Aerial View of Industrial Effluent Treatment Plant Showing Circular Clarifiers and Infrastructure for Water Purification Aerial View of Industrial Effluent Treatment Plant Showing Circular Clarifiers and Infrastructure for Water Purification

Industrial Effluent Treatment Solutions

At Organica Biotech, we specialize in providing cutting-edge and sustainable wastewater treatment solutions.

Our biological wastewater treatment technologies and solutions are straight out of Nature’s Laboratory and are a proven alternative to existing inefficient biological treatment solutions.

Our bio-formulations target a wide range of industries and are custom-designed to effectively degrade organic effluent.

With Organica Biotech, you can:

True Mark

curb foul odour and significantly lower COD and BOD levels in the water.

True Mark

reduce sludge volume and operational costs

Female Engineer Wearing Safety Gear Conducting Water Quality Tests at a Wastewater Treatment Facility

Organica Biotech helps take your industrial wastewater treatment to standards acceptable for industrial reuse, safe discharge into water bodies and reuse on smaller scales. By embracing sustainable wastewater management practices, we can contribute to the preservation of water resources and create a brighter future.

Tailored Industrial Effluent Solutions

Close-Up of Various Pills and Capsules Representing the Wide Range of Pharmaceuticals Used in Healthcare

Pharmaceuticals

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Scientist Pouring Purple Liquid into a Beaker, Demonstrating Industrial Effluent Solutions for Chemical Industries

Chemical

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Assorted Dishes and Drinks on a Table Highlighting the Need for Industrial Effluent Solutions for Food & Beverages Industry

Food & Beverages

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Dairy Products Including Milk, Butter, and Cheese on a Table Highlighting Industrial Effluent Solutions for Dairy Industry

Dairy

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Laboratory Flasks in an Agricultural Field Highlighting Industrial Effluent Solutions for Agrochemicals Industry

Agrochemicals

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Person Holding Fabric Samples Highlighting the Need for Industrial Effluent Solutions for Textiles Industry

Textiles

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Industrial Facility by a River Emitting Smoke, Highlighting Industrial Effluent Solutions for Pulp & Paper Industry

Pulp & Paper

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Pipelines Leading to an Industrial Facility Highlighting Industrial Effluent Solutions for Oil & Gas Industry

Oil & Gas

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Industrial Facility with Storage Tanks at Night, Demonstrating Tailor Made Industrial Effluent Solutions for Efficiency

Tailor Made Solutions

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Other Industrial Effluent Treatment Solutions

Other Solutions

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Know More About Wastewater

  • The process of removing contaminants from sewage or industrial wastewater and improving the physicochemical and biological characteristics of water using various physical, chemical, and biological processes that allow the safe discharge of used water into the environment or reuse of water for domestic or industrial purposes is known as wastewater treatment.

    Wastewater treatment is usually performed in a sewage treatment plant for sewage water and an effluent treatment plant for industrial wastewater.

  • Depending on the source of origin, wastewater can be classified as domestic wastewater, also known as sewage water, and industrial wastewater, also known as effluent.

    Sewage water usually consists of liquid discharge from the sanitary facility, cooking, bathing, laundry, and domestic use from residential, commercial, or institutional sources.

    The water discharge originating from a wide variety of manufacturing processes from the commercial and industrial sectors is known as industrial wastewater or effluent.

  • The wastewater treatment consists of 3 stages. The primary stage consists of various techniques for removing large solid materials from the incoming water.

    Bar screening filters out any large solid material like wood, plastic, rags, etc. Primary clarifier allows the settling of solids via gravity; sometimes, coagulants and flocculants are used to precipitate and settle the dissolved solids.

    Secondary treatment of wastewater (commonly known as biological wastewater treatment) is the microbe-mediated wastewater treatment coming from a primary clarifier.

    It involves aerobic, anaerobic treatment, or a combination of both processes to treat the organic material in the wastewater by reducing COD, nitrogen, phosphorus, etc.

    The tertiary stage is the final stage of wastewater treatment to improve the water quality to a level that allows the discharge of water into the environment or the reuse of treated water.

    It involves processes like disinfection, membrane filtration, carbon filtration, etc.

  • The most common types of wastewater treatment plants are effluent treatment plants (ETP), sewage treatment plants (STP), and common and combined effluent treatment plants (CETP).

    Effluent treatment plants (ETP) are usually used by industries with high manufacturing capacities, such as textile, pharmaceutical, and chemical industries, etc. containing organic or inorganic wastewater or a combination of both with high COD, TDS, and extreme pH, making the wastewater highly toxic.

    Effluent treatment plants are selected and designed according to the type and volume of incurrent industrial effluent.

    Sewage treatment plants remove contaminants from domestic wastewater, such as residential colonies, institutions, hospitality industries, etc.

    STPs contain wastewater with a high amount of organic material that can be treated without much difficulty.

    Common effluent treatment plants (CETPs) are designed to treat wastewater from various small-scale industries that are not able to treat effluents on-site at a common effluent treatment plant.

    CETPs are usually constructed in industrial estates or industrial development corporations (IDC).

  • Microorganisms are intrinsic to the secondary treatment of wastewater. This is because they are mediators in the degradation of organic material present in wastewater.

    In biological wastewater treatment, microbes consume the organic material present in wastewater as a source of food containing carbon, nitrogen, phosphorus, and other essential nutrients to grow.

    In return, they convert the high molecular toxic contaminants into smaller, non-toxic materials that can be discharged safely into the environment.

  • Secondary treatment of wastewater requires a combination of different microorganisms. The most common bacteria or wastewater treatment are Bacillus and Pseudomonas species.

    There is a variety of Bacillus species like B. licheniformis, B. subtilis, B. megaterium, B. pumilus, B. coagulans, etc., while in Pseudomonas P. aeruginosa, P. putida, P. fluorescens, etc. potential strains of these bacteria are most commonly used to treat pollutants present in the wastewater treatment system.

    The basis of microbes being chosen for treating wastewater solely depends upon their genetic and enzymatic machinery that makes them capable of degrading substrates found in certain types of wastewater.

    Apart from this, there are higher life forms such as free swimming ciliates, stalked ciliates, rotifers, and tardigrades that help in creating bio enzymes for wastewater treatment by feeding of free bacterial cells and help in maintaining good flocculation in the wastewater treatment system.

  • Optimal growth of microorganisms in a wastewater treatment system requires a balanced functioning of various parameters.

    • Aeration
      In the case of an aerobic treatment system, a properly aerated system makes sure there is enough dissolved oxygen content for the growth and multiplication of the microbial population.
    • pH
      Neutral pH provides a favorable environment for the optimum growth of microorganisms.
    • Loading rate
      A balanced organic loading rate makes sure that there is an optimum supply of organic matter that allows floc formation in the system.

  • Residence time in a wastewater system can be described as the time duration for which solids like organic material or microorganisms are present in an activated sludge system or the time available for the interaction of microorganisms and organic matter for its degradation, also known as mean cell residence time(MCRT).

    The residence is dependent on the inflow and outflow of the effluent and is calculated by dividing the volume of the secondary tank by the flow rate of the effluent.

    A well-balanced residence time allows optimum degradation of pollutants in the wastewater treatment system.

  • Cowdung contains microorganisms that are found in the gut of cattle, and they are best suited to degrade the food consumed by cattle. If you consider, the composition of an effluent varies depending on the industry type, products, and by-products produced in the manufacturing plant.

    It becomes difficult for microorganisms accustomed to one source of food to have a reliable impact when transferred to a completely different and harsh environment. They cannot, therefore, treat the wastewater as efficiently.

    Cowdung is also a source of a wide variety of pathogenic bacteria. An increased load of pathogenic bacteria in your wastewater system can have a negative impact on the secondary treatment process or when released into the environment.

    There is no substitute for a well-researched product that is tailor-made to suit the effluent and the process of treatment.

  • In a wastewater system, maintenance of desired microbial population is essential to optimise the efficacy of the secondary treatment of wastewater. The biological health of wastewater needs to be monitored at regular intervals to keep up to date the health of the system.

    Microscopic examinations allow you to understand the density of floc formation, free bacterial cells, the presence and type of higher life forms present in the system, and the density of filamentous bacteria.

    Similarly, microbial count analysis can help in understanding the microbial count and microbial diversity per milliliter of effluent sample.

    Such analysis of effluent undergoing biological wastewater treatment at regular intervals can provide an inside view into the biological health of the wastewater system.

  • Higher life forms include a wide variety of microscopic organisms like ciliates, flagellates, rotifers, tardigrades, etc., and are indicative of the health of your wastewater treatment plant. Higher life forms are very sensitive to any kind of changes in a biological wastewater treatment system.

    The absence of higher life forms in the system indicates a high level of toxicity in the effluent that can be due to the presence of toxic compounds, high COD, high TDS, or extreme pH.

    Different types of higher life forms develop during different phases of sludge development in the secondary treatment of water; hence, the dominance of certain types of higher life forms at a given time can help in understanding the stage and age of sludge development.

    Observation of artifacts of higher life forms can indicate some kind of shock load to the system, such as oxygen depletion, pH fluctuation, and entry of any toxic compound into the system that may have caused their sudden death. Hence, higher life forms are good indicators of the health of your effluent system.

  • An aerobic process involves a set of microorganisms that grow optimally in the presence of oxygen. Anaerobic wastewater treatment involves microorganisms that grow in the absence of oxygen.

    It is an energy-intensive process as it utilizes continuous electricity for aeration and monitoring of the aeration parameters.

    Because of accelerated microbial activity, the retention time for waste degradation is lesser than that required for anaerobic treatment.

    Selecting the process for biological wastewater treatment in an industry is based on various factors such as :

    • Availability of Land
      As the anaerobic process requires high retention time, the space required to maintain a large volume of effluents for a longer duration is more.
    • Cost of Operations
      In terms of cost of operations, the maintenance of the aerobic facility increases OPEX costs as it requires a continuous supply of oxygen, monitoring of various parameters, and maintenance of moving parts at regular intervals. The anaerobic process is a comparatively cost-effective method for the secondary treatment of water, as no additional energy input is required.
    • Effluent Type and Energy Recovery
      When effluent water contains high organic content, energy can be recovered from the wastewater in the form of biogas via anaerobic treatment, but the process requires a high level of monitoring and maintenance. Energy recovery from aerobic treatment can be carried out from the organic sludge mixed with microbial biomass occasionally if the substrate is suitable.

  • Generally, every type of manufacturing industry has a process that leads to wastewater generation. Any industry that produces wastewater containing organic loads, toxic compounds, high COD, nitrates, phosphates, and TDS levels that can be hazardous to aquatic and plant life when discharged into the environment without treatment requires treatment of its wastewater.

    Some of the common industries include pharmaceutical, food processing, dairy processing, distillery, chemical, petrochemicals, paint, textile, and dye industries.

  • Pathogens are microorganisms that can potentially be harmful to humans, animals, or aquatic life on ingestion or exposure.

    Pathogens can be removed in a wastewater treatment plant chemically, physically, or biologically in the secondary and tertiary steps of treatment.

    Depending on the contamination levels that exist and environmental, health, and safety levels that are expected, the type of pathogen removal process to be employed differs.

  • The smooth functioning of biological wastewater treatment systems is dependent on various parameters.

    The breakdown of the secondary system is usually associated with reduced growth of desirable microorganisms or increased growth of undesirable microorganisms, which can lead to a lesser reduction of COD, nitrogen, and excessive foaming.

    A choked or non-functional aerator system can lead to an anoxic environment, favoring the growth of undesirable microorganisms. pH fluctuations to the extreme can lead to an unfavorable environment for microbial growth.

    Irregular or disproportionate sludge wasting and sludge recirculation can lead to the accumulation of sludge in the tank, reducing the capacity for wastewater treatment.

    Shock loads of any kind can also spur a complete breakdown of the secondary treatment system.

  • A change in any parameter of the effluent system that can disturb the ecosystem of secondary treatment can be considered as shock load.

    There are several factors that can lead to shock load, and hence it is necessary to monitor and maintain the characteristics of incoming effluent and wastewater systems for the smooth functioning of the treatment plant.

    Some of the factors that can lead to shock load are as follows:

    • Aeration
      Reduction in dissolved oxygen content in the effluent system can create an anoxic environment in the system, promoting the growth of undesirable microflora in the system.
    • Toxic compounds
      An entry of a highly toxic compound into the effluent stream can hamper microbial growth, reducing the MLSS in the secondary system.
    • pH shift
      Sudden shift of pH to the either acidic or alkaline side can affect the growth of microorganisms of the affecting the system.

    Organic loading rate- the rate of inflow and outflow of effluent should be maintained to achieve an optimum residence time. Large fluctuations in the flow can change the organic loading rate of the system.

  • An effluent or sewage water cannot be used directly for any purpose, but when this wastewater is properly treated, and the characteristics of water are brought under environmental safety standards, the water can be reused for a variety of purposes like using water for cooling jackets in industries, gardening, irrigation of non-food crops, flushing toilets, curing the construction sites, etc., reducing the load on freshwater systems.

FAQ

  • First of all, we would like you to get in touch with one of our experts. Also, why don’t you check Cleanmaxx® -Aerobic microbial culture. It is one of the most effective biological wastewater treatment enzymes for aerobic systems. This bio enzyme contains a specialised heterogenous concentrated consortium of uniquely functional bacteria with a high proliferative capacity and tenacity that can withstand and treat any hostile effluent water. To know more about microbial culture for industrial wastewater treatment, Click here

  • Anaerobic wastewater systems are tough to stabilize. They are very sensitive and require the presence of diverse microbes to complete the Hydrolysis, Acidogenesis, Acetogenesis & Methanogenesis processes. Cleanmaxx® ANB provides highly diverse facultative anaerobes which strengthen and stabilize an anaerobic wastewater system. It maximizes the reduction of the COD – BOD parameters while simultaneously enhancing biogas production capacity & minimizing sludge volume. To know more about this Click here

  • In any Biological system, it is important to maintain C:N:P ratio in order to reach good treatment efficiency. We would suggest you to go with MICROBSTER, which is a bio enzyme for wastewater treatment. It is a 100% natural eco-friendly nutrient additive that is a blend of nitrogen, phosphorus, and micronutrients, as well as biostimulants that are crucial to biomass development for sewage and industrial wastewater treatment. Our experts at Organica will guide you throughout the dosing process. To know more about this, Click here

  • We at Organica Biotech have specifically developed Cleanmaxx FOG for degrading excessive build-ups of Fats, Oil & Grease. Microbes present in Cleanmaxx® FOG are selectively cultivated and are highly target-specific. These microbes get activated when mixed in water. Upon activation, they completely degrade organic waste during industrial wastewater treatment, ensuring that the emission of foul odour is curbed. Click here for more details.

  • Cleanmaxx® STP mode of action essentially comprises of two major steps. The initial step involves the breakdown of complex compounds into simple polymers. These polymers are further degraded to form carbon dioxide and water. A major portion of all man-made and natural contaminants present in municipal wastewater can be effectively degraded by Cleanmaxx® STP. It consists of specialized strains of bacteria that survive and perform under shock loads. Click here for more details.

  • Our Biocheck study helps in analysing the current health and status of the biological system at your sewage or industrial wastewater treatment plant. To know more about this Click here.

  • Microbes show greater biological diversity than any other life forms on the planet. Depending on the environment, food, and genetics of the microbe, its capacity to degrade and treat different kinds of waste varies. In an industrial wastewater treatment plant, the greatest deciding factor for microbial treatment performance is the type of effluent as well as the type of treatment. Therefore, not all microbes can perform in biological wastewater treatment with equal efficiency. With our repertoire of diverse products to suit every plant’s needs, all you need to do is get in touch with our team to find the right product for your plant. Remember, the key to efficient sewage and industrial wastewater treatment in your plant lies in choosing the right microbial partner.

  • Bio enzymes for wastewater treatment can be created using various established technologies like activated sludge system (ASP), Moving bed biofilm reactor (MBBR), Membrane bioreactor (MBR), Sequencing batch reactors (SBR), Rotating biological contactor (RBC), aerated lagoons, aerobic granular sludge technology, Upflow anaerobic sludge blanket (UASB), anaerobic lagoons, Anoxic reactor, anammox, etc. But the selection for industrial wastewater treatment through biological treatment is based on the type of industrial effluent, parameters to be treated, space availability, etc. Irrespective of the type of treatment process you choose, ultimately, the efficiency of industrial wastewater treatment depends on the efficiency of the microbes inhabiting the secondary wastewater treatment unit.

  • Presence of ammonia in an industrial wastewater treatment plant can lead to toxicity. The concentration of ammonia can be reduced by secondary treatment of wastewater with microbial action, where the ammonia is first oxidized to nitrites and nitrates; this process is known as nitrification. Further, nitrates are reduced to nitrogen gas which is released into the atmosphere; this process is known as denitrification. Denitrification is especially crucial since the release of nitrates into the environment can cause eutrophication or algal bloom.

  • In general, high amounts of total dissolved solids restrict the growth of microbes due to the osmotic stress TDS creates on the microbe. The microorganisms present in Cleanmaxx are specially selected for their ability to sustain high TDS effluents and still provide an efficient COD reduction in an industrial wastewater treatment plant.

  • The main difference between the aerobic and anaerobic treatment of wastewater is that an aerobic wastewater treatment process utilizes microbes that require oxygen to respire and degrade the organic matter present. In anaerobic wastewater treatment, the degradation of organic matter occurs in the absence of oxygen using anaerobic microbes.

  • The aerobic process is less energy efficient but provides effective secondary treatment of wastewater with lesser retention time and space requirements. While anaerobic treatment is energy efficient, but the treatment of wastewater requires high retention time with huge space requirements. Anaerobic treatment is usually chosen when the organic load is excessively high, or the wastewater contains xenobiotic (tough to degrade biologically) compounds. Many industries deploy both aerobic and anaerobic treatment processes.

  • In a biological wastewater treatment plant, filamentous bacteria form the backbone of floc formation, that leads to a healthy sludge. So the presence of filamentous bacteria in small amounts is desirable. But the high density of filamentous bacteria could indicate that the food-to-microbe ratio, pH, and dissolved oxygen may not be optimal in your wastewater treatment plant. Investigating the root cause is important as the continued presence of a high amount of filamentous bacteria causes heavy foaming and other issues which could badly affect your treatment efficiency.

  • The presence of higher life forms, such as ciliates, flagellates, rotifers, etc., in a biological wastewater treatment plant, indicates that the effluent is non-toxic or has a very low level of toxicity. The absence of higher life forms and microbes indicates that the effluent in your wastewater treatment plant is toxic and needs to undergo additional treatment.

  • Yes, in a biological wastewater treatment plant, microbial action can break down high molecular weight toxic compounds into smaller molecules to use it as a food source, thereby reducing the toxicity of the effluent. But this must be tested at a pilot scale while deploying bioremediation products of your choice. You can do this by using our BioSure services. Get in touch with us to know more.

  • The sludge recirculation of a wastewater treatment plant is usually decided on the basis of MLSS & MLVSS present in your system and the settling characteristics of your sludge.

  • Studying various microbes and analyzing the total microbial count of a sample from your secondary wastewater treatment unit can give you an in-depth view to the health of your biological wastewater treatment plant. But in the absence of a microscope or a testing facility, physical characteristics such as odour, colour, turbidity, foam, etc., of effluent can indicate the health of the wastewater treatment plant. Estimation of the sludge volume index is an important way to understand the condition of your wastewater treatment plant. Here, we understand the sludge development in an aeration tank and the settling ability of the sludge, both of which are positive indicators of the biological health of your effluent.

  • In a wastewater treatment plant, usually, a D.O. level between 1 to 2 mg/L is maintained. Low DO levels can hamper microbial growth and thus reduce the treatment efficiency of your treatment plant.

  • During the secondary treatment of wastewater, the most common reasons for the increase in D.O. are reduction in MLSS, high organic loading rate, or introduction of wastewater from a toxic stream. Drops in respiration rate due to lowered metabolic activity of microbes in the secondary wastewater treatment unit could result in a sudden increase in dissolved oxygen.

  • It is very difficult to replicate the actual biological process on a lab scale or a pilot scale, but with our specially designed Biosure method, we can test the efficacy of our robust wastewater bioremediation products with effluent from your plant. This method will provide you a very realistic scenario and a solution.

  • In a primary treatment tank, the effluent is subjected to chemical treatment, where conditions may not be conducive for microbial growth like that of a biological treatment plant. High amounts of alum, polyelectrolytes, or other chemical settling agents are harmful to microbes along with fluctuating pH. So normally, it is not advisable to add microorganisms in a primary tank.

  • Heavy metals have been known to be toxic to microorganisms and can hinder their growth. The microbes present in Cleanmaxx can sustain in the presence of heavy metals. High concentrations of heavy metals in a wastewater treatment plant can inhibit the growth of microbes; in this case, chemical scrubbing and other methods must be employed before the effluent undergoes biological treatment.

  • Technically only organic matter in wastewater can be treated in a biological wastewater treatment system, as microorganisms can use only organic compounds as their food source, but some inorganic compounds can also be consumed by the microbes provided you have the right microbial strain in your biological units.

  • BOD is the total amount of dissolved oxygen used by microbes in the process of wastewater treatment during the decomposition of organic matter.

  • Sewage wastewater treatment follows the 3 stages of primary treatment, secondary treatment, and tertiary treatment. Primary treatment involves the removal of suspended solids through physical processes, secondary treatment involves the degradation of organic matter, and the tertiary process involves final treatment and disinfection to safely complete the sewage wastewater treatment before release.

  • Industrial wastewater treatment can be split into inorganic industrial wastewater treatment and organic industrial wastewater treatment. Treatment for both follows the 3 stages of the process primary, secondary, and tertiary. Biological methods are used for organic industrial wastewater treatment with the use of microbial cultures for MLSS development.

  • Wastewater treatment is a process that helps to clean contaminated water so that it can be returned to the water cycle. Many different methods can be used to remove contaminants, and the type of method used will depend on the type and amount of contamination present.

  • Biogas is produced as a result of bacteria breaking down organic matter in the absence of oxygen. This process is formally known as anaerobic digestion.

  • A biological wastewater treatment system uses bacteria and other microorganisms to clean water. This technology is effective in treating water contaminated with organic materials, such as sewage.

  • Biological wastewater treatment is a process that uses microorganisms to break down pollutants in effluent water. This process is designed to help reduce up to 80% of the pollutants in the effluent before release.

  • Wastewater treatment processes use one or more of the following: phase separation, such as sedimentation; biological and chemical processes, such as oxidation; or polishing.

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