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Sewage Pollution and the Remote Detecting Gadget for Checking of Sewage Levels
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Environmental & Analytical Toxicology

ISSN: 2161-0525

Open Access

Review - (2023) Volume 13, Issue 3

Sewage Pollution and the Remote Detecting Gadget for Checking of Sewage Levels

Louis Charlie*
*Correspondence: Louis Charlie, Department of Environmental Engineering, Kwandong University, Gangwon-do, South Korea, Email:
Department of Environmental Engineering, Kwandong University, Gangwon-do, South Korea

Received: 01-May-2023, Manuscript No. Jeat-23-98809; Editor assigned: 03-May-2023, Pre QC No. P-98809; Reviewed: 17-May-2023, QC No. Q-98809; Revised: 22-May-2023, Manuscript No. R-98809; Published: 29-May-2023 , DOI: 10.37421/2161-0525.2023.13.711
Citation: Charlie, Louis. “Sewage Pollution and the Remote Detecting Gadget for Checking of Sewage Levels.” J Environ Anal Toxicol 13 (2023): 711.
Copyright: © 2023 Charlie L. This is an open-access article distributed under the terms of the creative commons attribution license which permits unrestricted use, distribution and reproduction in any medium, provided the original author and source are credited.

Abstract

An imaginative remote detecting gadget for the location and checking of sewage levels in underground on location septic tank is created. The flood of underground on location sewage septic tanks situated around structures for the assortment and removal of wastewater is dangerous to the climate delivering irresistible poisons and upsetting impurities. Overflow of sewage into the environment goes unnoticed by facility users due to the underground septic tank's inability to accurately measure the level of sewage. The facility's users now have access to a sophisticated onsite sewage septic tank level monitoring device that enables them to prepare for an evacuation ahead of time in order to avoid an overflow. A Global System for Mobile Communications (GSM) module is used to send short message service (SMS) messages to the mobile phone numbers of the enrolled users and the sewage evacuation agents. The device uses an ultrasonic sensor to detect and monitor the level of the wastewater in the septic tank. A trial directed showed reaction time inside 30. The created gadget is reasonable for low pay nations of Africa.

Keywords

Sewage levels • Ultrasonic sensor • Mobile communications

Introduction

This paper centers on making an answer for the on location sewage framework which is the most prominently utilized in emerging nations, to address the reasons for spilling over of underground septic tanks prompting tainting of shallow water wells. The hospitals and medical clinics, where toxic wastewater from patients with cholera and other viral infections may be discharged into the environment through the overflowing septic tank, demonstrate the severity of the risk posed by the overflowing of the onsite sewage septic tanks. Consumers of the contaminated, untreated table water from shallow wells may experience an epidemic of infectious diseases as a result of this wastewater. These are things like water, human urine, solid waste, faeces and filthy water from homes that goes through sewers. Faecal sludge, which specifically refers to a mixture of human excrement, water and solid wastes like toilet paper or other anal cleansing materials conveyed in sewers, is also included in sewage. The effluents, solids, or sludge, that settle to the bottom of the onsite septic tank and the grease and other scum that float to the top are the three components of the sewage that are separated inside the tank.

Literature Review

During facility overflow, domestic sewage containing heavy metals from body lotions, skin cream and poisonous substances can be released into the environment. Therefore, it is absolutely necessary to monitor the sewage level in the septic tank in order to ensure prompt evacuation when it is about to become full and prevent it from overflowing and faeces carried in sewers are referred to as "sewage." The onsite septic tank is constructed in a way that prevents it from overflowing when it is working properly and is emptied on a regular basis, usually every three years or less, depending on its capacity and the amount of sewage that is expected to flow through it. Backflow from the sewerage system, a damaged septic tank, or flood water levels above the outflow pipe all have the potential to cause the septic tank to overflow. A prototype smart sewage system is being developed that uses remote sensing to accurately measure the level of sewage in the septic tank and prompts users to evacuate the facility immediately to prevent overflow. The created innovation is designated at moderating the contamination from spilling over on location sewage tanks and making a productive cycle that will empower viable treatment of the wastewater through brief clearing plan [1].

According to previous reports, on-site septic tank systems, sometimes combined with soak-away pits, are typically used in the majority of buildings in low-income countries of Africa due to their affordability and ease of construction. Sludge is removed to a central location, where it is treated, recycled and waste is discharged in an environmentally safe manner from underground septic tanks on a regular basis. Schools, hospitals, public offices and other structures designed to house a large number of people, which utilize underground sewage septic tanks require regular departure to try not to spill over into the climate. Because the sewage septic tanks are underground, it is difficult to promptly identify when they malfunction and when the collected sewage will fill them. Likewise the pathways to the specialists answerable for the departure aren’t generally quickly accessible. As a result, sewage septic tanks frequently become clogged and overflow, resulting in property contamination and the spread of contagious diseases. The circumstance is exceptionally normal in Nigeria, Ghana, Kenya and different nations in Africa where on location sewage septic tanks are pervasively utilized [2].

The quantities of tenants in structures in such areas surpasses the typical limit and are portrayed by thick stuffed populace which makes them powerless against the unfriendly impacts of spilling over septic tanks. Allowing untreated sewer to overflow into the environment poses a risk. Sewer overflow has a negative effect on groundwater, available surface waters, irrigated vegetables, drinking water and resort and recreational beaches. Environmental reservoirs of the majority of microbial pathogens include sewage from hospitals and health clinics and sanitary wastewater from buildings. Worst of all, the impact of sewer overflow on public health is dominated by sewage wastewater, which accounts for up to 31% of environmental health issues. Different reasons for spilling over sewer incorporate sewer spillage, flawed or busted sewer pipe joints and breaking down sewer network activities. The ultrasonic sensor architecture was used to determine the septic tank's sewage level. The HC-SR04 ultrasonic sensor works on 5V and can recognize distance up to 13 feet making it reasonable for the created gadget. It is the best technology for detecting the level of sewage in an on-site sewage septic tank because it can function with a high penetrating power and can detect external or deep objects. As used in the underground onsite septic tank, acoustic waves are able to penetrate coloured or transparent objects. However, foamy materials, which deflect the acoustic waves at the interface, have an effect on them. There are four pins on the HC-SR04 ultrasonic sensor: ground, trigger, echo and voltage common collector (VCC). It has an Arduino interface and produces eight ultrasonic waves in a pattern of eight pulses when it is in use. During activity the ultrasonic sensor sends sonic signs which reflects back piece of the transmitted waves upon influence with a surface and is gotten by the beneficiary. The distance is then determined remembering that the produced ultrasonic wave signal goes through two times the shrouded distance in making the forward and backward development from transmitter to sewage level and sewage level to recipient [3].

Discussion

The ultrasonic sensor's rated speed is approximately 330 m/s, the distance is calculated using the time elapsed between the transmitted and received signals. Since the signal reflects back to the origin, the actual distance is determined by dividing the given distance by two. When the device was mounted in the septic tank's access inspection hole, care was taken to ensure that it would never come into contact with the sewage. The ultrasonic sensor's diaphragm is pointing inside the septic tank, allowing the generated acoustic waves to travel vertically inside and strike the sewage water's surface before being reflected. The ultrasonic sensor's housing typically has high enclosure ratings to withstand fog and wet conditions. However, broken seals could cause damage to the ultrasonic sensor if water got in. To forestall the spillage of the seal, a Fluorocarbon sealant is applied which likewise safeguards the gadget from erosion. The ultrasonic sensor has a lifespan of 15 to 20 years [4].

The spilling over of on location sewage tanks is one of the significant wellsprings of defilement of the climate in most African nations. Approximately 80% of buildings in remote Nigeria utilize onsite sewage tanks. Residents rely on water from shallow wells, which are easily contaminated by seepages from overflowing sewage tanks because the water supplies provided by the central national water boards are grossly inadequate. As a result, overflowing sewage tanks make it easy for diseases like cholera to spread, resulting in an epidemic of infectious diseases. The problem of overflowing sewage septic tanks in Africa is solved by the newly developed smart remote sensing septic tank. The user and the sewage evacuation agent can determine the septic tank level that will set off the alarm. The sewage evacuation agent is able to plan well and perform their job with great effectiveness and efficiency when the device level settings are user-defined, ensuring that the septic tank does not overflow [5,6].

Despite the fact that there were no bombed SMS messages conveyances during the trial of the model gadget, there are chances that there might be bombed conveyances by and by. However, because the message is sent to multiple phone numbers, any recipient can respond accordingly. The enrolled mobile phone numbers can be obtained from a variety of telephone operators in order to ensure that, in the event of a network failure, SMS messages will be delivered by other mobile networks upon device activation.

Conclusion

The developed smart remote sensing sewage septic tank system will eliminate the release of seepages of sewage from overflowing onsite sewage septic tanks, preventing the spread of contaminants and infectious diseases. Agents and researchers who require the records will also have access to reliable data generated from the evacuation period and sewage septic tank levels. The newly developed smart sewage septic tank plays a crucial role in hospital facilities, particularly those that treat infectious diseases. Brilliant urban communities situated beneath ocean levels exceptionally near the waterways are additional powerless to defilements from spilling over on location septic tanks and accordingly are the focal point of the created gadget. A step toward reducing pollution is the developed technology and its application in the evacuation of the on-site sewage tank.

Acknowledgement

None.

Conflict of Interest

None.

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