Waste Disposal Plant Research Articles

From the state’s development promise to the uncertain lives of farmers in eastern Thailand

This research paper aims to examine the state's development promise in relation to the Eastern Economic Corridor development (EEC) project and its impact on people's livelihoods. The study utilized a qualitative approach and ethnographic research to collect data on the operation of the EEC project and its impact on people's livelihoods. The key informants, who were actively involved in the movement for farm safety, were 25 farmers from a farmers network in Kabinburi district, Prachinburi province, and Phanom Sarakham district, Chachoengsao province. The study found that the EEC project has been a crucial development undertaking in Thailand since 2017. The Thai state has promised that the EEC project will provide a better future for the people, stating that the operation of the project will focus on investing in infrastructure, providing investment privileges, eliminating investment barriers, and establishing a centralized authority. However, the local people's experiences with the EEC project demonstrate the formation of unequal power relations that have led to an uneven distribution of the project's benefits. Although local communities are hopeful that the EEC project will provide access to new markets, they still fear the uncertainty of their lives due to various state mechanisms established in the project, which prevent them from participating in the local decision-making process. Some local farmers have experienced an expansion of factories and waste disposal plants, causing fear of pollution on farms, and other non-agricultural land use activities in the EEC backyard, or peripheral areas of the EEC project.

Landfill reclamation using the example of the municipal waste disposal plant in Puławy – a case study

Landfilling remains a dominant method of waste disposal worldwide, largely due to inadequate waste management frameworks, despite efforts to promote recycling and reuse. As populations and consumption levels grow, waste generation continues to increase, highlighting the need for effective waste management solutions. Landfills are sites where waste undergoes various physical, chemical and biological transformations, making the implementation of safety measures, leachate collection and gas recovery systems critical. This article presents a case study of the reclamation of the Puławy municipal landfill, which has been in operation since 1998. The reclamation process involved extensive steps such as forming the landfill body, securing the slopes, constructing a degassing layer, implementing a sealing layer and applying a cover layer. These measures were crucial in mitigating the negative environmental impact of the landfill, reducing harmful emissions and improving local groundwater quality. The results of the Puławy municipal landfill reclamation include reductions in leachate and gas emissions, improvements in air/groundwater quality and the transformation of the site into a green space that provides recreational opportunities for the community. This reclamation project serves as a model of responsible waste management and community involvement, demonstrating how degraded landfills can be transformed into valuable public resources. The article also discusses the broader implications of landfill reclamation, noting both the positive and negative aspects. Benefits include environmental protection, resource recovery, enhanced biodiversity and improved quality of life for local communities. However, challenges such as the long-term monitoring and maintenance of reclaimed sites and the financial costs associated with reclamation efforts are also considered. This study also underscores the importance of landfill reclamation in the process of shaping and promoting environmental sustainability, as well as addressing modern waste management challenges.

. Medical waste management and disposal in emergency military service situations

The article aims to analyze and justify the need for improving the safety system for handling and recycling medical waste in order to optimize the medical waste management in emergency situations of military service. The legal acts of the Russian Federation and the regulatory acts of the Ministry of Defense of the Russian Federation providing for the service safety requirements for military personnel, including the medical waste management system and their disposal, were analyzed. The concept of medical waste and its role in the structure of production and consumption waste was explored. The features of medical waste management in military emergencies were identified. The requirements for medical waste disposal plants, including productivity, compactness, reliability, safety for the personnel and the environment and mobility, were specified. A high-temperature installation for the medical waste disposal was developed, its technical characteristics and examples of positive testing in medical institutions were identified. The analysis and the results obtained are an obligatory condition for improving the medical waste management system in emergency military situations.

Research on transportation management model of COVID-19 medical waste: a case study in Beijing, China.

During the COVID-19 pandemic, disposable masks, protective clothing, gloves, and nasopharyngeal swabs collected by nucleic acid testing formed a large amount of medical waste. Medical waste has strict temporary storage time requirements in hospitals, which need to be transported to medical waste disposal plants within the specified time. However, as most of disposal plants are far away from downtown, they also need to be responsible for the transportation and disposal of medical waste in many hospitals, and put forward higher requirement for transportation routes. Rapid and safe disposal of all types of medical waste generated by COVID-19 is crucial to the prevention and control of the epidemic. This paper designs the transportation route optimization model using Anylogic simulation software based on the regional distribution of 118 tertiary hospitals and 2 large medical waste disposal plants in Beijing, China. At the same time, transportation routes of 118 tertiary hospitals in the morning peak, evening peak, all-day, and ordinary periods were simulated based on the Beijing traffic index in 2017. On this basis, through the analysis of the simulation data, the selection of medical waste transport routes for 118 tertiary hospitals in the morning peak, evening peak, all day, and ordinary periods is further clarified, so as to ensure that medical waste can be transported to the medical waste disposal plant in the shortest time. The shortest path and fastest speed transport mode, medical waste transport data set, and the selection of transport mode of 118 tertiary hospitals formed by this research provide certain reference experience for the rapid and safe transport of medical waste during the epidemic period, and also provides corresponding data support for medical waste transportation management in the post-epidemic era and medical waste transportation decision-making when facing major public health problems.

Assessing potential soil pollution from plant waste disposal: A modeling analysis of pesticide contamination

Pesticide residues can be taken up by plants after pesticide application, potentially resulting in soil pollution following the disposal of plant wastes at harvest. Currently, there is a lack of simple and efficient methods that can conduct high-throughput simulations to explore this problem across various chemicals and plant species. We present a modeling approach to simulating pesticide residue concentrations in soil as a result of plant waste disposal to assess the impact of plant wastes on agricultural soil pollution with respect to pesticide residues. This modeling approach employs well-established plant uptake models, providing versatility in evaluating different chemicals and plant species. The simulation process was tabulated in the spreadsheet interface, providing users with the flexibility to adjust input values for specific chemicals, plant species, and regions. The simulation results revealed that pesticides with relatively low lipophilicity (i.e., log KOW < 2) had low simulated residue concentrations in the soil as a result of plant waste disposal at harvest, whereas soil concentrations for lipophilic pesticides dramatically rose. This indicated that disposal of plant waste in agricultural soils will not pose significant ecological concerns to pesticides with low lipophilicity. The variability analysis showed that for certain pesticides, environmental factors (such as temperature and humidity) had a significant impact on the simulated residue concentrations in the soil as a result of plant waste disposal, which aided in the assessment of regional ecological risk as well as plant disposal management. Although some modeling aspects such as plant decomposition process, advanced plant uptake models, heterological distribution of residue concentrations in the soil, and plant waste stacking patterns require further research, the proposed approach can be used to assist in managing soil pesticides from plant waste disposal in preliminary stages.

Повышение эффективности пиролизной переработки твердых коммунальных отходов

The disposal of waste by direct combustion method is prohibited in the Russian Federation due to the negative impact on the environment. An alternative option is solid waste pyrolysis technology, which allows not only to significantly reduce the amount of waste that requires disposal, but also to obtain various types of energy carriers. Existing installations allow recycling waste with humidity up to 30–35 %. An increase of humidity over 40 % requires additional energy sources for the drying process. To increase the efficiency of waste recycling by pyrolysis, it is necessary to improve the technology and to design an energy-efficient waste disposal plant. The use of the heat of combustion products in the heat exchanger to heat the air going into the drying chamber will increase the range of processing of wet waste. To determine the efficiency of the furnace for thermal waste disposal, the method of material and thermal balance is used. It allows determining the efficiency of the installation and selecting its operating mode with its maximum value. The paper proposes a new design of a waste disposal furnace with separate drying and pyrolysis chambers, as well as a mathematical model based on the equations of thermal and material balance. The design feature of the installation allows you to organize the controlled drying of wet waste and reduce losses with combustion products by using a heat exchanger for air heating. The proposed installation allows the waste recycling process to be carried out at a relative humidity of 0 to 60 % without additional energy sources. The efficiency of the waste varies from 61,5 to 80 % when the plant is operating on dry waste and from 42 to 62 % when operating on wet waste.

The Impact of Municipal Waste on Seasonal and Spatial Changes in Selected Macro- and Micro-Nutrient Contents on the Background of Soil Biological Activity—A Case Study

Landfilling is the least desirable of waste management methods, but despite tightening legal regulations it remains among the most common. Assessing the impact of landfills on the soil environment is even more important when there are arable lands in their vicinity. Therefore, the study examined soils on and directly adjacent to a landfill. Soil samples were collected from eight points (S1–S8) on the landfill premises, and from one more (S9) and a control (C), both of which were outside the premises. The parameters analyzed were pH in KCl and the contents of: organic carbon (OC), total nitrogen (TN), available phosphorus (AP), potassium (K), magnesium (Mg), total iron (TFe), total manganese (TMn), available iron (AFe) and available manganese (AMn). The activities of alkaline (AlP) and acid (AcP) phosphatase and phosphorus microorganisms (PSM) were tested. The results of biological parameters were used to calculate the resistance index (RS). The soils were alkaline (pH in KCl 7.09–7.65 at S1–S8). Using the RS index values for AlP and AcP the resistance of the soils was: AlP &gt; AcP. The negative values of RS for PSM in most cases indicate a heavy human impact on this parameter. The tested points were found to have been significantly affected by changes in the content of bioavailable P, K and Mg. The total content of tested trace elements in the analyzed soil material did not exceed the geochemical background value. The soil in a sector that had been closed off for two years (S2) showed the highest biological activity. The physicochemical and biological parameters used in the research show the scale of processes going on in the soil environment and the degree (or lack) of its negative exposure to the influence of municipal waste stored at the Municipal Waste Disposal Plant.

Eco-compensation quantification of sustainable food waste management alternatives based on economic and environmental life cycle cost-benefit assessment

Eco-compensation can promote sustainable food waste management alternatives. However, a comprehensive quantification method is not yet available. This study proposed a method to quantify the eco-compensation for food waste management through environmental and economic life cycle cost-benefit analysis. This method was tested with four food waste management alternatives in Suzhou, China, including Biological Drying + Aerobic Composting (BDAC), Anaerobic Fermentation (AF), Anaerobic Fermentation + Digestate Composting (AFDC), and INcineration (IN). According to the method, the environmental benefits (net positive externalities) and the economic loss (net negative internalities) could provide references to the government and the food waste producers (polluters), respectively, as eco-compensations for food waste disposal plants. The results suggest that AFDC (with higher energy and material recovery level) was the most environmentally and economically viable food waste management alternative. The AFDC exhibited the highest net environmental benefits (CNY t−1) of 844, followed by BDAC (596), IN (449), and AF (356). The net economic profit (CNY t−1) without subsidy of AFDC (55) was the highest, followed by IN (−5), AF (−27), and BDAC (−422). The total values of eco-compensations by the government and the polluters were 564, 101, 0, and 57 CNY t−1 for BDAC, AF, AFDC, and IN, respectively. The proposed methods for food waste disposal management can promote the effective and efficient use of government funds for the sustainable development of the food waste management sector.

Hazardous waste management system for Thailand’s local administrative organization via route and location selection

ABSTRACT This study proposed a decision support system (DSS) for optimizing transportation routing and disposal hub location for Thailand’s local administrative organizations’ hazardous waste management. The first step is to choose the origin and destination, as well as to collect data for each route. Each route’s decision criteria were based on traffic quality and risk measures from the perspective of users. An analytic hierarchy process (AHP) was used to compute effective weights for decision criteria. To achieve optimal routing, AHP weights were combined with a zero-one goal programming technique. The DSS operates systematically and successfully, taking into account both transportation risk and socioeconomic factors, and provides appropriate routes. Overall, this waste management system may provide useful information to decision-makers for prioritizing disposal site alternatives and implementing feasible waste management actions. The zero-one location design was then used to determine the best hub location. Based on two scenarios of six and fifteen CoG hubs, the results revealed that the best model for managing a case company’s hazardous waste was to establish 15 hubs scattered throughout the country for collecting points and then transporting them to the waste disposal plant in Phitsanulok province. Locating the hub near sink points would reduce transportation costs and backhaul issues, reducing the environmental impact of GHG emissions and increasing system efficiency. Implications: The problem of waste pollution has become increasingly serious all over the world, particularly in developing countries that face significant pollution control challenges. End-of-life wastes cause economic, health, and environmental problems if they are not properly managed. As the world’s population and living standards rise, so does the amount of waste produced. The environmental impact is significant, with massive amounts of waste generated each year with only basic or minimal treatment to mitigate its impact. As a result, there is an urgent need for a method that can precisely optimize transportation routing and disposal hub location for Thailand’s local administrative organizations’ hazardous waste management (LAOs). The proposed decision support system (DSS) may provide useful information to decision-makers in prioritizing disposal site alternatives and implementing feasible waste management actions.

REPAIR OF GARBAGE CARTS AS PART OF UPSTREAM SIDE WASTE MANAGEMENT IN THE PERMATA MILLAN JAKARTA ENVIRONMENT

Garbage is a very complicated problem and will occur continuously throughout the world, inseparable in Indonesia in general and especially in the capital city . In terms of waste management in Jakarta so far, it is still not good, considering that the waste management handled by the local government can only be seen from the Temporary Waste Disposal Plant to the Final Waste Disposal Plant. This can be seen from the condition of the garbage carts which are very unfit for the size of a Metropolitan City, Jakarta is an icon and barometer of all cities in Indonesia, but the condition of the garbage transport equipment does not reflect a big city that is identical with everything that is clean and tidy. One part of waste management management is a garbage cart, the management of a garbage cart does not reflect that a garbage cart is for the capital city. Garbage carts are rickety, smelly, dirty, dirty, the transported garbage falls scattered, the garbage collectors are also dirty and smelly without being equipped with makeshift tools and makeshift clothes

Two-Stage Robust Optimal Scheduling of “Nearly-Zero-Carbon Park” Considering the Synergy of Waste Disposal and Carbon Capture Gas-Fired Power Plants

Aiming at the demand characteristics of “Nearly-zero Carbon Parks" (NZCP) powered by all renewable energy for low-carbon emissions and waste reduction, a NZCP topology and a two-stage robust optimal scheduling model based on the Carbon Capture Gas-fired Power Plant (CCGPP)-Power to Gas(P2G)-Waste Disposal (WD) collaborative model are proposed in this paper. First, the relationship between WD, CCGPP and energy supply and demand that can be generated from renewable energy is studied, and according to the system energy regulation requirements, the energy flexibility of residential loads, small industrial loads and electric vehicles are considered, and the NZCP mathematical model based on the CCGPP-P2G-WD collaborative model is established. Secondly, NZCP energy supply and demand characteristics are studied, and an energy coordination model for NZCP energy conversion and storage powered by 100% renewable energy is established. Then, wind power, photovoltaic power, and combined demand response uncertainties are considered, and the NZCP two-stage robust hybrid optimal dispatch model is established based on second-order cone relaxation and dual theory. Finally, the simulation analysis is carried out based on the operation data of the integrated energy system of a park in a certain area in northern my country. The simulation results show that the proposed two-stage robust optimal scheduling model of NZCP coordinated with WD and CCGPP can effectively improve the economy of the system at a higher energy balance level, improve the absorption capacity of renewable energy, and provide better multi-time scale energy regulation characteristics for NZCP with a larger energy supply scale.

Examination of a Hazardous Waste Disposal Plant in the Context of Occupational Health and Safety

It is required to determine the factors that are dangerous in terms of occupational health and safety in hazardous waste disposal facilities, which is an area where multidisciplinary work is required. It is also needed to find solutions for preventing risks that may cause. In this study; probability, severity and frequency criteria were used as decision criteria and the importance weights of these criteria were determined with fuzzy analytical hierarchy process. Then, 46 risks identified for the five main processes such as entry of waste to the plant, waste analysis, intermediate storage of hazardous waste, disposal of hazardous waste, and auxiliary facilities; were evaluated by fuzzy TOPSIS method according to decision criteria and prioritized according to their level. It is found that the highest priority risks for all sub-process are “fire and explosion”.

Strategies used to treat waste material for energy production on sustainable basis

In the developing world, traditional forms of energy are rapidly eradicated, and contribute freely to global concerns such as waste exposure and dangerous deviations in an environment. So, it is required to develop and used renewable or humorous energy resources for future. Every month, a huge amount of waste is generated and becomes the part of landfill or sent to less developed areas, and sometimes left untreated. It has significant environmental consequences for biological systems, and human well-being. Due to this, numerous new waste disposal plants have emerged and developed to generate energy from garbage dumps. Large amount of trash created each day for landfills causes numerous critical ecological effects. Various new approaches are accessible for changing waste materials into energy sources, going from exceptionally straightforward frameworks of discarding waste to more perplexing advancements fit. Waste can be converted into energy by using three possible strategies such as thermochemical, biochemical, and chemical changes. This article explores the impact of waste on environment, and how waste can be used to generate energy.

DEVELOPMENT OF THE DESIGN OF A PYROLYSIS INSTALLATION FOR WASTE DISPOSAL WITH DIRECTED DISTRIBUTION OF HEAT FLOWS

Waste recycling is now gaining in importance around the world. The range of drugs used, the volume and degree of danger of waste generated by the activities of industrial institutions is increasing. As a result, the risk of epidemics increases. Therefore, the creation of an effective design of the furnace as the main unit of the pyrolysis unit is an urgent task. The purpose of the furnace environment is to create in the working chamber the necessary and optimal physical and chemical conditions for the implementation of thermotechnological, thermotechnical and mechanical processes and protection of raw materials and obtained target products from unwanted chemical processes. The following substances are used as heat extraction reagent: air, inert and recirculating gases, water, steam, etc. If necessary, a slow decrease in temperature, cooling of materials and products is carried out together with the oven. Heat transfer processes in the waste disposal plant take place in difficult conditions and are characterized by a number of specific features. One of the main features is the high intensity of heat transfer. Another feature of thermal processes is the non-stationary temperature field in the working chamber of the furnace. Heat exchange in the working chamber of the furnace is carried out in three types - thermal conductivity, convection and thermal radiation, any combination of them or all types simultaneously, but one type of heat transfer always prevails over others in full or in a certain area of the furnace.

Waste landfill plant and waste disposal plant efficiencies in China

As resident awareness of environmental issues has grown, waste disposal has become an important part of urban environmental governance. Most previous research from developed countries that has sought to evaluate the technical, energy and environmental efficiencies of urban waste disposal have employed DEA. However, as there has been little research into China’s waste disposal efficiencies, this study used a dynamic DDF (directional distance function) DEA (Data Envelopment Analysis) to analyze the total waste disposal efficiencies in 23 provinces in China from 2012 to 2016, from which it was found that nine had excellent efficiencies of 1, but significant efficiency improvements were needed in 14 others.

Life-cycle assessment of two food waste disposal processes based on anaerobic digestion in China

In the Chinese food waste disposal industry, the choice between using liquid-phase anaerobic digestion or solid–liquid mixed anaerobic digestion to effectively dispose of food waste has become a recent source of debate. However, no previous studies have compared or assessed the relevant technological parameters of these two processes for the same feedstock. In this study, the two processes were evaluated from the perspective of energy consumption and environmental impact. Here, hydrothermal pretreatment, anaerobic digestion, combined heat and power, and waste treatment were considered in the system boundaries. First, a biochemical methane potential test was conducted to obtain the liquid-phase and solid–liquid mixed anaerobic digestion methanogenic potential. Then, using the actual operating parameters of the food waste disposal plant, a life-cycle assessment was performed for the two treatment processes. For solid–liquid mixed and liquid-phase anaerobic digestion processes, the total energy inputs are 182.81 kWh/t and 192.67 kWh/t, respectively, and the net energy inputs accounts for 26.2% and 30.7% of the total energy input, respectively. Compared with solid–liquid mixed anaerobic digestion, liquid-phase anaerobic digestion demonstrates a higher potential for global warming (77.91 vs. 29.24 kg CO2-eq./t), eutrophication (0.4 vs. 0.19 kg PO43--eq./t), acidification (2.61 vs. 1.22 kg SO2-eq./t), and photochemical ozone creation (0.077 vs. 0.03 kg NMVOC-eq./t). According to the sensitivity analysis, the increased efficiency in total-solids degradation of anaerobic digestion and the total-solids content of the biogas residue were found to have a significant effect on the reduction of eutrophication potential, acidification potential, and photochemical ozone creation potential in solid–liquid mixed anaerobic digestion. For liquid-phase anaerobic digestion, the total-solids content of the separated solid phase is an important factor affecting its environmental impact. These results provide important reference values for the development of food waste treatment processes.

Plasma Technologies as the Basis for the Development of Russian Waste Processing

The article considers the current topic - justification of the possibility of organizing a system for recycling solid domestic and other waste based on plasma technologies and the subsequent use of secondary raw materials based on them. The current state of production sector of collection and disposal of solid domestic and other waste abroad and in Russia was analyzed. There are proposed a scheme of organization of solid domestic and other waste disposal system based on plasma technologies, operable at the under construction enterprise for processing of these wastes. The economic feasibility of this enterprise is justified. It was concluded that although the use of plasma technologies is most beneficial in the energy sector, when introducing plasma plants and creating solid waste disposal plants using these plants, taking into account the financial benefits in obtaining the raw materials and energy generated by them is not the main task, but an additional economic effect. The main thing is to reduce the negative impact of solid municipal waste on the environment and people.

Modern biotechnology in optimizing plant waste utilization

The study aimed to develop a modern, cheap, and environmentally safe technology for the disposal of plant waste, with the participation of the most active microorganisms-destructors.The microorganisms’ ability to help transform plant waste into viable, fertile soil was extensively studied. We selected strains of micromycetes Penicillium roseopurpureum, Trichoderma hamatum, T. koningii, Alternaria alternata, and bacteria of the genus Cytophaga, which are characterized by high growth rate and the absence of phytotoxicity. To accelerate microorganism development, we used silicon-containing mineral analcime, which contained immobilized spores of micromycetes and bacterial cells’ suspensions. Modified analcime was added to the waste in a ratio of 10 : 1. The plant remains prepared in this method were analyzed under conditions of both model and vegetation experiments.An evidence for the expediency of using the silicon-containing mineral analcime as a starting substrate for immobilization of spores and suspension of bacterial cells in the culture fluid was provided. The microorganisms involved in the experiment showed a positive result in transforming plant waste during the 30-day observation period. The highest destructive activity against apple and grape waste is characteristic for the T. hamatum strain, for beet waste – P. roseopurpureum. The species-specificity of these destructive microorganisms on plant growth processes was proved. The maximum growth of corn sprouts in apple waste was detected by inoculation with T. koningii spores, grape waste – T. hamatum, and beet waste – a mixture of micromycetes with a Cytophaga sp. suspension. The optimal duration of plant waste transformation using analcime, inoculated with microorganisms, is 20–30 days. In the indoor farming conditions, the standard for utilizing the modified vegetable waste placement was 10 % of the total volume of a substrate during the preparation of soil mixes.The environmental safety of plant waste after their destruction was confirmed. The presence of a silicon-containing mineral in the mixture leads to increased growth and plant development, optimization of the agrophysical, agrochemical, and biological parameters of the soil, reducing soil fatigue, and increasing fertility.

ROLE OF BIOTECHNOLOGY AND METHOD OF THERMAL DISPOSAL OF WASTE IN ENVIRONMENTAL PROTECTION

Addressing environmental security and sustainable development depends on the policy of the government, and from the technological development of society. Ideally, this is the development of technologies that are able to work on the conditions of waste-free production. Unfortunately, such technologies do not actually exist, and getting a useful product is associated with the simultaneous formation of waste both production and consumption (MSW-solid household waste), which involves the entire population of the country. The problem of waste disposal can be solved by creating waste processing plants equipped with special thermal waste disposal plants and effective multi-stage flue gas cleaning systems. In recent years, there has been increasing interest in the method of waste heat treatment in rotating furnaces, where it is possible to jointly neutralize liquid, solid and pasty waste. A similar unit with capacity of 250–300 kg/h to 5 t/h household waste developed by OOO «Fire technology» in cooperation with the Institutes of theoretical and applied mechanics, Thermophysics and operated in the Republic of Korea, China and RP Kochenevo Novosibirsk region.

The Three-Segment Control and Measurement of Reliable Monitoring of the Deformation of the Rock Mass Surface and Engineering Structures on the Międzyodrze Islands in Szczecin, NW Poland

The research area is located in north-western Poland. It is the city of Szczecin with a particular emphasis on the Międzyodrze islands. The area of the EcoGenerator Waste Disposal Plant is part of the research area. The analysis of the geological structure of the subsurface layer of Earth’s crust within Szczecin, was carried out with particular emphasis on the EcoGenerator Waste Disposal Plant. The analysis of height changes of the benchmarks, was based on archival materials measured in two campaigns. A detailed recognition of the geological structure in connection with the analysis of changes in the height of the benchmarks was important. This enabled stable benchmarks to be located in several areas of Szczecin. They formed the basis for reliable monitoring of surface deformations of organic and existing sediments within the EkoGenerator Plant. The application of an appropriate three segment control and measurement system. In the area around the EcoGenerator Plant, vertical movements of the area were observed using the InSAR Small Baseline Subset Method. An InSAR analysis is only used here for very broad identification of the moving area. The radar data came from Sentinel 1 A and 1 B satellites. A total of 129 images from 15.11.2014 to 28.07.2019 were used.The results of the analyses conducted, form the basis for discussion and act as a summary of the considerations in this paper.