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AI for Good Innovate for Impact



               TV broadcasting system, IoT, etc.); upon the provision of additional weather and particular
               transmission requirements.


               2�3     Future Work                                                                                 Change  4.2-Climate

               •    Data Collection: The project utilises live weather events, therefore continuous
                    collaboration with relevant meteorological agencies is necessary for continued capturing
                    of high-quality weather events. The collaboration ensures that the model is continuously
                    train using up-to-date and consistence data. Partnership with regulatory bodies can be
                    established to strengthen the model’s generality.
               •    Model’s Development: In the project, an NNR-based ML model analyses the impact
                    of weather events on PLC-based system regarding data rate in Malaysia and Nigeria.
                    The model’s performance can further be evaluated with other traditional ML models
                    (such as Polynomial Regression, Support Vector Regression, Random Forest Regression,
                    Gradient Boosting Regression, k-NN Regression, Gaussian Process Regression, etc.).
                    The ML training and hyperparameters can be maximised and optimised respectively to
                    improve accuracy and efficiency.
               •    Use Case Difference: The NNR-based ML model is developed to analyse impact of
                    extreme weather events on PLC system. The PLC is a wireline-based technology that
                    support power and data transmission using similar power cabling infrastructure. By
                    providing additional weather and specific transmission requirements, the model’s
                    capabilities can be extended to analyse other regions and communication technologies.

               3      Use Case Requirements

               •    REQ-01: The Use Case domain is to analyse impact of climate change-inducing extreme
                    weather on data transmission of PLC-supported power lines in Malaysia and Nigeria.
                    Other communication technologies and regions are not captured.
               •    REQ-02: It is critical for power industries to deploy or maintain PLC systems based on the
                    ITU-T G.9960 recommended architecture and performance. Most regional PLC-based
                    power systems use different parameters. It is also important maintain partnership with
                    stakeholders (power industries, weather monitoring agencies, and regulatory bodies) for
                    effective prediction of current and future data performances.
               •    REQ-03: It is critical to continue sourcing for up-to-date weather data, as climate change
                    is continuously disrupting weather patterns. Datasets and scripts utilised in the project
                    are publicly available at https:// github .com/ adams714040/ ITU -Project .git .[1]
               •    REQ-04: It is critical to explore other ML-based regression models that are suitable in
                    analysing weather patterns and impact such as polynomial regression, support vector
                    regression, random forest, Gradient Boosting, k-NN, gaussian process, etc.) for accuracy,
                    efficiency, and reliability.
               •    REQ-05: It is critical to align prediction carried out in this project with other relevant
                    standards like IEEE 1901 (2010).

               4      Sequence Diagram


               The figure below shows development process of the NNR-based ML model. Dataset is collected
               and validated. It is then preprocess, and process onto ML for training. The ML processing is
               computed using 2-layer structure; where the first layer takes the input (dataset), and the second
               layerenables the NNR to learns and trains the data for prediction (output).










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