PROJECTS AND COMMITMENTS
Industrial Wastewater Treatment Plants, Project, Construction and Manufacturing
Industrial Wastewater Treatment Plants (EAT) are complex systems established for the treatment of contaminated water from industrial sources such as factories, production facilities or industrial zones, which must be made in accordance with legal standards before being discharged to nature or the receiving environment. This process consists of three main stagesndustrial Wastewater Treatment Plants (EAT) are complex systems established for the treatment of contaminated water from industrial sources such as factories, production facilities or industrial zones, which must dustrial Wastewater Treatment Plants (EAT) are complex systems established for the treatment of contaminated water from industrial sources such as factories, production facilities or industrial zones, which must be made in accordance with legal standards before being discharged to nature or the receiving environment. This process consists of three main stages:
1. Project Design (Design)
Analysis and Characterization: The first step is to determine the amount, flow rate and chemical/physical properties of the wastewater (pH, COD, BOI, suspended solids, heavy metals, etc.) is to determine.
Process Selection: The most suitable treatment technologies (physical, chemical, biological or advanced treatment) are selected according to the wastewater characteristics and a process flow diagram is created.Process Selection: The most suitable treatment technologies (physical, chemical, biological or advanced treatment) are selected according to the wastewater characteristics and a process flow diagram is created.
Engineering Design: Of the units suitrocess Selection: The most suitable treatment technologies (physical, chemical, biological or advanced treatment) are selected according to the wastewater characteristics and a process flow diagram is created.
Engineering Design: Of the units suitable for the selected processes (balancing ponds, reactors, settling tanks, filters, etc.) detailed mechanical, electrical and construction drawings are prepared. All capacity and equipment calculations are made.
2. Construction
Infrastructure and Excavation: Ground survey is carried out in the area where the facility will be established and foundation excavations, reinforced concrete structures (pools, tanks, building foundations) are constructed.
Installation: Of completed mechanical equipment (pumps, mixers, pipelines, valves, etc.) are placed on the field and connected to each other.Installation: Of completed mechanical equipment (pumps, mixers, pipelines, valves, etc.) are placed on the field and connected to each other.
Electricity andmation: PowerInstallation: Of completed mechanical equipment (pumps, mixers, pipelines, valves, etc.) are placed on the field and connected to each other.
Electricity and Automation: Power lines are drawn to the facility, an automation (PLC/SCADA) system and control panels are installed to control all equipment.
3. Manufacturing
Equipment Production: Special mechanical and electro-mechanical equipment required for the plant (grids, filters, package treatment units, chemical dosing systems, piping elements, etc.) are produced in workshops in accordance with technical specifications.
Quality Control: Welding, surface protection (paint, coating) and functionality tests are performed during the production phase to ensure that the equipment is resistant to field conditions and process requirements.
1. Project Design (Design)
Analysis and Characterization: The first step is to determine the amount, flow rate and chemical/physical properties of the wastewater (pH, COD, BOI, suspended solids, heavy metals, etc.) is to determine.
Process Selection: The most suitable treatment technologies (physical, chemical, biological or advanced treatment) are selected according to the wastewater characteristics and a process flow diagram is created.Process Selection: The most suitable treatment technologies (physical, chemical, biological or advanced treatment) are selected according to the wastewater characteristics and a process flow diagram is created.
Engineering Design: Of the units suitrocess Selection: The most suitable treatment technologies (physical, chemical, biological or advanced treatment) are selected according to the wastewater characteristics and a process flow diagram is created.
Engineering Design: Of the units suitable for the selected processes (balancing ponds, reactors, settling tanks, filters, etc.) detailed mechanical, electrical and construction drawings are prepared. All capacity and equipment calculations are made.
2. Construction
Infrastructure and Excavation: Ground survey is carried out in the area where the facility will be established and foundation excavations, reinforced concrete structures (pools, tanks, building foundations) are constructed.
Installation: Of completed mechanical equipment (pumps, mixers, pipelines, valves, etc.) are placed on the field and connected to each other.Installation: Of completed mechanical equipment (pumps, mixers, pipelines, valves, etc.) are placed on the field and connected to each other.
Electricity andmation: PowerInstallation: Of completed mechanical equipment (pumps, mixers, pipelines, valves, etc.) are placed on the field and connected to each other.
Electricity and Automation: Power lines are drawn to the facility, an automation (PLC/SCADA) system and control panels are installed to control all equipment.
3. Manufacturing
Equipment Production: Special mechanical and electro-mechanical equipment required for the plant (grids, filters, package treatment units, chemical dosing systems, piping elements, etc.) are produced in workshops in accordance with technical specifications.
Quality Control: Welding, surface protection (paint, coating) and functionality tests are performed during the production phase to ensure that the equipment is resistant to field conditions and process requirements.
Domestic Wastewater Treatment Plants
Domestic Wastewater Treatment Plants (EAT), from residential areas (houses, schools, commercial areas, etc.) are complex systems designed to bring incoming used water into compliance with legal standards before it is discharged into the environment or reused.omestic Wastewater Treatment Plants (EAT), from residential areas (houses, schools, commercial areas, etc.) are complex systems designed to bring inDomestic Wastewater Treatment Plants (EAT), from residential areas (houses, schools, commercial areas, etc.) are complex systems designed to bring incoming used water into compliance with legal standards before it is discharged into the environment or reused. The main purpose of these facilities is to reduce water pollution and protect public health.
An EAT process usually consists of the following stages:
Preliminary Treatment: The first stage in which large solids (screens) and sand/oils (sand traps) are separated from the water.
Primary Treatment: It is the physical treatment stage in which suspended solids are removed by gravity settling.Primary Treatment: It is the physical treatment stage in which suspended solids are removed by gravity settling.
Secondary (Biological) Treatment: This is the stage at which the organic Primary Treatment: It is the physical treatment stage in which suspended solids are removed by gravity settling.
Secondary (Biological) Treatment: This is the stage at which the organic pollutants (COD, BOI) in the wastewater are broken down by microorganisms (for example, Activated Sludge systems).
Tertiary Purification and Disinfection: This is the stage when nutrients such as nitrogen, phosphorus are removed when necessary and finally pathogens (disease-causing microorganisms) are neutralized with chlorine or UV.
In the project design and construction of these facilities, experienced and competent companies in the sector such as Denge Arıtma make significant contributions to environmental sustainability by applying the most appropriate treatment technologies to the wastewater characteristics and discharge standards.
An EAT process usually consists of the following stages:
Preliminary Treatment: The first stage in which large solids (screens) and sand/oils (sand traps) are separated from the water.
Primary Treatment: It is the physical treatment stage in which suspended solids are removed by gravity settling.Primary Treatment: It is the physical treatment stage in which suspended solids are removed by gravity settling.
Secondary (Biological) Treatment: This is the stage at which the organic Primary Treatment: It is the physical treatment stage in which suspended solids are removed by gravity settling.
Secondary (Biological) Treatment: This is the stage at which the organic pollutants (COD, BOI) in the wastewater are broken down by microorganisms (for example, Activated Sludge systems).
Tertiary Purification and Disinfection: This is the stage when nutrients such as nitrogen, phosphorus are removed when necessary and finally pathogens (disease-causing microorganisms) are neutralized with chlorine or UV.
In the project design and construction of these facilities, experienced and competent companies in the sector such as Denge Arıtma make significant contributions to environmental sustainability by applying the most appropriate treatment technologies to the wastewater characteristics and discharge standards.
Process and Boiler Water Treatment Systems
Process and Boiler Water Treatment Systems are special systems designed to improve the quality of water used in the production processes of industrial plants or steam boilers. The main purpose of these systems is to increase production efficiency and reduce operating costs by protecting the equipment from corrosion, calcification and contamination.rocess and Boiler Water Treatment Systems are special systems designed to improve the quality of water used in the production processes of industrial plants or steam boilers. The main purpose of these systems is to increase production efficiency and reduce operating costs rocess and Boiler Water Treatment Systems are special systems designed to improve the quality of water used in the production processes of industrial plants or steam boilers. The main purpose of these systems is to increase production efficiency and reduce operating costs by protecting the equipment from corrosion, calcification and contamination.
1. Boiler Water Treatment
Purpose: To prevent the formation of scale by removing the mineral content of the water in steam boilers (hardness minerals such as calcium, magnesium), thereby maintaining the heat transfer efficiency of the boiler and extending its service life.
Technologies:
Softening (Ion Exchange): It is the most common method in which the ions that make the water hard (Ca²⁺, Mg²⁺) are replaced with sodium ions.Softening (Ion Exchange): It is the most common method in which the ions that make the water hard (Ca²⁺, Mg²⁺) are replaceSoftening (Ion Exchange): It is the most common method in which the ions that make the water hard (Ca²⁺, Mg²⁺Objective: To bring the water used in production processes that directly affect the product quality in sectors such as food, textile, electronics to the desired purity level. For example, sterile water is used in the food industry, ultra-pure water is used in the electronics industry.
Technologiesbjective: To bring the water used in production processes that directly affect the product quality in sectors such as food, textile, electronics to thObjective: To bring the water used in production processes that directly affect the product quality in sectors such as food, textile, electronics to the desired purity level. For example, sterile water is used in the food industry, ultra-pure water is used in the electronics industry.
Technologies:
Filtration: Filtration of particulate and suspended solids (sand, sediment, etc.) separation from water (activated carbon, sand or cartridge filters).
Ion Exchange: The process of completely removing ions from water in order to increase the purity of the water.
Ultraviolet (UV) Disinfection: Destroying the genetic structure of microorganisms (bacteria, viruses) in water and rendering them ineffective. (UV) Disinfection: Destroying the genetic structure of microorganisms (bacteria, viruses) in water and rendering them ineffective.
Experienced companies such as Denge Arıtma provide turnk
1. Boiler Water Treatment
Purpose: To prevent the formation of scale by removing the mineral content of the water in steam boilers (hardness minerals such as calcium, magnesium), thereby maintaining the heat transfer efficiency of the boiler and extending its service life.
Technologies:
Softening (Ion Exchange): It is the most common method in which the ions that make the water hard (Ca²⁺, Mg²⁺) are replaced with sodium ions.Softening (Ion Exchange): It is the most common method in which the ions that make the water hard (Ca²⁺, Mg²⁺) are replaceSoftening (Ion Exchange): It is the most common method in which the ions that make the water hard (Ca²⁺, Mg²⁺Objective: To bring the water used in production processes that directly affect the product quality in sectors such as food, textile, electronics to the desired purity level. For example, sterile water is used in the food industry, ultra-pure water is used in the electronics industry.
Technologiesbjective: To bring the water used in production processes that directly affect the product quality in sectors such as food, textile, electronics to thObjective: To bring the water used in production processes that directly affect the product quality in sectors such as food, textile, electronics to the desired purity level. For example, sterile water is used in the food industry, ultra-pure water is used in the electronics industry.
Technologies:
Filtration: Filtration of particulate and suspended solids (sand, sediment, etc.) separation from water (activated carbon, sand or cartridge filters).
Ion Exchange: The process of completely removing ions from water in order to increase the purity of the water.
Ultraviolet (UV) Disinfection: Destroying the genetic structure of microorganisms (bacteria, viruses) in water and rendering them ineffective. (UV) Disinfection: Destroying the genetic structure of microorganisms (bacteria, viruses) in water and rendering them ineffective.
Experienced companies such as Denge Arıtma provide turnk
Drinking Water Purification Systems
Drinking Water Treatment Systems are used to treat raw water taken from natural water sources (groundwater, lakes, rivers) in accordance with T.Drinking Water Treatment Systems are used to treat raw water taken from natural water sources (groundwater, lakes, rivers) in accordance with T.C. They are facilities designed to make water safe, colorless, odorless and delicious, in accordance with the standards of the MiniDrinking Water Treatment Systems are used to treat raw water taken from natural water sources (groundwater, lakes, rivers) in accordance with T.C. They are facilities designed to make water safe, colorless, odorless and delicious, in accordance with the standards of the Ministry of Health and the World Health Organization (WHO). The main purpose of these systems is to protect public health and make water ready for use.
Purification Stages
A typical Drinking Water Treatment Plant (ISAT) process varies depending on the quality of the raw water, but usually includes the following basic steps:
Ventilation (Decomposition): Removal of gases (such as hydrogen sulfide) that cause bad odor and taste in raw water and contacting with oxygen for oxidation of minerals such as iron/manganese.Ventilation (Decomposition): Removal of gases (such as hydrogen sulfide) that cause bad odor and taste in raw water and contacting with oxygen for oxidation of minerals such as iron/manganese.
Chemical Treatment (CoagVentilation (Decomposition): Removal of gases (such as hydrogen sulfide) that cause bad odor and taste in raw water and contacting with oxygen for oxidation of minerals such as iron/manganese.
Chemical Treatment (Coagulation and Flocculation): Adding chemical substances (coagulants) to water so that very small suspended solids in the water (that cause turbidity) come together and form large, settlable flocs.
Precipitation: Separation of these large balls (flocs) formed from the water by lowering them to the bottom of the tank with weight.
Filtration (Filtration): Removal of very fine particles and microorganisms that cannot be precipitated from water by passing them through filter materials such as sand, anthracite or activated carbon.
Disinfection: It is the last step of the purification process.iltration (Filtration): Removal of very fine particles and microorganisms that cannot be precipitated from water by passing them through filter materials such as sand, anthracite or activated carbon.
Disinfection: It is the last step of the purification process. It is the neutralization of all harmful pathogens (bacteria, viruses) that may remain in the water by chlorination, ultraviolet (UV) or ozonation methods and ensuring that the water remains safe throughout the distribution network.
In this vital area, specialized organizations such as Denge Jul Treatment support the sustainable meeting of the clean and reliable water needs of cities by implementing high-capacity drinking water projects on an urban and industrial scale.
Purification Stages
A typical Drinking Water Treatment Plant (ISAT) process varies depending on the quality of the raw water, but usually includes the following basic steps:
Ventilation (Decomposition): Removal of gases (such as hydrogen sulfide) that cause bad odor and taste in raw water and contacting with oxygen for oxidation of minerals such as iron/manganese.Ventilation (Decomposition): Removal of gases (such as hydrogen sulfide) that cause bad odor and taste in raw water and contacting with oxygen for oxidation of minerals such as iron/manganese.
Chemical Treatment (CoagVentilation (Decomposition): Removal of gases (such as hydrogen sulfide) that cause bad odor and taste in raw water and contacting with oxygen for oxidation of minerals such as iron/manganese.
Chemical Treatment (Coagulation and Flocculation): Adding chemical substances (coagulants) to water so that very small suspended solids in the water (that cause turbidity) come together and form large, settlable flocs.
Precipitation: Separation of these large balls (flocs) formed from the water by lowering them to the bottom of the tank with weight.
Filtration (Filtration): Removal of very fine particles and microorganisms that cannot be precipitated from water by passing them through filter materials such as sand, anthracite or activated carbon.
Disinfection: It is the last step of the purification process.iltration (Filtration): Removal of very fine particles and microorganisms that cannot be precipitated from water by passing them through filter materials such as sand, anthracite or activated carbon.
Disinfection: It is the last step of the purification process. It is the neutralization of all harmful pathogens (bacteria, viruses) that may remain in the water by chlorination, ultraviolet (UV) or ozonation methods and ensuring that the water remains safe throughout the distribution network.
In this vital area, specialized organizations such as Denge Jul Treatment support the sustainable meeting of the clean and reliable water needs of cities by implementing high-capacity drinking water projects on an urban and industrial scale.
Swimming Pool Filtration Systems Applications
Swimming Pool Filtration Systems are the most basic equipment used to ensure that the pool water remains clear, hygienic and healthy. These systems contain physical pollutants that accumulate in the water (hair, bristles, leaves, dust, cosmetic residues, etc.) maintains water quality by cleaning regularly.wimming Pool Systems are the most basic equipment used to ensure that the pool water remains clear, hygienic and healthy. These systems contain physical pollutants that accumulate in the water (haSwimming Filtration Systems are the most basic equipment used to ensure that the pool water remains clear, hygienic and healthy. These systems contain physical pollutants that accumulate in the water (hair, bristles, leaves, dust, cosmetic residues, etc.) maintains water quality by cleaning regularly. An effective filtration is also critical for the efficient operation of the disinfection process.
Basic Application Steps
The filtration process of swimming pool water typically involves the following steps:
Suction: Pool water is drawn into the filter system via the skimmer (surface suction) or bottom drain.
Filtration: The water is passed through the special filter material (usually sand, glass or cartridge filter) in the filter tank. This material physically holds all the particulate and suspended solids in the water and cleans the water.Filtration: The water is passed through the special filter material (usually sand, glass or cartridge filter) in the filter tank. This material physically holds all the particulate and suspended solids in the water and cleans the water.
Recirculation (Circulation): After passing through the filtration system, the cleaned water is sent to a heater (if necessary) and finally to the disinfection system (usually chlorine dosage).
Pressure Control: The pressure indicators in the system indicate the pollution level of the filter. When the pressure rises, the filter material is contaminated and needs to be cleaned by the "backwash" process.Pressure Control: The pressure indicators in the system indicate the pollution level of the filter. When the pressure rises, the filter material is contaminated and needs to be cleaned by the "backwash" process.
In this field, companies with experience in the sector such as D
Basic Application Steps
The filtration process of swimming pool water typically involves the following steps:
Suction: Pool water is drawn into the filter system via the skimmer (surface suction) or bottom drain.
Filtration: The water is passed through the special filter material (usually sand, glass or cartridge filter) in the filter tank. This material physically holds all the particulate and suspended solids in the water and cleans the water.Filtration: The water is passed through the special filter material (usually sand, glass or cartridge filter) in the filter tank. This material physically holds all the particulate and suspended solids in the water and cleans the water.
Recirculation (Circulation): After passing through the filtration system, the cleaned water is sent to a heater (if necessary) and finally to the disinfection system (usually chlorine dosage).
Pressure Control: The pressure indicators in the system indicate the pollution level of the filter. When the pressure rises, the filter material is contaminated and needs to be cleaned by the "backwash" process.Pressure Control: The pressure indicators in the system indicate the pollution level of the filter. When the pressure rises, the filter material is contaminated and needs to be cleaned by the "backwash" process.
In this field, companies with experience in the sector such as D
Preparing EIA Reports and Environmental Audit Reports
The Environmental Impact Assessment (EIA) Report is the report of a planned project (factory, mine, power plant, etc.) is an official document in which its positive and negative effects on the environment are determined, measures to be taken to prevent or minimize these effects are determined, and monitoring studies are indicated.he Environmental Impact Assessment (EIA) Report is the report of a planned project (factory, mine, power plant, etc.) is an official document in which its positive and negative effects on the environment are determined, measures to be taken to prevent or minimize these effects are determined, and monitoring studies are indicated. These reports are a legal obligation for the implementation of a project and must be approved by the Ministry of Environment, Urbanization and Climate Change.
The Process of Preparing an EIA Report
Scoping: The scope of the report is determined in accordance with the size of the project and its potential environmental impacts.
Data Collection: The current environmental characteristics of the project site (soil, water, air quality, biodiversity, etc.) and comprehensive data are collected on the technical characteristics of the project.Data Collection: The current environmental characteristics of the project site (soil, water, air quality, biodiversity, etc.) and comprehensive data are collected on the technical characterData Collection: The current environmental characteristics of the project site (soil, water, air quality, biodiversity, etc.) and comprehensive data are collected on the technical characteristics of the project.
Impact Assessment: The possible effects of the project on the environment (air pollution, water pollution, noise, waste management) are analyzed during the construction and operation phase.
Preventive and Corrective Measures: Concrete measures (treatment systems, emission control equipment) are determined to reduce or completely eliminate the negative effects identified.
Public Participation: The public is informed about the project and their opinions are taken, and these opinions are included in the report.
Environmental AuditPublic Participation: The public is informed about the project and their opinions are taken, and these opinions are included in the report.
Environmental Audit Reports
Environmental Audit Reports, on the other hand, are based on the existing environmental legislation of a busublic Participation: The public is informed about the project and their opinions are taken, and these opinions are included in the report.
Environmental Audit Reports
Environmental Audit Reports, on the other hand, are based on the existing environmental legislation of a business that has started operations and the permits it has previously obtained (EIA, emission permit, etc.) are periodic reports that show how much compliance is achieved. These audits are carried out in order to continuously monitor the environmental performance of enterprises and detect legal non-compliance.
Companies providing environmental engineering and consulting services in this field, such as Denge Purification, provide consultancy with their expert team in the preparation of EIA and Environmental Audit Reports in accordance with legal legislation for projects, ensuring that enterprises manage both legal processes correctly and fulfill their environmental responsibilities.
The Process of Preparing an EIA Report
Scoping: The scope of the report is determined in accordance with the size of the project and its potential environmental impacts.
Data Collection: The current environmental characteristics of the project site (soil, water, air quality, biodiversity, etc.) and comprehensive data are collected on the technical characteristics of the project.Data Collection: The current environmental characteristics of the project site (soil, water, air quality, biodiversity, etc.) and comprehensive data are collected on the technical characterData Collection: The current environmental characteristics of the project site (soil, water, air quality, biodiversity, etc.) and comprehensive data are collected on the technical characteristics of the project.
Impact Assessment: The possible effects of the project on the environment (air pollution, water pollution, noise, waste management) are analyzed during the construction and operation phase.
Preventive and Corrective Measures: Concrete measures (treatment systems, emission control equipment) are determined to reduce or completely eliminate the negative effects identified.
Public Participation: The public is informed about the project and their opinions are taken, and these opinions are included in the report.
Environmental AuditPublic Participation: The public is informed about the project and their opinions are taken, and these opinions are included in the report.
Environmental Audit Reports
Environmental Audit Reports, on the other hand, are based on the existing environmental legislation of a busublic Participation: The public is informed about the project and their opinions are taken, and these opinions are included in the report.
Environmental Audit Reports
Environmental Audit Reports, on the other hand, are based on the existing environmental legislation of a business that has started operations and the permits it has previously obtained (EIA, emission permit, etc.) are periodic reports that show how much compliance is achieved. These audits are carried out in order to continuously monitor the environmental performance of enterprises and detect legal non-compliance.
Companies providing environmental engineering and consulting services in this field, such as Denge Purification, provide consultancy with their expert team in the preparation of EIA and Environmental Audit Reports in accordance with legal legislation for projects, ensuring that enterprises manage both legal processes correctly and fulfill their environmental responsibilities.
Preparing an Emission Permit Report
The Emission Permit Report indicates that an industrial facility (factory, power generation facility, etc. Tue ) of air pollutants released into the atmosphere during production activities (particulate matter, sulfur dioxide, nitrogen oxides, volatile organic compounds, etc.e Emission Permit Report indicates that an industrial facility (factory, power generation facility, etc. Tue ) of air pollutants released into the atmosphere during production activities (particulate matter, sulfur dioxide, nitrogen oxides, volatile organic compounds, etc.) is a mandatory official document detailing its amounts, legal limits and the technologies it applies to avoid exceeding these limits. This permit is issued by the Ministry of Environment, Urbanization and Climate Change in order for the facility to continue its activities.
The Process and Purpose of Preparing the Report
Determination of Emission Sources: All air polluting sources in the facility (chimneys, ventilation systems, storage tanks, etc.) are detectedDetermination of Emission Sources: All air polluting sources in the facility (chimneys, ventilation systems, storage tanks, etc.) are detected.
Measurement and Calculations: Concentrations and flow rates of pollutantDetermination of Emission Sources: All air polluting sources in the facility (chimneys, ventilation systems, storage tanks, etc.) are detected.
Measurement and Calculations: Concentrations and flow rates of pollutants released from the facility to the atmosphere are measured through accredited laboratories or calculated using internationally accepted methods.
Legal Compliance Analysis: It is evaluated whether the measured values are in compliance with the legal limit values specified in the current Industrial Air Pollution Control Regulation (IAPCR).
Emission Control Measures: Measures used or planned to ensure legal limits (filters, electrostatic precipitators, washing systems, etc.) are detailed in the report.Emission Control Measures: Measures used or planned to ensure legal limits (filters, electrostatic precipitators, washing systems, etc.) are detailed in the report.
Dispersion Modeling: For large facilities, air quality dispersion modeling studies are conducted to predict the effects of emissions on the surrounding air quality.
The aim is to keep the facility's air pollution impact on the environment within legal limits and to officially document this situation.
In this critical legal process, companies providing environmental consulting and engineering services such as Balance Treatment coordinate complex measurement processes of facilities, carry out distribution modeling studies and support enterprises to complete permitting processes smoothly by preparing Emission Permit Reports to meet all legal requirements.
The Process and Purpose of Preparing the Report
Determination of Emission Sources: All air polluting sources in the facility (chimneys, ventilation systems, storage tanks, etc.) are detectedDetermination of Emission Sources: All air polluting sources in the facility (chimneys, ventilation systems, storage tanks, etc.) are detected.
Measurement and Calculations: Concentrations and flow rates of pollutantDetermination of Emission Sources: All air polluting sources in the facility (chimneys, ventilation systems, storage tanks, etc.) are detected.
Measurement and Calculations: Concentrations and flow rates of pollutants released from the facility to the atmosphere are measured through accredited laboratories or calculated using internationally accepted methods.
Legal Compliance Analysis: It is evaluated whether the measured values are in compliance with the legal limit values specified in the current Industrial Air Pollution Control Regulation (IAPCR).
Emission Control Measures: Measures used or planned to ensure legal limits (filters, electrostatic precipitators, washing systems, etc.) are detailed in the report.Emission Control Measures: Measures used or planned to ensure legal limits (filters, electrostatic precipitators, washing systems, etc.) are detailed in the report.
Dispersion Modeling: For large facilities, air quality dispersion modeling studies are conducted to predict the effects of emissions on the surrounding air quality.
The aim is to keep the facility's air pollution impact on the environment within legal limits and to officially document this situation.
In this critical legal process, companies providing environmental consulting and engineering services such as Balance Treatment coordinate complex measurement processes of facilities, carry out distribution modeling studies and support enterprises to complete permitting processes smoothly by preparing Emission Permit Reports to meet all legal requirements.
Architectural and construction project applications and control services
Architectural and Construction Project Applications cover the design, detailing, licensing and actual construction processes starting from the idea stage of a structure (building, facility, infrastructure). These services ensure that the project is implemented in accordance with the budget, time and technical specifications.chitectural and Construction Project Applications cover the design, detailing, licensing and actual construction processes starting from the idea stage of a structure (building, facility, infrastructure). These services ensure that the project is implemented in accordance wrchitectural and Construction Project Applications cover the design, detailing, licensing and actual construction processes starting from the idea stage of a structure (building, facility, infrastructure). These services ensure that the project is implemented in accordance with the budget, time and technical specifications.
1. Architectural and Engineering Project Applications
Design and Project Planning: Preparation of architectural, static, mechanical and electrical engineering projects in accordance with the function of the project (for example, a treatment plant building, office, residence). At this stage, full compliance with legal regulations and zoning plans is aimed.
Licensing: Presenting the prepared projects to the relevant municipalities or institutions and obtaining the construction license creates the legal basis of the project.Licensing: Presenting the prepared projects to the relevant municipalities or institutions and obtaining the construction license creates the legal basis of the project.
Detail Solutions: Detailing of critical sicensing: Presenting the prepared projects to the relevant municipalities or institutions and obtaining the construction license creates the legal basis of the project.
Detail Solutions: Detailing of critical structural and architectural details (cladding, insulation, connection points) on a 1/5 or 1/1 scale in order to prevent errors and delays during the application phase.
2. Construction Supervision (Consultancy) Services
Supervision (Supervision / Consultancy) is the process of supervising the progress of the project in the field in accordance with approved projects, technical specifications, quality standards and occupational safety rules.
Quality Control: Ensuring the compliance of the materials used and the workmanship performed with the specifications (concrete tests, steel controls, insulation inspection).Quality Control: Ensuring the compliance of the materials used and the workmanship performed with the specifications (concrete tests, steel controls, insulaQuality Control: Ensuring the compliance of the materials used and the workmanship performed with the specifications (concrete tests, steel controls, insulation inspection).
Work Program Monitoring: Checking whether the construction is progressing in accordance with the approved timeline and creating action plans when necessary.
Budget Control: Monitoring the project budget, controlling the progress payments and scope increases and keeping the cost under control.
Companies specializing in environmental and infrastructure projects such as Denge Purification successfully offer architectural project applications that cover not only the technical units of the facilities, but also the administrative buildings, control rooms and infrastructure structures surrounding these facilities, as well as inspection services that ensure the technical and legal progress of the entire construction process.
1. Architectural and Engineering Project Applications
Design and Project Planning: Preparation of architectural, static, mechanical and electrical engineering projects in accordance with the function of the project (for example, a treatment plant building, office, residence). At this stage, full compliance with legal regulations and zoning plans is aimed.
Licensing: Presenting the prepared projects to the relevant municipalities or institutions and obtaining the construction license creates the legal basis of the project.Licensing: Presenting the prepared projects to the relevant municipalities or institutions and obtaining the construction license creates the legal basis of the project.
Detail Solutions: Detailing of critical sicensing: Presenting the prepared projects to the relevant municipalities or institutions and obtaining the construction license creates the legal basis of the project.
Detail Solutions: Detailing of critical structural and architectural details (cladding, insulation, connection points) on a 1/5 or 1/1 scale in order to prevent errors and delays during the application phase.
2. Construction Supervision (Consultancy) Services
Supervision (Supervision / Consultancy) is the process of supervising the progress of the project in the field in accordance with approved projects, technical specifications, quality standards and occupational safety rules.
Quality Control: Ensuring the compliance of the materials used and the workmanship performed with the specifications (concrete tests, steel controls, insulation inspection).Quality Control: Ensuring the compliance of the materials used and the workmanship performed with the specifications (concrete tests, steel controls, insulaQuality Control: Ensuring the compliance of the materials used and the workmanship performed with the specifications (concrete tests, steel controls, insulation inspection).
Work Program Monitoring: Checking whether the construction is progressing in accordance with the approved timeline and creating action plans when necessary.
Budget Control: Monitoring the project budget, controlling the progress payments and scope increases and keeping the cost under control.
Companies specializing in environmental and infrastructure projects such as Denge Purification successfully offer architectural project applications that cover not only the technical units of the facilities, but also the administrative buildings, control rooms and infrastructure structures surrounding these facilities, as well as inspection services that ensure the technical and legal progress of the entire construction process.
SALES SCOPE PRODUCTS
Swimming Pool Equipment and Accessories
Swimming pool equipment and accessories are essential and auxiliary elements that ensure the safe, hygienic and functional use of the pool.
Essential Equipment (Necessary for the Operation of the Pool)Swimming pool equipment accessories are essential and auxiliary elements that ensure the safe, hygienic and functional use of the pool.
Essential Equipment (Necessary for the Operation of the Pool)
Filtration ool equipment and accessories are essential and auxiliary elements that ensure the safe, hygienic and functional use of the pool.
Essential Equipment (Necessary for the Operation of the Pool)
Filtration System (Pump and Sand Filter): Provides cleaning and circulation of pool water.
Disinfection/Chemical Balancing: Maintains water quality with systems such as chlorination, salt generators, pH regulators.
Heating Systems: Heats the water to make the pool usable for a longer period of the year (heat pumps, solar heaters).
Lighting: Provides the night visibility and aesthetics of the pool with LED or halogen lamps.
Accessories (For Ease of Use and Maintenance)Lighting: Provides the night visibility and aesthetics of the pool with LED or halogen lamps.Lighting: Provides the night visibility and aesthetics of the pool with LED or halogen lamps.
Accessories (For Ease of Use and Maintenance)
Maintenance Tools: Pool sweepers (manualghting: Provides the night visibility and aesthetics of the pool with LED or halogen lamps.
Accessories (For Ease of Use and Maintenance)
Maintenance Tools: Pool sweepers (manual or robotic), scoops, brushes and telescopic handles.
Pool Covers: Reduces heat loss, prevents evaporation and protects the pool from dirt (summer/winter covers).
In-pool Equipment: Stairs, handles, skimmer covers and poolside grills.
Entertainment/Fitness: Jumping boards, slides, in-pool games and swimming counter-current systems.
In short: These products provide a wide range of services, from keeping the pool water clean to ensuring that the pool can be used safely and enjoyably.
Essential Equipment (Necessary for the Operation of the Pool)Swimming pool equipment accessories are essential and auxiliary elements that ensure the safe, hygienic and functional use of the pool.
Essential Equipment (Necessary for the Operation of the Pool)
Filtration ool equipment and accessories are essential and auxiliary elements that ensure the safe, hygienic and functional use of the pool.
Essential Equipment (Necessary for the Operation of the Pool)
Filtration System (Pump and Sand Filter): Provides cleaning and circulation of pool water.
Disinfection/Chemical Balancing: Maintains water quality with systems such as chlorination, salt generators, pH regulators.
Heating Systems: Heats the water to make the pool usable for a longer period of the year (heat pumps, solar heaters).
Lighting: Provides the night visibility and aesthetics of the pool with LED or halogen lamps.
Accessories (For Ease of Use and Maintenance)Lighting: Provides the night visibility and aesthetics of the pool with LED or halogen lamps.Lighting: Provides the night visibility and aesthetics of the pool with LED or halogen lamps.
Accessories (For Ease of Use and Maintenance)
Maintenance Tools: Pool sweepers (manualghting: Provides the night visibility and aesthetics of the pool with LED or halogen lamps.
Accessories (For Ease of Use and Maintenance)
Maintenance Tools: Pool sweepers (manual or robotic), scoops, brushes and telescopic handles.
Pool Covers: Reduces heat loss, prevents evaporation and protects the pool from dirt (summer/winter covers).
In-pool Equipment: Stairs, handles, skimmer covers and poolside grills.
Entertainment/Fitness: Jumping boards, slides, in-pool games and swimming counter-current systems.
In short: These products provide a wide range of services, from keeping the pool water clean to ensuring that the pool can be used safely and enjoyably.
Pool and Wastewater Chemicals
These chemicals are vital for making water comply with health, hygiene and environmental standards. Their main functions according to their areas of use are:PoolThese chemicals are vital for making water comply with health, hygiene and environmental standards. Their main functions according to their areas of use are:
1. Pool ChemicaThese chemicals are vital for making water comply with health, hygiene and environmental standards. Their main functions according to their areas of use are:
1. Pool Chemicals
Pool chemicals ensure that the swimming water remains safe, clear and clean.Jul.
Disinfectants (Chlorine/Salt Systems): Provides hygiene by killing bacteria, viruses and algae.
pH Regulators: Increases the effectiveness of chlorine by keeping the pH level of water in the ideal December (7.2−7.6) and prevents equipment damage.
Algae Inhibitors (Algosides): Prevents the formation of algae on the pool walls.
Flocculants (Flocculants): Combine small particles suspended in the water, making it easier for them to be held in the filter or Decayed to the bottom, thereby increasing the clarity of the water.
2.culants (Flocculants): Combine small particles suspended in the water, making it easier for them to be held in the filter or Decayed to the bottom, thereby increasing the clarity of thFlocculants (Flocculants): Combine small particles suspended in the water, making it easier for them to be held in the filter or Decayed to the bottom, thereby increasing the clarity of the water.
2. Wastewater Chemicals
They are used in wastewater treatment plants. The aim is to purify wastewater from harmful substances before it is safely discharged into the environment or reused.
Coagulants and Coagulants (Coagulant/Flocculant): Form large lumps to decompose solids (sludge) in wastewater.
pH Adjusters: Optimizes the pH value of wastewater for efficient treatment.
Disinfectants: Eliminates remaining harmful microorganisms before dischargeAdjusters: Optimizes the pH value of wastewater for efficient treatment.
Disinfectants: Eliminates remaining harmful microorganisms before disc
1. Pool ChemicaThese chemicals are vital for making water comply with health, hygiene and environmental standards. Their main functions according to their areas of use are:
1. Pool Chemicals
Pool chemicals ensure that the swimming water remains safe, clear and clean.Jul.
Disinfectants (Chlorine/Salt Systems): Provides hygiene by killing bacteria, viruses and algae.
pH Regulators: Increases the effectiveness of chlorine by keeping the pH level of water in the ideal December (7.2−7.6) and prevents equipment damage.
Algae Inhibitors (Algosides): Prevents the formation of algae on the pool walls.
Flocculants (Flocculants): Combine small particles suspended in the water, making it easier for them to be held in the filter or Decayed to the bottom, thereby increasing the clarity of the water.
2.culants (Flocculants): Combine small particles suspended in the water, making it easier for them to be held in the filter or Decayed to the bottom, thereby increasing the clarity of thFlocculants (Flocculants): Combine small particles suspended in the water, making it easier for them to be held in the filter or Decayed to the bottom, thereby increasing the clarity of the water.
2. Wastewater Chemicals
They are used in wastewater treatment plants. The aim is to purify wastewater from harmful substances before it is safely discharged into the environment or reused.
Coagulants and Coagulants (Coagulant/Flocculant): Form large lumps to decompose solids (sludge) in wastewater.
pH Adjusters: Optimizes the pH value of wastewater for efficient treatment.
Disinfectants: Eliminates remaining harmful microorganisms before dischargeAdjusters: Optimizes the pH value of wastewater for efficient treatment.
Disinfectants: Eliminates remaining harmful microorganisms before disc
Wastewater Equipment and Accessories
Wastewater equipment are machines and systems used in industrial or urban wastewater treatment plants for cleaning, processing and preparing water for safe discharge to the environment.
Basic Equipment and FunctionsWastewater equipment are machines and systems used in industrial or urban wastewater treatment plants for cleaning, processing and preparing water for safe discharge to the environment.
Basic Equipment water equipment are machines and systems used in industrial or urban wastewater treatment plants for cleaning, processing and preparing water for safe discharge to the environment.
Basic Equipment and Functions
Grids and Screens (Preliminary Treatment):
They prevent the clogging and damage of pumps and other sensitive equipment by retaining large solid substances (garbage, fibrous materials) in the wastewater.
Pumps:
It provides the transportation of wastewater between different stages of the facility or from the pumping centers. Special submersible or centrifugal pumps are used that are resistant to the corrosive and dense structure of wastewater.
Aerators (Biological Treatment):t provides the transportation of wastewater between different stages of the facility or from the pumping centers. Special submersible or centrifugal pumps are used that are resistant to the corrosiveIt provides the transportation of wastewater between different stages of the facility or from the pumping centers. Special submersible or centrifugal pumps are used that are resistant to the corrosive and dense structure of wastewater.
Aerators (Biological Treatment):
By providing oxygen in biological treatment ponds, it accelerates the consumption of organic pollutants by microorganisms in wastewater.
Sludge Dewatering Equipment (Decanter Centrifuge/Filter Press):
It separates water from the sludge (bio-solid) formed during the treatment process, thereby significantly reducing the volume of solid waste that needs to be disposed of.
Mixers and Mixers:
It is used to ensure complete mixing of chemicals with wastewater and prevent sludge from settling in tanks.
Accessories
Flowmeters: Used to measure the amount of water entering and leaving the treatment plant.ed to ensure complete mixing of chemicals with wastewater and prevent sludge from settling in tanks.
Accessoriis used to ensure complete mixing of chemicals with wastewater and prevent sludge from settling in tanks.
Accessories
Flowmeters: Used to measure the amount of water entering and leavi
Basic Equipment and FunctionsWastewater equipment are machines and systems used in industrial or urban wastewater treatment plants for cleaning, processing and preparing water for safe discharge to the environment.
Basic Equipment water equipment are machines and systems used in industrial or urban wastewater treatment plants for cleaning, processing and preparing water for safe discharge to the environment.
Basic Equipment and Functions
Grids and Screens (Preliminary Treatment):
They prevent the clogging and damage of pumps and other sensitive equipment by retaining large solid substances (garbage, fibrous materials) in the wastewater.
Pumps:
It provides the transportation of wastewater between different stages of the facility or from the pumping centers. Special submersible or centrifugal pumps are used that are resistant to the corrosive and dense structure of wastewater.
Aerators (Biological Treatment):t provides the transportation of wastewater between different stages of the facility or from the pumping centers. Special submersible or centrifugal pumps are used that are resistant to the corrosiveIt provides the transportation of wastewater between different stages of the facility or from the pumping centers. Special submersible or centrifugal pumps are used that are resistant to the corrosive and dense structure of wastewater.
Aerators (Biological Treatment):
By providing oxygen in biological treatment ponds, it accelerates the consumption of organic pollutants by microorganisms in wastewater.
Sludge Dewatering Equipment (Decanter Centrifuge/Filter Press):
It separates water from the sludge (bio-solid) formed during the treatment process, thereby significantly reducing the volume of solid waste that needs to be disposed of.
Mixers and Mixers:
It is used to ensure complete mixing of chemicals with wastewater and prevent sludge from settling in tanks.
Accessories
Flowmeters: Used to measure the amount of water entering and leaving the treatment plant.ed to ensure complete mixing of chemicals with wastewater and prevent sludge from settling in tanks.
Accessoriis used to ensure complete mixing of chemicals with wastewater and prevent sludge from settling in tanks.
Accessories
Flowmeters: Used to measure the amount of water entering and leavi
Stainless and Cast Iron Submersible and Centrifugal Pumps
These pumps are the most commonly used types in fluid transfer, circulation and pressurization. The main differences are the materials and placement styles chosen according to the environmente pumps are the most commonly used types in fluid transfer, circulation and pressurization. The main differences are the materials and placement styles chosen according to the environment in whThese pumps are the most commonly used types in fluid transfer, circulation and pressurization. The main differences are the materials lacement styles chosen according to the environment in which they are used.
1. Centrifugal Pumps (Surface Pumps)
Working Principle: They pump by increasing the kinetic energy of the liquid with the centrifugal force created by the rapid rotation of a propeller (impeller).
Area of Use: It is used in a wide range of applications such as clean water supply, booster systems, heating-cooling circulation and light chemical transfer. The pump motor is usually located on dry ground.
2. Submersible Pumps (Submersible Pumps)
Working Principle: It works on the centrifugal principle, but its engine and body are completely immersed in liquid.. Submersible Pumps (Submersible Pumps)
Working Principle: It works on the centrifugal principle, but its engine and body are completely immersed in liquid. In this way, the suction (tr2. Submersible Pumps (Submersible Pumps)
Working Principle: It2. Submersible Pumps (Submersible Pumps)
Working Principle: It works on the centrifugal principle, but its engine and body are completely immersed in liquid. In this. Submersible Pumps (Submersible Pumps)
Working Principle: It works on the centrifugal principle, but its engine and body are completely immersed in liquid. In this way, the suction (traction) problem is eliminated.
Area of Use: It is preferred for wastewater and septic tank transfer, drainage, deep well water extraction, muddy water pumping.
3. Material Difference
Feature Stainless Steel Pumps Ductile Iron Pumps
Material High quality Chrome/Nickel alloy (ex: 304, 316) Grey Cast Iron (Cast Iron)
Field of Use Drinking water, food, chemical transfer, corrosive (corrosive) liquids. Wastewater, septic tank, drainage and general water transfer.
Advantage High resistance to corrosion (rust) and chemicals. Cost-effectiveness and high mechanical strength/weightantage High resistance to corrosion (rust) and chemicals. Cost-effectiveness and high mechanical strength/weight.
Import to Sheets
In summary: Stainless steel pumps are preferred in hygi
1. Centrifugal Pumps (Surface Pumps)
Working Principle: They pump by increasing the kinetic energy of the liquid with the centrifugal force created by the rapid rotation of a propeller (impeller).
Area of Use: It is used in a wide range of applications such as clean water supply, booster systems, heating-cooling circulation and light chemical transfer. The pump motor is usually located on dry ground.
2. Submersible Pumps (Submersible Pumps)
Working Principle: It works on the centrifugal principle, but its engine and body are completely immersed in liquid.. Submersible Pumps (Submersible Pumps)
Working Principle: It works on the centrifugal principle, but its engine and body are completely immersed in liquid. In this way, the suction (tr2. Submersible Pumps (Submersible Pumps)
Working Principle: It2. Submersible Pumps (Submersible Pumps)
Working Principle: It works on the centrifugal principle, but its engine and body are completely immersed in liquid. In this. Submersible Pumps (Submersible Pumps)
Working Principle: It works on the centrifugal principle, but its engine and body are completely immersed in liquid. In this way, the suction (traction) problem is eliminated.
Area of Use: It is preferred for wastewater and septic tank transfer, drainage, deep well water extraction, muddy water pumping.
3. Material Difference
Feature Stainless Steel Pumps Ductile Iron Pumps
Material High quality Chrome/Nickel alloy (ex: 304, 316) Grey Cast Iron (Cast Iron)
Field of Use Drinking water, food, chemical transfer, corrosive (corrosive) liquids. Wastewater, septic tank, drainage and general water transfer.
Advantage High resistance to corrosion (rust) and chemicals. Cost-effectiveness and high mechanical strength/weightantage High resistance to corrosion (rust) and chemicals. Cost-effectiveness and high mechanical strength/weight.
Import to Sheets
In summary: Stainless steel pumps are preferred in hygi
Dosing Pumps
Dosing pumps are special types of pumps designed to inject chemicals (liquids) into a system or flow line at extremely precise, repeatable and adjustable rates. These pumps have the ability to precisely control the amount of the chemical and the injection time.pumps are special types of pumps designed to inject chemicals (liquids) into a system or flow line at extremely precise, repeatable and adjustable rates. These pumps have the ability to osing pumps are special types of pumps designed to inject chemicals (liquids) into a system or flow line at extremely precise, repeatable and adjustable rates. These pumps have the ability to precisely control the amount of the chemical and the injection time.
Basic Features and Working Areas
Precision and Repeatability: The most critical feature of dosing pumps is that they can deliver the same amount of chemical in each stroke (without any error). This provides savings in process control and chemical consumption.
Adjustability: Most dosing pumps allow the flow rate to be easily changed, thanks to a stroke rate (frequency) and/or stroke length (flow rate) that can be adjusted manually or automatically.djustability: Most dosing pumps allow the flow rate to be easily changed, thanks to a stroke rate (frequency) Adjustability: Most dosing pumps allow the flow rate to be easily changed, thanks to a stroke rate (frequency) and/or stroke length (flow rate) that can be adjusted manuall
Basic Features and Working Areas
Precision and Repeatability: The most critical feature of dosing pumps is that they can deliver the same amount of chemical in each stroke (without any error). This provides savings in process control and chemical consumption.
Adjustability: Most dosing pumps allow the flow rate to be easily changed, thanks to a stroke rate (frequency) and/or stroke length (flow rate) that can be adjusted manually or automatically.djustability: Most dosing pumps allow the flow rate to be easily changed, thanks to a stroke rate (frequency) Adjustability: Most dosing pumps allow the flow rate to be easily changed, thanks to a stroke rate (frequency) and/or stroke length (flow rate) that can be adjusted manuall
Dosing pumps for all liquids such as water, acid, etc.
Dosing pumps are critical equipment that ensure the correct and controlled addition of a wide range of liquids to a system, from water treatment to industrial processes. The type of liquid (water, acid, alkali, viscous chemicals, etc.Dosing pumps are critical equipment that ensure the correct and controlled addition of a wiDosing pumps are critical equipment that ensure the correct and controlled addition of a wide range of liquids to a system, from water treatment to industrial processes. The type of liquid (water, acid, alkali, viscous cheDosing pumps are critical equipment that ensure the correct and controlled addition of a wide range of liquids to a system, from water treatment to industrial processes. The type of liquid (water, acid, alkali, viscous chemicals, etc.) Determines the body and contact material of the pump.
Operating Principle and Function
The main task of the metering pumps is to inject the chemical required by the process at the specified flow rate (ml/hour or L/hour) and pressure. They do this with precise volume control, usually using a stroke mechanism.
Selection of Materials According to the Application Range
The abrasiveness (corrosivity) or viscosity of the liquid directly affects the material of the pump:
Liquid Type Purpose Ideal Pump MaterialsThe abrasiveness (corrosivity) or viscosity of the liquid directly affects the material of the pump:
Liquid Typbrasiveness (corrosivity) of the liqdirectly affects the material ofThe abrasiveness (corrosivity) or viscosity of the liquid dasivenes (corrosivity) or viscosity of the liquid directly affects the material of the pump:
Liquid Type Purpose
Operating Principle and Function
The main task of the metering pumps is to inject the chemical required by the process at the specified flow rate (ml/hour or L/hour) and pressure. They do this with precise volume control, usually using a stroke mechanism.
Selection of Materials According to the Application Range
The abrasiveness (corrosivity) or viscosity of the liquid directly affects the material of the pump:
Liquid Type Purpose Ideal Pump MaterialsThe abrasiveness (corrosivity) or viscosity of the liquid directly affects the material of the pump:
Liquid Typbrasiveness (corrosivity) of the liqdirectly affects the material ofThe abrasiveness (corrosivity) or viscosity of the liquid dasivenes (corrosivity) or viscosity of the liquid directly affects the material of the pump:
Liquid Type Purpose
Ph and conductivity , Automatic control systems
These systems are used to continuously monitor liquid quality in water treatment, wastewater processing and industrial processes and to automatically make necessary chemical adjustments to maintain ideal process conditions.pH ControlThese systems are used to continuously monitor liquid quality in water treatment, wastewater processing and industrial processes and to automatically make necessary chemical adhese systems are used to continuously monitor liquid quality i water treatment, wastewater processing and industrial processes and to automatically make necessary chemical adjustments to maintain ideal process conditions.
1. pH Control Systems
Description: pH measures the acidity or alkalinity of a liquid (on a scale of 0−14).
Function: The system continuously measures the pH in the tank or pipeline using a pH probe. If the measured value deviates from the set target value (e.g.: if the target is 7.0 but 6.5 is measured), the control panel immediately commands a dosing pump (containing acid or base) to inject the necessary chemical.
Importance: It prevents corrosion, increases the efficiency of chemical reactions and protects the health of biological treatment (microorganisms).
2. Conductivity Control Systems
Importance: It prevents corrosion, increases the efficiency of chemical reactions and protects the health of biological treatment (microorgani
Importance: It prevents corrosion, increases the efficiency of chemical reactions and protects the health of biological treatment (microorganisms).
2. Conductivity Control Systems
Definition: Conductivity measures how well a liquid conducts electricity, and is an indicator of the total dissolved solids (TDS) in the water.
Function: The salt or mineral density in the water is monitored using a conductivity sensor. When the value exceeds a threshold (e.g. excessive salt accumulation in the boiler water), the control system automatically opens a bluff (drain) valve and drains the condensed water.
Importance: It prevents mineral buildup (scale) in cooling towers and steam boilers, increasing energy efficiency and equipment life.
Integration (Automatic ControlImportance: It prevents mineral buildup (scale) in cooling towers and steam boilers, increasing energy efficiency and equipment life.
Integration (Automatic Control)
These systems work with PID coortance It prevents mineral (scale) in cooling towers and steam boilers, increasing energy efficiency and equipment life.
Integration (Automatic Control)
T
1. pH Control Systems
Description: pH measures the acidity or alkalinity of a liquid (on a scale of 0−14).
Function: The system continuously measures the pH in the tank or pipeline using a pH probe. If the measured value deviates from the set target value (e.g.: if the target is 7.0 but 6.5 is measured), the control panel immediately commands a dosing pump (containing acid or base) to inject the necessary chemical.
Importance: It prevents corrosion, increases the efficiency of chemical reactions and protects the health of biological treatment (microorganisms).
2. Conductivity Control Systems
Importance: It prevents corrosion, increases the efficiency of chemical reactions and protects the health of biological treatment (microorgani
Importance: It prevents corrosion, increases the efficiency of chemical reactions and protects the health of biological treatment (microorganisms).
2. Conductivity Control Systems
Definition: Conductivity measures how well a liquid conducts electricity, and is an indicator of the total dissolved solids (TDS) in the water.
Function: The salt or mineral density in the water is monitored using a conductivity sensor. When the value exceeds a threshold (e.g. excessive salt accumulation in the boiler water), the control system automatically opens a bluff (drain) valve and drains the condensed water.
Importance: It prevents mineral buildup (scale) in cooling towers and steam boilers, increasing energy efficiency and equipment life.
Integration (Automatic ControlImportance: It prevents mineral buildup (scale) in cooling towers and steam boilers, increasing energy efficiency and equipment life.
Integration (Automatic Control)
These systems work with PID coortance It prevents mineral (scale) in cooling towers and steam boilers, increasing energy efficiency and equipment life.
Integration (Automatic Control)
T
Swimming pool automatic control systems
Swimming pool automatic control systems are intelligent systems that constantly monitor the water quality, temperature and equipment operation of the pool and make necessary adjustments without human intervention. These systems provide both hygiene and easeSwimming pool automatic control systems are intelligent systems that constantly monitor the water quality, temperature and equipment operation of the pool and make necessary adjustments without human intervention. These systems provide both hygiene and ease of operation.
Basic Control Areas
Water Chemistry Control (pH and Disinfectant):
Sensors: Continuously measures pH and disinfectant (ORP/Free Chlorine) levels in pool water.
December October Automation: When the measured values fall outside the ideal range, the system automatically adds the necessary chemicals (acid/base and chlorine/disinfectant) to the system by giving commands to the dosing pumps. This ensures that the water remains safe and stable at all times.ecember October Automation: When the measured values fall outside the ideal range, the system automatically adds the necDecember October Automation: When the measured values fall outside the ideal range, the system automatically adds the necessary chemicals (acid/base and chlorine/disinfectant) to the system by giving commands to the dosing pumps. This ensures that the water remains safe and stable at all times.
Filtration and Backwash Control:
Pressure Sensors: Monitors the pressure, indicating the pollution level of the filter.
Automation: When the pressure reaches a certain threshold, the system starts the backwash cycle of the filter using automatic valve systems. Thus, the filter is cleaned and the water flow returns to normal.
Temperature and Heating Control:
Thermostats: Measure the temperature of the pool water.
Automation: Automatically turns the heat pump or other heating systems on and off to reach and maintain the temperature set by the userThermostats: Measure the temperature of the pool water.
Automation: Automatically turns the heat pump or other heating systems on and off to reach and maintain the temperature set by the userThermostats: Measure the temperature of the pool water.
Automation: Automaticallyns the heat pump or other heating systems on and off to reach and maintain the temperature set by the user.
Advantages
Consistent Quality: Prevents water chemistry fluctuations, keeping the pool water hygienic at all times.
Chemical Savings: Reduces waste by using only as much chemical as necessary.
Energy Efficiency: Optimizes electricity consumption by running pumps and heaters only when necessary.
In summary: Automatic control systems simplify pool management, optimize water quality and provide pool owners with an effortless user experience.
Basic Control Areas
Water Chemistry Control (pH and Disinfectant):
Sensors: Continuously measures pH and disinfectant (ORP/Free Chlorine) levels in pool water.
December October Automation: When the measured values fall outside the ideal range, the system automatically adds the necessary chemicals (acid/base and chlorine/disinfectant) to the system by giving commands to the dosing pumps. This ensures that the water remains safe and stable at all times.ecember October Automation: When the measured values fall outside the ideal range, the system automatically adds the necDecember October Automation: When the measured values fall outside the ideal range, the system automatically adds the necessary chemicals (acid/base and chlorine/disinfectant) to the system by giving commands to the dosing pumps. This ensures that the water remains safe and stable at all times.
Filtration and Backwash Control:
Pressure Sensors: Monitors the pressure, indicating the pollution level of the filter.
Automation: When the pressure reaches a certain threshold, the system starts the backwash cycle of the filter using automatic valve systems. Thus, the filter is cleaned and the water flow returns to normal.
Temperature and Heating Control:
Thermostats: Measure the temperature of the pool water.
Automation: Automatically turns the heat pump or other heating systems on and off to reach and maintain the temperature set by the userThermostats: Measure the temperature of the pool water.
Automation: Automatically turns the heat pump or other heating systems on and off to reach and maintain the temperature set by the userThermostats: Measure the temperature of the pool water.
Automation: Automaticallyns the heat pump or other heating systems on and off to reach and maintain the temperature set by the user.
Advantages
Consistent Quality: Prevents water chemistry fluctuations, keeping the pool water hygienic at all times.
Chemical Savings: Reduces waste by using only as much chemical as necessary.
Energy Efficiency: Optimizes electricity consumption by running pumps and heaters only when necessary.
In summary: Automatic control systems simplify pool management, optimize water quality and provide pool owners with an effortless user experience.