Design and Development of Efficient Energy Systems. Группа авторов
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scavenging were reported across the country in 2017 alone, according to a reply given by the Ministry of Social Justice and Empowerment to the Lok Sabha in December last year.
Compared with other existing methods, the proposed work is suitable for real-time applications as shown in Figure 3.6 and Figure 3.7 for complete experimental design. The proposed system observes the data second by second and immediately gives the alert when the condition is abnormal. Additionally, this framework gives an answer for the progressively changing sewer condition. This occurs since the stream of sewage water differs greatly over time also, relies upon various components, similar to water siphon condition, gas maintenance and harm to office. This framework takes account of these elements as minute-by-minute examination is open from remote areas, on account of the web checking. This empowers exact comprehension of CH4, CO and other sewer gases and their emanation from sewers and helps in measuring and powerfully changing city arranging, a component that was absent in past recommendations.
Figure 3.6 Experimental design.
Figure 3.7 Experimental design.
3.5 Conclusion
Many cities across the world are facing drainage system problems. Implementing this proposed system can put an end to manual scavenging and the deaths of many manual scavengers. Such a system can enhance cleanliness and reduce the number of people who get sick from sewage exposure.
The proposed system is used to detect gas leakage and cracks with the help of IOT sensors such as Arduino Uno sensor, Raspberry Pi3. Sewer gas is detected with the help of a gas sensor. An alert is given to the control room when the normal threshold level is exceeded. The proposed Tristate pattern can be used to train the sensor datas and find the risk level of the gas. A vibration sensor attached to Raspberry Pi3 can be used to detect crack and take immediate remedies.
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