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A Structured Process for the Waste Disposal and Maximizing the Recycling of the Waste Using MI   The waste segregator has been successfully implemented for segregation of waste into biodegradable and non- biodegradable waste at a domestic level. However, the noise can be eliminated from the sensor modules to increase the accuracy and efficiency of the system. This system has its own limitations. It can segregate only one type of waste at a time since having different types of wastes at once can create problems in effectively segregating. Thus, improvements can be made to segregate mixed type of waste by the use of buffer spaces. the iterative data-driven methodology for achieving the highest performance where first the existing solution to the problem was assessed, second this solution was optimised using the collected dataset, next, machine learning algorithms were applied to the problem, and finally, the feature engineering was used to find if additional features would improve the results. (Random Forest) allowed significantly improving the performance reaching the accuracy of 99:1 % and the recall of 98:2 %.

Figure 10 A Structured Process for the Waste Disposal and Maximizing the Recycling of the Waste Using MI The waste segregator has been successfully implemented for segregation of waste into biodegradable and non- biodegradable waste at a domestic level. However, the noise can be eliminated from the sensor modules to increase the accuracy and efficiency of the system. This system has its own limitations. It can segregate only one type of waste at a time since having different types of wastes at once can create problems in effectively segregating. Thus, improvements can be made to segregate mixed type of waste by the use of buffer spaces. the iterative data-driven methodology for achieving the highest performance where first the existing solution to the problem was assessed, second this solution was optimised using the collected dataset, next, machine learning algorithms were applied to the problem, and finally, the feature engineering was used to find if additional features would improve the results. (Random Forest) allowed significantly improving the performance reaching the accuracy of 99:1 % and the recall of 98:2 %.