–Nigeria Comparative Perspective, International Journal of Scientific Research in Humanities and Social Sciences, 1(2), 463-493, https://www.ijsrhss.com/index.php/home/article/view/IJSRSSH242555
[6] Ajakaye O., & Lawal A. (2024), Reforming Intellectual Property Systems in Africa: Opportunities and Enforcement Challenges under Regional Trade Frameworks, International Journal of Multidisciplinary Research and Growth Evaluation, ISSN: 2582-7138; Volume 1; Issue 4; July - August 2020; https://doi.org/10.54660/.IJMRGE.2020.1.4.84-102
[7] AjakayeO.G., Ajileye M.O., Fadipe O. O., Orekoya S. O. (2023) Evolving Intellectual Property Doctrines in the Era of Emerging Technologies, International Journal of Advanced Multidisciplinary Research and Studies, 3(4):1305-1323, https://doi.org/10.62225/2583049X.2023.3.4.4884
[8] Akande, J.O., Raji, O.M.O., Babalola, O., Abdulkareem, A.O., Samson, A. and Folorunso, S., 2023. Explainable AI for Cybersecurity: Interpretable Intrusion Detection in Encrypted Traffic.
[9] Akinola, O.I., Olaniyi, O.O., Ogungbemi, O.S., Oladoyinbo, O.B. and Olisa, A.O., 2024. Resilience and recovery mechanisms for software-defined networking (SDN) and cloud networks. Available at SSRN 4908101.
[10] Amatare, S. A., & Ojo, A. K. (2020). Predicting customer churn in telecommunication industry using convolutional neural network model. IOSR Journal of Computer Engineering (IOSR-JCE), 22(3, Ser. I), 54–59. https://doi.org/10.9790/0661-2203015459
[11] Asonze, C.U., Ogungbemi, O.S., Ezeugwa, F.A., Olisa, A.O., Akinola, O.I. and Olaniyi, O.O., 2024. Evaluating the trade-offs between wireless security and performance in IoT networks: A case study of web applications in AI-driven home appliances. Available at SSRN 4927991.
[12] Babalola, O., Adedoyin, A., Ogundipe, F., Folorunso, A. and Nwatu, C.E., 2024. Policy framework for Cloud Computing: AI, governance, compliance and management. Glob J Eng Technol Adv, 21(02), pp.114-26.
[13] Babalola, O., Raji, O.M.O., Akande, J.O., Abdulkareem, A.O., Anyah, V., Samson, A. and Folorunso, S., 2024. AI-Powered Cybersecurity in Edge Computing: Lightweight Neural Models for Anomaly Detection.
[14] Baidoo, D., Frimpong, J.A. and Olumide, O., Modelling Land Suitability for Optimal Rice Cultivation in Ebonyi State, Nigeria: A Comparative Study of Empirical Bayesian Kriging and Inverse Distance Weighted Geostatistical Models.
[15] Balogun, O., Abass, O.S. and Didi, P.U., 2024. Designing micro-journey frameworks for consumer adoption in digitally regulated retail channels. Gyanshauryam, International Scientific Refereed Research Journal, 7(4), pp.166-181.
[16] Bamigbade, O., Adeshina, Y.T. and Kemisola, K., ETHICAL AND EXPLAINABLE AI IN DATA SCIENCE FOR TRANSPARENT DECISION-MAKING ACROSS CRITICAL BUSINESS OPERATIONS. 2024
[17] Bobie-Ansah, D., Olufemi, D. and Agyekum, E.K., 2024. Adopting infrastructure as code as a cloud security framework for fostering an environment of trust and openness to technological innovation among businesses: Comprehensive review. International Journal of Science & Engineering Development Research, 9(8), pp.168-183.
[18] Bukhari, T.T., Oladimeji, O., Etim, E.D. and Ajayi, J.O., 2024. Cloud-native business intelligence transformation: Migrating legacy systems to modern analytics stacks for scalable decision-making. International Journal of Scientific Research in Humanities and Social Sciences, 1(2), pp.744-762.
[19] Didi, P.U., Abass, O.S. and Balogun, O., 2019. A predictive analytics framework for optimizing preventive healthcare sales and engagement outcomes. IRE Journals, 2(11), pp.497-503.
[20] Eboseremen, B.O., Ogedengbe, A.O., Obuse, E., Oladimeji, O., Ajayi, J.O., Akindemowo, A.O., Erigha, E.D. and Ayodeji, D.C., 2022. Developing an AI-driven personalization pipeline for customer retention in investment platforms. Journal of Frontiers in Multidisciplinary Research, 3(1), pp.593-606.
[21] Ejibenam, A., Onibokun, T., Oladeji, K.D., Onayemi, H.A. and Halliday, N., 2021. The relevance of customer retention to organizational growth. J Front Multidiscip Res, 2(1), pp.113-20.
[22] Evans-Uzosike, I.O., Okatta, C.G., Otokiti, B.O., Ejike, O.G. and Kufile, O.T., 2024. Optimizing Talent Acquisition Pipelines Using Explainable AI: A Review of Autonomous Screening Algorithms and Predictive Hiring Metrics in HRTech Systems.
[23] Evans-Uzosike, I.O., Okatta, C.G., Otokiti, B.O., Ejike, O.G. and Kufile, O.T., 2024. Quantifying the Effectiveness of ESG-Aligned Messaging on Gen Z Purchase Intent Using Multivariate Conjoint Analysis in Ethical Brand Positioning.
[24] Evans-Uzosike, I.O., Okatta, C.G., Otokiti, B.O., Ejike, O.G. and Kufile, O.T., 2024. Modeling the Impact of Project Manager Emotional Intelligence on Conflict Resolution Efficiency Using Agent-Based Simulation in Agile Teams. International Journal of Scientific Research in Civil Engineering, 8(5), pp.154-167.
[25] Eyo, D.E., Adegbite, A.O., Salako, E.W., Yusuf, R.A., Osabuohien, F.O., Asuni, O. and Yusuf, T., ENHANCING DECARBONIZATION AND ACHIEVING ZERO EMISSIONS IN INDUSTRIES AND MANUFACTURING PLANTS: A PATHWAY TO A HEALTHIER CLIMATE AND IMPROVED WELL-BEING. 2024
[26] Faiz, F., Ninduwezuor-Ehiobu, N., Adanma, U.M. and Solomon, N.O., Data-Driven Strategies for Reducing Plastic Waste: A Comprehensive Analysis of Consumer Behavior and Waste Streams.
[27] Faiz, F., Ninduwezuor-Ehiobu, N., Adanma, U.M. and Solomon, N.O., 2024. AI-Powered waste management: Predictive modeling for sustainable landfill operations. Comprehensive Research and Reviews in Science and Technology, 2(1), pp.020-044.
[28] Faiz, F., Ninduwezuor-Ehiobu, N., Adanma, U.M. and Solomon, N.O., 2024. Blockchain for sustainable waste management: Enhancing transparency and accountability in waste disposal.
[29] Faiz, F., Ninduwezuor-Ehiobu, N., Adanma, U.M. and Solomon, N.O., Circular Economy and Data-Driven Decision Making: Enhancing Waste Recycling and Resource Recovery. 2024
[30] Falana, A.O., Osinuga, A., Dabira Ogunbiyi, A.I., Odezuligbo, I.E. and Oluwagbotemi, E., Hyperparameter tuning in machine learning: A comprehensive review. 2024
[31] Folorunso, A., CE, N.O.B., Adedoyin, A. and Ogundipe, F., 2024. Policy framework for cloud computing: AI, governance, compliance, and management. Glob J Eng Technol Adv.
[32] Forkuo, A.Y., Chianumba, E.C., Mustapha, A.Y., Osamika, D. and Komi, L.S., 2022. Advances in digital diagnostics and virtual care platforms for primary healthcare delivery in West Africa. Methodology, 96(71), p.48.
[33] Halliday, N., 2023. A Conceptual Framework for Financial Network Resilience Integrating Cybersecurity, Risk Management, and Digital Infrastructure Stability. International Journal of Advanced Multidisciplinary Research and Studies, 3, pp.1253-1263.
[34] Halliday, N., Advancing Organizational Resilience Through Enterprise GRC Integration Frameworks. 2024
[35] Joeaneke, P., Obioha Val, O., Olaniyi, O.O., Ogungbemi, O.S., Olisa, A.O. and Akinola, O.I., 2024. Protecting autonomous UAVs from GPS spoofing and jamming: A comparative analysis of detection and mitigation techniques. Oluwaseun Oladeji and Ogungbemi, Olumide Samuel and Olisa, Anthony Obulor and Akinola, Oluwaseun Ibrahim, Protecting Autonomous UAVs from GPS Spoofing and Jamming: A Comparative Analysis of Detection and Mitigation Techniques (October 03, 2024).
[36] Joeaneke, P.C., Kolade, T.M., Val, O.O., Olisa, A.O., Joseph, S.A. and Olaniyi, O.O., 2024. Enhancing security and traceability in aerospace supply chains through block chain technology. Journal of Engineering Research and Reports, 26(10), pp.114-135.
[37] KOMI, L.S., CHIANUMBA, E.C., YEBOAH, A., FORKUO, D.O. and MUSTAPHA, A.Y., 2021. A conceptual framework for telehealth integration in conflict zones and post-disaster public health responses. Iconic Res Eng J, 5(6), pp.342-59.
[38] KOMI, L.S., MUSTAPHA, A.Y., FORKUO, A.Y. and OSAMIKA, D., 2024. Lifestyle Intervention Models for Type 2 Diabetes: A Systematic Evidence-Based Conceptual Framework [online]
[39] Nwulu, E.O., Adikwu, F.E., Odujobi, O., ONYEKE, F.O., Ozobu, C.O. and Daraojimba, A.I., 2024. Financial Modeling for EHS Investments: Advancing the Cost-Benefit Analysis of Industrial Hygiene Programs in Preventing Occupational Diseases. Int. J. Multidiscip. Res. Growth Eval, 5(1), pp.1438-1450.
[40] Oboh, A., Uwaifo, F., Gabriel, O.J., Uwaifo, A.O., Ajayi, S.A.O. and Ukoba, J.U., 2024. Multi-Organ toxicity of organophosphate compounds: hepatotoxic, nephrotoxic, and cardiotoxic effects. International Medical Science Research Journal, 4(8), pp.797-805.
[41] Odeshina, A., Reis, O., Okpeke, F., Attipoe, V. and Orieno, O., 2024. Leveraging big data analytics for market forecasting and investment strategy in digital finance. International Journal of Social Science Exceptional Research, 3, pp.325-333.
[42] Odezuligbo, I.E., 2024. Applying FLINET Deep Learning Model to Fluorescence Lifetime Imaging Microscopy for Lifetime Parameter Prediction (Master's thesis, Creighton University).
[43] Ogundipe, F., Bakare, O.I., Sampson, E. and Folorunso, A., 2023. Harnessing Digital Transformation for Africa’s Growth: Opportunities and Challenges in the Technological Era.
[44] Ogundipe, F., Sampson, E., Bakare, O.I., Oketola, O. and Yusuf, R.A., 2022. Technology for a Sustainable Future: Unlocking the Power of Digital Transformation.
[45] Ogunyankinnu, T., Osunkanmibi, A.A., Onotole, E.F., Ukatu, C.E., Ajayi, O.A. and Adeoye, Y., 2024. AI-Powered Demand Forecasting for Enhancing JIT Inventory Models.
[46] Okon, S.U., Olateju, O., Ogungbemi, O.S., Joseph, S., Olisa, A.O. and Olaniyi, O.O., 2024. Incorporating privacy by design principles in the modification of AI systems in preventing breaches across multiple environments, including public cloud, private cloud, and on-prem. Including Public Cloud, Private Cloud, and On-prem (September 03, 2024).
[47] Olufemi, D., Anwansedo, S.B. and Kangethe, L.N., 2024. AI-Powered network slicing in cloud-telecom convergence: A case study for ultra-reliable low-latency communication. International Journal of Computer Applications Technology and Research, 13(1), pp.19-48.
[48] Olufemi, O.D., Ejiade, A.O., Ogunjimi, O. and Ikwuogu, F.O., 2024. AI-enhanced predictive maintenance systems for critical infrastructure: Cloud-native architectures approach. World Journal of Advanced Engineering Technology and Sciences, 13(02), pp.229-257.
[49] Oluoha, O.M., Odeshina, A., Reis, O., Okpeke, F., Attipoe, V. and Orieno, O.H., 2024. International Journal of Social Science Exceptional Research.
[50] OMONIYI, D.O., OGOCHUKWU, F.I., EUNICE, K., ADEDEJI, O.O., ADEOLA, A. and OLAOLUWA, O., 2024. Infrastructure-as-code for 5g ran, core and sbi deployment: a comprehensive review. INTERNATIONAL JOURNAL, 21(3), pp.144-167.
[51] Onibokun, T., Ejibenam, A., Ekeocha, P.C., Oladeji, K.D. and Halliday, N., 2023. The impact of Personalization on Customer Satisfaction. Journal of Frontiers in Multidisciplinary Research, 4(1), pp.333-341.
[52] Onibokun, T., Ejibenam, A., Ekeocha, P.C., Onayemi, H.A. and Halliday, N., 2022. The use of AI to improve CX in SAAS environment.
[53] Orieno, O.H., Oluoha, O.M., Odeshina, A., Reis, O. and Attipoe, V., 2024. A digital resilience model for enhancing operational stability in financial and compliance-driven sectors. International Journal of Scientific Research in Computer Science, Engineering and Information Technology, 3(1), pp.365-386.
[54] Orieno, O.H., Oluoha, O.M., Odeshina, A., Reis, O., Okpeke, F. and Attipoe, V., 2021. Project management innovations for strengthening cybersecurity compliance across complex enterprises. Open Access Research Journal of Multidisciplinary Studies, 2(1), pp.871-881.
[55] Osabuohien, F., Djanetey, G.E., Nwaojei, K. and Aduwa, S.I., 2023. Wastewater treatment and polymer degradation: Role of catalysts in advanced oxidation processes. World Journal of Advanced Engineering Technology and Sciences, 9, pp.443-455.
[56] Osabuohien, F.O., 2017. Review of the environmental impact of polymer degradation. Communication in Physical Sciences, 2(1).
[57] Osabuohien, F.O., 2022. Sustainable Management of Post-Consumer Pharmaceutical Waste: Assessing International Take-Back Programs and Advanced Disposal Technologies for Environmental Protection.
[58] Osabuohien, F.O., Omotara, B.S. and Watti, O.I., 2021. Mitigating antimicrobial resistance through pharmaceutical effluent control: Adopted chemical and biological methods and their global environmental chemistry implications. Environmental Chemistry and Health, 43(5), pp.1654-1672.
[59] Osamika, D., Forkuo, A.Y., Mustapha, A.Y., Chianumba, E.C. and Komi, L.S., 2024. Systematic review of global best practices in multinational public health program implementation and impact assessment. International Journal of Advanced Multidisciplinary Research and Studies, 4(6), pp.1989-2009.
[60] Oyeniyi, L.D., Ugochukwu, C.E. and Mhlongo, N.Z., 2024. Developing cybersecurity frameworks for financial institutions: A comprehensive review and best practices. Computer Science & IT Research Journal, 5(4), pp.903-925.
[61] Oyeniyi, L.D., Ugochukwu, C.E. and Mhlongo, N.Z., 2024. IoT applications in asset management: A review of accounting and tracking techniques. International Journal of Science and Research Archive, 11(2), pp.1510-1525.
[62] Oyeniyi, L.D., Ugochukwu, C.E. and Mhlongo, N.Z., 2024. Robotic process automation in routine accounting tasks: A review and efficiency analysis. World Journal of Advanced Research and Reviews, 22(1), pp.695-711.
[63] Oyeniyi, L.D., Ugochukwu, C.E. and Mhlongo, N.Z., 2024. Transforming financial planning with AI-driven analysis: A review and application insights. Finance & Accounting Research Journal, 6(4), pp.626-647.
[64] Oyeyemi, B.B., Orenuga, A. and Adelakun, B.O., 2024. Blockchain and AI Synergies in Enhancing Supply Chain Transparency.’
[65] Selesi-Aina, O., Obot, N.E., Olisa, A.O., Gbadebo, M.O., Olateju, O. and Olaniyi, O.O., 2024. The future of work: A human-centric approach to AI, robotics, and cloud computing. Journal of Engineering Research and Reports, 26(11), pp.10-9734.
[66] Uddoh, J., Ajiga, D., Okare, B.P. and Aduloju, T.D., 2021. Streaming analytics and predictive maintenance: Real-time applications in industrial manufacturing systems. Journal of Frontiers in Multidisciplinary Research, 2(1), pp.285-291.
[67] Udensi, C. G., Akomolafe, O. O., & Adeyemi, C. (2023). Statewide infection prevention training framework to improve compliance in long-term care facilities. International Journal of Scientific Research in Computer Science, Engineering and Information Technology, 9(6). ISSN: 2456-3307.
[68] Udensi, C. G., Akomolafe, O. O., & Adeyemi, C. (2024). Multicenter data standardization protocol for invasive candidemia surveillance in infectious disease research networks. International Journal of Scientific Research in Computer Science, Engineering and Information Technology. https://doi.org/10.32628/IJSRCSEIT.920
[69] Udensi, C. G., Akomolafe, O. O., & Adeyemi, C. (2024). Quality assessment and patient-reported outcomes integration framework for chronic disease survivorship research. International Journal of Scientific Research in Computer Science, Engineering and Information Technology. https://doi.org/10.32628/IJSRCSEIT.948
[70] Umoren, O., Didi, P.U., Balogun, O., Abass, O.S. and Akinrinoye, O.V., 2022. Synchronized content delivery framework for consistent cross-platform brand messaging in regulated and consumer-focused sectors. International Scientific Refereed Research Journal, 5(5), pp.345-354.
[71] Wegner, D.C., Damilola, O. and Omine, V., 2023. Sustainability and Low-Carbon Transitions in Offshore Energy Systems: A Review of Inspection and Monitoring Challenges.
[72] Wegner, D.C., Omine, V. and Vincent, A., 2021. A Risk-Based Reliability Model for Offshore Wind Turbine Foundations Using Underwater Inspection Data. risk (Avin et al., 2018; Keller and DeVecchio, 2019), 10, p.43.
How to cite this paper
@article{1715281,
author = {Bisola Akeju, Olumide Kumuyi, Esther Uzoka, David Excel Ozowara},
title = {Model for Real-Time Decision Intelligence Supporting Energy Efficiency and Environmental Sustainability},
journal = {Iconic Research And Engineering Journals},
year = {2024},
volume = {8},
number = {2},
pages = {1300-1316},
issn = {2456-8880},
url = {https://www.irejournals.com/formatedpaper/1715281.pdf},
abstract = {The escalating demand for energy, coupled with increasing environmental concerns, necessitates advanced frameworks for real-time decision intelligence to optimize energy consumption and promote sustainability. Traditional energy management systems often rely on static control strategies and delayed reporting, which limit responsiveness to dynamic operational conditions and hinder effective integration of renewable energy sources. This presents a conceptual model for real-time decision intelligence, designed to support energy efficiency and environmental sustainability by leveraging data from Internet of Things (IoT) sensor networks, advanced analytics, and machine learning algorithms.The proposed model integrates heterogeneous data streams from smart meters, occupancy sensors, weather stations, and renewable energy generators to provide a comprehensive view of energy usage patterns. Machine learning techniques, including predictive analytics, anomaly detection, and optimization algorithms, enable proactive decision-making, such as adjusting heating, ventilation, and air conditioning (HVAC) settings, optimizing lighting schedules, and managing distributed energy resources in real time. By continuously analyzing energy consumption trends and environmental factors, the system can recommend or autonomously execute energy-saving interventions while minimizing operational disruption.Key components of the model include a data aggregation and processing layer for cleansing, normalizing, and contextualizing raw sensor data, a predictive analytics engine for forecasting demand and identifying inefficiencies, and a decision support interface for real-time visualization, alerts, and automated controls. The framework emphasizes scalability, interoperability, and adaptability, allowing it to operate across commercial buildings, industrial facilities, and smart grid networks.Simulation studies and case scenarios demonstrate that the model can significantly reduce energy consumption, lower carbon emissions, and support compliance with environmental sustainability standards. By integrating real-time intelligence, machine learning, and IoT infrastructure, this approach enables organizations to achieve energy optimization proactively, enhance operational efficiency, and contribute to global sustainability goals. The proposed model represents a forward-looking paradigm for intelligent, responsive, and environmentally responsible energy management.},
keywords = {Time Decision Intelligence, Energy Efficiency, Environmental Sustainability, Predictive Analytics, IoT Sensors, Smart Grids, Renewable Energy Integration, Adaptive Control Systems, Machine Learning},
month = {August},
doi = {https://doi.org/10.64388/IREV8I2-1715281}
}