An Essential Guide for Septic Tank Usage: Common Winter Problems and Resolution

During the winters, more precisely in cold regions, the surrounding environment is always harsh for mobility and work.

From frozen water to pipes, some unique issues emerge that hinder work and make human efforts useless without coordinated solutions that keep the system running.

Septic Tank is one of the few systems that experience reduced capabilities due to cold weather.

They are commonly used in areas where a connection to a central sewage system is unavailable.

However, during the winter months, septic tanks can experience several problems due to the colder temperatures.

Concerning Challenges with the Septic Tank

A failed or malfunctioning septic system poses a risk to both human and animal health and can pollute the environment.

Poor degradation of faecal matter and food waste leads to increased sludge collection, resulting in overflowing septic tanks.

Inappropriate treatment, which contains food and toilet waste, can lead to clogging, resulting in the emission of foul odors and the occurrence of backflows due to sludge buildup.

Moreover, septic tank cleaning becomes necessary, and a prompt response can save the owner money on repairs, prevent illness, and mitigate a negative impact on the surrounding environment.

Some common problems noted are as follows:

  • Freezing: When the temperature drops below freezing, the water in the tank can freeze, causing the tank to crack or rupture. To prevent this, insulate the tank and any exposed pipes.
  • Reduced bacterial activity: Cold temperatures can also slow down the bacteria that break down the waste in the tank. Keeping the bacteria active requires the addition of a septic tank additive that contains enzymes or bacteria.
  • Overuse: During the winter, many people spend more time indoors, which can lead to increased water usage and strain on the septic system. To reduce the strain on the drain pipe, try to spread out your water usage throughout the day and avoid using water-intensive appliances simultaneously.
  • Clogging: Cold temperatures can cause the fats, oils, and grease in the tank to solidify, potentially leading to clogging. To prevent this, avoid disposing of fats, oils, and grease down the drain and use a septic-safe drain cleaner instead.
  • Snow and Ice: Heavy snowfall and ice can exert significant pressure on the tank and its associated pipes, potentially causing them to crack or rupture. To prevent this, ensure that you clear snow and ice from around the tank and any exposed pipes.

Organica Septic Solution: A Powerful Hi-tech Treatment

Organica Bioclean Septic is a natural microbial treatment solution, containing a septic tank enzyme that produces bacteria capable of completely degrading faecal matter.

The microbes in the formula help break down existing sludge and minimize its build-up, preventing frequent choke-ups in the pipeline.

Moreover, the septic tank cleaner curbs foul odour by inhibiting the growth of putrefying bacteria.

It degrades organic blockages in the drain pipe, resolving the overflow and backflow issues and aiding in septic tank treatment.

Even in extreme cold climatic conditions, bacterial enzymes consistently degrade sludge in the tank with efficiency.

In conclusion, by taking these steps to prevent and resolve common winter problems, the household’s septic system remains functional smoothly throughout the colder months.

Scientists recommend a professional check-up on the septic tank to ensure it’s in good condition and properly functioning.

Role Of Biological Seed Treatment In Sustainable Farming

A global shift towards sustainable farming is the urgent need of the hour.

To grow crops, increase food production, and ensure a food supply to the growing population across the globe, it is essential to adopt farming practices and solutions that have minimal or no impact on the environment.

Various farming practices have led to a reduction in soil fertility, soil erosion, an increase in pesticide pollution, and loss of biodiversity.

These are some of the current concerns that need to be addressed while also increasing crop inputs.

Biological seed treatment can be a stepping stone towards sustainable farming, giving crops the head start they need to navigate their most vulnerable growth stage.

It is highly capable of minimizing crop loss due to inconsistent or poor germination, reducing the early onset of soil-borne diseases, and inoculating the seed with the right microbiome to ensure it receives a proper start to its growth.

Biological seed treatment encompasses a diverse range of products containing active ingredients, including microbes such as bacteria and fungi, plant extracts, fermentation products, algae extracts, and phytohormones.

It is available in either dry or liquid formulation.

The procedure for seed treatment includes seed dressing, seed coating, and seed pelleting.

Soil contains billions of microbes; some are beneficial, and others are harmful.

Biological seed treatment is based on the principle that beneficial microbes can be maintained in close proximity to the seed, thereby enhancing productivity.

Microbes like Rhizobia and Azospirillum brasilense have been found by scientists to act on the seed, penetrate the root, and facilitate various plant processes, including germination, stem elongation, and the growth of flowers, leaves, and fruits.

Some microbes, such as Penicillium bilaiae, and others, like fungi, enhance nutrient and water uptake by roots by making these resources available to plants.

The demand for treating seeds with living microorganisms is growing exponentially in the global farming sector.

A few years ago, it would have been too far-fetched to imagine biological microbes playing a role in achieving sustainable farming.

However, the latest developments in farming, innovations, and technology have made it possible to use tiny living organisms to transform farming forever.

Biological seed treatment is an effective and beneficial approach.

At the same time, the yield and size of the benefits vary depending on climatic conditions.

Some of the benefits, which can help in sustainable farming, include the following:-

  • It helps in the fight against plant pathogens and reduces biotic stress in plants.
  • It may indirectly increase overall productivity due to enhanced germination and survival rate.
  • The availability of nutrients increases, thereby improving nutrient uptake.
  • Early establishment happens, and a uniform seasonal growth rate is attained with a biological seed treatment.
  • Yield potential is maintained throughout as crops stand uniformly, even in adverse conditions.
  •  It eliminates the need for chemicals or pesticides in plant growth, thereby preventing environmental damage.

There is an urgent need to promote the use of biological seed treatment among the farming community.

The awareness of sustainability in the general public’s consciousness, as well as among farmers, is important.

This will further drive the development of eco-friendly biological solutions that support sustainable farming.

Governments of respective countries can also take essential measures to limit the use of pesticides, nitrogen inputs, mineral fertilizers, and other harmful substances from reaching farms and damaging the environment.

Organica Biotech is a leader in the industry, championing the cause of sustainable farming.

Their revolutionary Magic Gro range of products is safe, natural, and effective for plant growth promotion.

The consortium of microbes developed in their state-of-the-art research labs enhances plant vitality and immunity, improves seed germination, fruiting, and flowering rates, and ultimately increases yield.

Not only this, but the use of the Magic Gro range of products has also been proven to reduce farmers’ requirements for chemical inputs over time.

The more widespread adoption of such products will be the right step in the direction of effective, sustainable farming.

MLSS Bacteria and Ways to Evaluate It

Wastewater treatment plants are used worldwide to treat the vast amount of wastewater generated daily.

The primary objective is to safeguard the public from health hazards resulting from untreated wastewater.

Moreover, wastewater treatment is crucial in preventing environmental pollution.

According to a 2025 report by the UN, 80% of the world’s wastewater is discharged untreated, contributing to severe water pollution and scarcity.

Biological wastewater treatment is the most important process at any treatment facility, where living microorganisms play a vital role in degrading organic waste.

Among the various components of the system, MLSS is an operational control parameter that must be optimized for optimal treatment results.

What is MLSS in Wastewater Treatment?

Mixed Liquor Suspended Solids (MLSS) in wastewater treatment refers to the total concentration of solids in an aeration tank.

It includes non-biodegradable suspended matter, organic solids, and microorganisms.

Additionally, MLSS is considered a combination of suspended solids and influent wastewater, serving as an indicator of the system’s biomass or biological activity.

A study by the Water Environment Federation (2024) highlights that optimizing MLSS levels can improve effluent quality by 25%, reducing overall operational costs.

Optimizing MLSS in Wastewater Treatment

The traditional activated sludge wastewater treatment plants operate with MLSS concentrations ranging approximately from 1,500 mg/L to 5,000 mg/L.

According to studies, the MLSS concentration is even higher in Membrane Bioreactors (MBRs), ranging from 10,000 to 12,000 mg/L.

However, it has been observed that a higher concentration of MLSS has both advantages and disadvantages.

It is beneficial for smaller aeration tanks where the treatment level remains constant.

However, with an increase in MLSS concentration, aeration efficiency can sometimes decrease.

Higher MLSS also indicates a biomass nutrient deficiency, bulking sludge, and an increase in BOD loading, resulting in excessive solid generation, high flow rates, and insufficient settling times.

Whereas low MLSS indicates non-maintenance of DO concentration, fewer organisms survive, a decrease in flow rate occurs due to a reduction in microorganisms, and a decline in stalked and free-swimming ciliates is observed.

Therefore, maintaining an optimal level of MLSS concentration is crucial for the optimal performance of wastewater treatment plants.

It can be achieved by understanding the bacterial activity in the system.

Testing and evaluation of MLSS in wastewater treatment processes can be done using different methods.

In large plants, a daily check is preferable during peak flow.

Evaluation Techniques of MLSS in Wastewater Treatment

The standard procedure for evaluation of MLSS in wastewater treatment was introduced in the late 1800s and continues to be followed today.

  • The first step involves collecting a grab sample of MLSS and running it through the filter.
  • Secondly, the ignition of the filter should be carried out in a muffle furnace (550 degrees ) for about 15-20 minutes. It is done to dry the residue.
  • In the third step, the residue should be transferred to a desiccator for cooling purposes once the filter is cooled.
  • Finally, weigh the residue left on the filter. Thereafter, you can calculate the volatile solids in the sample using the following formula: VSS, mg/l=Weight of Material Lost by burning(g)sample volume (ml)

In the 1970s, with the advancement of technology, online instrumentation was developed to monitor MLSS continuously.

It is helpful in optimizing the Return-activated sludge (RAS) flow for a constant load during influent flow and periods of load variation.

However, manual assessment using a sample is still considered a better option, as online instrumentation is costly and requires constant calibration.

In the past decades, several methods have been developed to analyze and assess MLSS in wastewater treatment.

It includes manual collection and laboratory testing aimed at enhancing the efficiency of biological wastewater treatment.

Some of them are discussed.

Oxygen Uptake Rate

Oxygen Uptake Rate or OUR is the rate at which the biomass consumes oxygen. It also helps in measuring microbial activity.

When OUR is lower than normal, it indicates that MLSS is affected by toxicity. Higher levels show organic overloads.

Another scenario that can occur is a return to normal levels of high OUR within a short period.

It indicates that the MLSS concentration is low due to an inadequate food-to-microorganism ratio.

The Oxygen Uptake Rate test is conducted in three levels:

  • Level 1 

These are 15-minute tests designed to assess bacterial health and the organic load entering the biological system.

  • Level 2 

This level involves multiple tests over several hours using an aerated MLSS sample.

It is helpful to understand whether the biological system is properly sized to handle the incoming organic load.

Extended OUR tests help in assessing how long it will take to complete biological treatment based on the endogenous respiration of MLSS bacteria.

Here, the endogenous respiration of the bacteria occurs when these microorganisms start to oxidize their cellular mass, rather than the organic matter in the effluent.

Therefore, ideally, when the endogenous respiration of the MLSS begins, treatment is considered complete.

  • Level 3

It includes a treatability study, which is generally conducted to determine if an incoming wastewater stream will be helpful or highly toxic to the microorganisms inside a bioreactor.

One of the main components involves MLSS bacteria attaining endogenous respiration.

Settleability Test

Biomass efficiency depends on the density and how it settles in a clarifier. Thus, a Settleability test is done using a Settleometer.

Recording the Settled Sludge Volume (SVV) of the biomass allows operators to assess the age of the sludge.

Solids settling at a faster rate may indicate older sludge, while solids settling too slowly may get washed out during high hydraulic loads.

Plate Counts and ATP analysis 

In the Plate Counts method, tests are conducted to analyze small samples of MLSS using plate count media in the laboratory.

It helps in determining the microbial population in wastewater.

In ATP analysis, a luminometer that produces light during ATP reactions is used to analyse ATP, which is stored energy in microbes.

Flow Cytometry

It involves the use of fluorescent dyes to evaluate the viability of individual bacterial cells in an effluent sample.

Molecular Testing 

It allows quantification of the DNA of the MLSS bacteria and specific higher life forms of bacteria, such as nitrifiers and Nocardia.

This testing has the advantage of being highly accurate and rapid.

Organica Biotech is one of the leading companies with advanced solutions for wastewater treatment.

It also helps optimize MLSS in wastewater treatment and enhances the efficiency of the biological treatment process in wastewater treatment plants through its biological solutions.

Organica Biotech also offers two Wastewater treatment-related studies: 

  • BioCheck- Bacteriological Wastewater Analysis

This study can help you understand the current state of the biological system in a wastewater treatment plant by analyzing the microbial population and identifying existing problems.

This will further help you take effective measures to boost the system’s efficiency.

  • BioSure- Wastewater Treatability Study

BioSure will help you identify the right microbial population needed for your biological system by confirming its suitability and sustainability, depending on the type of industrial wastewater treatment plant.

Read more:

Importance of Biological Seed Treatment in Vegetable Production 

A majority of food crops worldwide are grown from seed.

With the increasing global population and a growing focus on sustainable agriculture to meet future food demands, the role of effective seed treatment is significant.

It helps mitigate initial losses due to seedling mortality (which necessitates re-sowing) and protects against diseases and pests at the most vulnerable stage of plant growth.

Seed treatment is crucial for enhanced crop protection amid growing concerns about food security.

Unfortunately, according to an estimate, 80% of the seed used in India is still untreated.

The farming community is neither aware of such practices nor are they educated to instill the importance of this practice.

Not using seed treatment practices causes the farming community unnecessary losses.

The propagation of seed treatment offers a significant opportunity for all stakeholders in the farming sector to reduce the use of harmful chemicals, pesticides, fertilizers, and other environmentally damaging substances, thereby protecting both the soil and the environment.

Biological seed treatment refers to the application of biologically active ingredients to seeds before they are sown in the soil.

It includes microorganisms such as bacteria and fungi, plant extracts, and algal extracts.

The biological substance, applied in liquid or powder form, coats the seed and acts as both an accelerator and protector during the germination process.

Biological seed treatment enhances growth and, consequently, the productivity of crops.

Moreover, it increases the resilience of plants and contributes to the development of a robust root system.

Depending on the active ingredient used in the formulation, the benefits from seed production could be seen in the following ways:

  • Bio-stimulant action – A crop that has undergone biological seed treatment using a biostimulant may exhibit enhanced germination, a higher seedling survival rate, increased strength, and improved growth.
  • Alleviation from Biotic stress – The Seedling stage is the most vulnerable stage to pathogen attack; early onset infections can be prevented by using appropriate biological seed treatments to counter the pathogen’s attack in the soil.
  • Improvement in Nutrient Intake – Biological seed treatment enhances the availability of plant nutrients at the roots, thereby facilitating better nutrient uptake. Specific plant growth-promoting microorganisms help in better nutrient assimilation.
  • Chemical exposure – Biological seed treatment is an alternative to harmful chemicals in certain aspects of seed treatment. Consequently, the impact of chemicals on the environment is reduced. Moreover, the negative effects of chemicals on the soil are also limited.

The effective and efficient use of biological microorganisms to protect plants and boost vegetable production is possible with biological control systems that are easy to use, economical, and reliable for the farming community.

Additionally, there is an increasing focus on safe agricultural production activities and environmentally friendly practices.

Thus, the latest innovations and technologies, which include living microorganisms for seed treatment, are fast gaining popularity.

Organica Biotech is a leader in the industry, developing an extensive range of products that promote sustainable farming practices.

The advanced Magic Gro range of products is safe, natural, and effective. It boosts vegetable production and its quality.

The microbial consortium developed in state-of-the-art facilities has been tested and proven for its efficacy and reproducibility.

It is known for improving plant vitality and plant immunity, and enhances seed germination, fruiting, flowering rates, and crop yield.

Thus, you can use Magic Gro products to boost farming output and protect the environment as well.

Also read:

The Magic Gro Plus Revolution

In the world of cultivation, whether for fruit production, ornamental specimens, grain, or vegetables, foliage, or flowers, some amount of what is called “fruit drop” is considered normal when it occurs at a certain stage of development.

Flower and fruit drop is the premature shedding of fruit from a tree before it is fully ripe and useful.

This type of fruit drop has long been a foe and a hindrance for farmers and cultivators worldwide.

However, this can be alarming if a very large number of fruit or produce “drops” or is lost prematurely, before it’s time.

The most common causes of premature fruit drop are climate stresses, including unseasonal rains, gales, excessive and unexpected windy weather, and pest infestations.

Not only does this result in a loss of produce and eventual revenue and profits for the cultivator, but it may also be an indicator of several other hidden problems that are inhibiting or stunting the agricultural drive.

These include:

  1. Nutrient deficiencies: typically seen in yellowing leaves, which indicate a nitrogen deficiency. However, there may be others too.
  2. Moisture management: excessive watering, insufficient draining, or too little irrigation can cause an imbalance in the growth curve of fruit and flowering trees
  3. Excessive pruning
  4. Pest infestation
  5. Extreme temperature fluctuations

Flower and fruit drop occur at different stages in various crops and can weaken the fruit and plants, further triggering them to drop due to external stresses such as pests and adverse climate conditions.

In some cases, the problem of fruit drop can be very serious, occurring immediately after fruit set, and it can worsen as the stages of fruit development progress.

The greater issue is that dropped fruits are usually badly damaged, either from pests or from having fallen a great height prematurely.

So, even if they are picked, they tend to have a very low value compared with those picked from the tree at the right time of ripening.

This significantly impacts the cultivator’s potential to reap profits from his produce.

The losses resulting from fruit drop are a pain point that most growers are seeking to overcome healthily and sustainably.

This is where the gifts of advanced biotech can effectively help reshape agriculture-driven and nip the issue in the bud, so to speak.

Magic Gro Plus utilizes microbiome technology researched and developed specifically for commercial agriculture.

The power of this product lies in the fact that it isn’t just a few strains of bacteria introduced to the crop, but a holistic approach that considers the entire microbial community.

Furthermore, the product is designed to help crops adapt to diverse climatic and soil conditions.

The advanced biotechnology that forms the basis for the development of Magic Gro Plus builds on biosensors and bioactivators – i.e., technology that senses micro-nutrient deficiency and enhances the transportation of micro-nutrients to the required areas.

It also helps improve nutrient and water uptake, thereby fighting mineral deficiencies and strengthening the plant’s defense systems against climatic stress and pest infestation.

Magic Gro Plus could very well be the answer to most key causes of fruit drop.

The Link Between the Rhizosphere, Microbes, and Plant Health

The rhizosphere is a narrow region of soil that is in close contact with the root area of any plant.

Root secretions and associated soil microorganisms directly influence it in the area.

Essentially, it contains several types of bacteria and other microorganisms that play a role in plant health by feeding on dead and discarded plant cells (through a process known as rhizodeposition), as well as proteins and sugars released by the roots.

By nature and the sheer virtue of the activity it involves, it is a highly dynamic area and environment where plants, soil, microorganisms, nutrients, and water interact and impact one another.

Plants maintain a complex interaction with their rhizospheric organisms.

This relationship is crucial for the assimilation of nutrients, healthy development, and the building of essential defense mechanisms from disease and decay.

Root microbes and microorganisms and their associations are, therefore, responsible for the increase in nutrient uptake by plants, especially in nutrient-poor environments.

Additionally, microbes also positively impact seed germination by softening the hard covering.

Microbial biosensors are equipped with biosensors that enhance natural processes by detecting micronutrient deficiencies in the plant system.

They are essentially biological receptors that engage a feedback mechanism using select biochemical pathways to achieve desired biochemical changes.

They play a role in stimulating bioactivators to transport micronutrients, such as minerals, enzymes, amino acids, growth hormones, etc., from the local environment into the plant system.

Some key features of Magic Gro Plus are:

  1. A high concentration of beneficial soil microbes that are natural and safe. These microbes enhance soil biology and reduce the chances of plant disease.
  2. The principle of Biosensors and Bioactivators. Biosensors sense micronutrient deficiencies in the plant system and activate the Bioactivators, which transport the micronutrients from the local environment into the plant system.
  3. Natural and safe, thereby reducing the dependence on chemical applications
  4. Increases the buffering properties of soil by increasing the humus level
  5. Has inherent bacteria that are capable of converting insoluble organic matter to soluble forms, thereby enhancing their absorption into the plant system
  6. It is loaded with microbes that can produce compounds with the capacity to repel harmful bacteria
  7. Has product-binding gums that enable the soil to clump, which is crucial for increasing its weight and improving water retention within the soil.
  8. Microbes also play a crucial role in seed germination by softening the hard seed coat and thereby enabling faster seed germination.

Some proven USPs of Magic Gro Plus include:

  1. Improved fruiting and flowering rates: since cultivators have a handle on managing potential threats, this inevitably leads to a greater yield
  2. Decrease in fruit drops: With the major causes of fruit drops, such as nutrient deficiency, vulnerability to climate stressors, and inadequate moisture management, being addressed more effectively through biosensors and bioactivators, there is a significant reduction in fruit drops.
  3. Improved productivity: greater yield from the same piece of land always results in improved productivity rates for cultivators
  4. Protection from environmental stress and diseases: With nutrient levels in check, as well as the ability to sense deficiencies that could potentially weaken them, crops now have a significantly greater capacity to be protected from environmental stresses and diseases.
  5. Faster yield, crop-friendly: Without a significant increase in labor or any other habits and practices that still lead to a greater crop yield, we achieve a faster yield.
  6. Improves immunity: With nutrient deficiencies kept at bay and pests and other potential diseases also pre-emptively fought away, the crop builds greater immunity over time, leading to a better life, performance, and productivity

Also Read – Building a more sustainable avocado farm with Magic Gro Plus.

What Can We Learn From COVID-19 Pandemic To Prevent Plant Disease Epidemics 

The notorious COVID-19 disease has claimed millions of lives in the past few months.

Besides posing as one of the greatest threats to human health, the pandemic has caused a widespread socioeconomic crisis.

This has led to urgent and decisive action from governments, health authorities, scientists, and medical experts from all countries to prevent the disease from spreading and protect precious human lives.

While much is being done to prevent and mitigate the effects of COVID-19, an emerging threat is also emerging in the form of plant epidemics.

Since food is life, there is an urgent need to prevent the destruction of healthy and nutritious food staples, fodder grasses for animals, and beneficial medicinal plants due to plant diseases.

Unless swift action is taken to prevent plant diseases, the world may witness deaths caused by food scarcity on a scale comparable to those caused by COVID-19.

At the outset, it may be challenging to view both the COVID-19 pandemic and plant endemics on the same wavelength.

However, this blog aims to bring into focus some important lessons that can be learned from the COVID-19 pandemic.

Furthermore, we will examine how adopting sustainable biological and eco-friendly solutions can contribute to preventing plant diseases and mitigating the impending food crisis in various parts of the world.

Throughout history, plant disease epidemics caused by plant pathogens have led to food crises, resulting in starvation, displacement, and death.

The rust diseases of cereals in ancient Rome, dating back to around 700 B.C., are one of the oldest known examples.

The Irish Potato Famine of the 1840s was caused by Phytophthora infestans, resulting in approximately 1.5 million deaths due to famine or disease.

In India, the Bengal Famine of 1943 was partly caused by brown spot disease in rice, which is caused by Bipolaris oryzae.

Similar to how the COVID-19 pandemic has spread throughout the world, harmful microorganisms, including viruses, bacteria, and fungi that induce plant diseases, as well as insects and nematodes, can colonize, develop, and devastate crops across the entire region.

According to an estimate, between 10% and 40% of food production is destroyed due to pathogens and pests.

Different plant species face varying levels of threat depending on characteristics such as nutritional levels, genetic profile, stress factors, age, and genetic resistance to diseases.

This is the reason why plant disease prevention has garnered significant attention.

The plant pathogens or viruses are spread in two ways.

Firstly, from the clonal propagation of plant material, it grows by using clones of the original plant, rather than true seeds.

The pathogens are usually present in this material, leading to plant diseases.

The second way is by spread mediated by an insect vector.

Epidemiologists believe that certain weather conditions also facilitate the action of pathogens in susceptible host plants.

As far as pests are concerned, they can threaten an entire country or even an entire continent.

One example is the fall armyworm, which was first found in West Africa in 2016. One year later, it spread and reached South Africa.

Therefore, just as the spread of COVID-19 can be controlled by preventing it through staying home, it is necessary to stop plant pathogens by implementing measures to prevent infections in host plants.

This makes optimal agronomic practices and monitoring of the plant ecosystem of critical importance.

Potato crop with infected, drying leaves due to plant pathogens, highlighting the risks of plant disease epidemics in agriculture.

What Can Be Done for Plant Disease Prevention?

Firstly, it is essential to acknowledge the threat of catastrophic proportions that plant disease epidemics can pose.

Secondly, active and regular surveillance of the plant infestation must be carried out along with tracking the spread, removal of affected plants, and treatment of the nearby plant varieties.

Plant disease prevention is the most effective mechanism for controlling plant disease epidemics.

Plants cannot fight against the disease, as it reduces the quantity of chemicals required to stop its spread when used as curative measures.

Therefore, the most efficient solution can be using products and solutions that can empower plants to fight against pathogens naturally, or in other words, develop a strong immunity to combat disease.

The use of biological seed treatment and biostimulants in agriculture can be helpful in plant disease prevention efforts.

The adverse use of chemicals has weakened natural immunity, rendering it less effective against pathogens.

Organica Biotech’s wide range of products, including MagicGro Super, the natural herbal repellent SUCKOON, and MagicGro Nemacare, are effective and sustainable farming solutions for preventing plant diseases and epidemics, while further boosting productivity.

MagicGro Super, with a consortium of beneficial microbes, enhances natural immunity in plants and reduces the dependence on chemical inputs.

This also reduces the rate of infection by pathogens.

SUCKOON boosts plant strength by strengthening plant cell walls, making it difficult for pests to penetrate and preventing infestations.

MagicGro Nemacare is an advanced biological solution that effectively controls nematode populations in soil and boosts immunity.

With such a wide variety of preventive measures, a reduction in disease prevalence is certain.

The move towards sustainable measures in plant disease prevention can only mean good things for the planet.

Also read:

How Do Biostimulants Reduce the Requirement of Fertilizers in Agriculture

Today, fertilizers are considered an integral part of modern agriculture.

One of the reasons fertilizers are widely used is that they provide essential nutrients for enhanced plant growth and improved crop productivity.

However, the overuse of fertilizers has had a profound impact on the environment in numerous ways.

It also threatens to impact human health.

The use of chemical fertilizers has adverse effects on the water bodies.

The nutrients are washed off from farms and reach nearby rivers, lakes, and ponds, causing eutrophication.

This phenomenon leads to oxygen depletion, causing fish to die and ultimately resulting in the death of other aquatic organisms.

Moreover, it results in the development of dead zones, which are oxygen-free areas where no living organism can survive.

For example, the Gulf of Mexico, which spans 20,140 square kilometers, and the Baltic Sea, which covers an area of 60,000 square kilometers, are considered dead zones due to water pollution caused by fertilizers.

The use of chemical fertilizers can also pollute sources of drinking water.

It can be harmful to human health and may cause different types of diseases.

Besides, chemical fertilizers have low use efficiency.

It means that plants absorb only a portion of the nutrients from fertilizers.

For example, important nutrients like Phosphorus, after being added to the soil, precipitate and thus remain less available for plants.

Additionally, Nitrogen, another essential nutrient, can become depleted due to factors such as nitrate leaching.

Sustainable agriculture, which promotes eco-friendly and safe methods to enhance crop yield and plant growth, has gained significance in recent times.

Due to the increasing population and consequent food demand, it is now crucial to utilize agricultural solutions that enhance productivity without compromising the environment or human health.

Recent research and studies have demonstrated that biostimulants are a viable option for promoting plant growth without adverse side effects and reducing dependency on fertilizers.

Role of Biostimulants

Biostimulants can be defined as a mixture of substances or microorganisms that help in improving crop conditions without causing any negative impact on the environment.

Various studies have shown that biostimulants can be used as an additive to fertilizers, thereby reducing the need for fertilizer.

It can also help in nutrient uptake, plant growth, and tolerance against abiotic stress.

There are various application methods for biostimulants.

It can be used in various forms, including soil preparations such as powder or granules, or as a liquid foliar product.

It is important to note that biostimulants are not fertilizers as they do not provide nutrients to plants.

On the other hand, it supports metabolic processes in plants that help in the uptake of essential nutrients.

Studies on the effect of biostimulants in agriculture have shown that they can positively increase yields.

It means the quality of vegetables and fruit is enhanced.

Moreover, it can be regarded as the amount of fruit/vegetables grown from one plant or plot.

Additionally, biostimulants have a positive impact on the growth and size of various plant varieties, as well as their physical characteristics, chemical composition, and antioxidant properties.

Thus, the use of biostimulants on a commercial scale can reduce the dependence on fertilizers.

Consequently, it can reduce water pollution and overcome the limitations of using chemical fertilizers.

Microbial biostimulants, such as Plant Growth Promoting Rhizobacteria (PGPR), are known as highly capable preparations that enhance crop productivity, nutrient uptake, and resistance to abiotic stresses and pests.

agruculture-min

Plant growth-promoting bacteria also serve as biofertilizers, regulating plant growth, inducing systemic disease resistance, enhancing plant growth, maintaining soil fertility, and providing resistance to water stress and salinity stress.

Organic Biotech is a leading company offering innovative solutions that promote sustainable agriculture.

The Magic Gro range of products contains highly beneficial microbes that can adapt to different geo-climatic conditions and maintain a healthy ecological balance in the soil.

It enhances soil quality and boosts crop vigour, resulting in increased yields.

Additionally, biostimulants also increase immunity against biotic and abiotic stress, thereby boosting overall crop productivity.

Magic Gro’s range of products is well known for enhancing plant nutrient uptake and assimilation.

For sustainable farming and to meet future food demand, the use of microbial biostimulants, such as Magic Gro products, will help increase crop productivity and reduce the use of chemical fertilizers.

Also read:

Anaerobic Treatment of Wastewater and Different Reactor Types

Wastewater, which contains a large number of toxic chemicals, is treated well before being released into the environment to prevent harm to humans, animals, and plants.

The anaerobic process is one of the most effective and efficient biological methods for treating wastewater, where microorganisms break down organic matter.

The process is undertaken in the absence of oxygen.

With increasing industrialization and urbanization, a large amount of effluents is generated, which contains high organic content.

Anaerobic treatment is considered the most suitable method for treating organic matter.

The simple and inexpensive technology makes it popular among Effluent Treatment Plants – ETPs.

This process treats a wide range of industrial waste, biowaste, animal manure, sewage, waste from agricultural, dairy, pulp, food, textile, and municipal solid waste sources.

One of the major highlights of anaerobic wastewater treatment is that it consumes less energy and produces biogas as a byproduct.

Most, if not all, anaerobic treatment processes involve some form of bioreactor, which helps maintain an oxygen-free environment and assists in anaerobic digestion.

Generally, the bioreactor contains sludge, which contains a community of anaerobic bacteria that act upon wastewater as it enters the bioreactor.

The first step involves the hydrolysis of complex organic and biodegradable material to basic monomers, organic acids, and hydrogen.

Secondly, the acetogenesis step follows, where volatile organic compounds are converted into acetate and hydrogen.

Finally, methanogenesis occurs when methanogens produce methane and carbon dioxide.

Necessary environmental conditions are crucial for the anaerobic degradation of organic matter.

Depending upon the applications and requirements, a variety of bioreactor configurations are designed and developed for the anaerobic treatment of wastewater.

Some of the common types of anaerobic wastewater treatment reactors are elucidated below: –

1. Anaerobic contact process

A set of reactors is placed in series with the recycling process.

The recycled material is taken to the bottom of the first reactor, which is an up-flow reactor.

The material leaving is a mixture of solid, liquid, and gas; therefore, a vacuum degasifier is used to separate the gas.

2. Anaerobic filter – AF

These reactors consist of a tank fitted with a fixed filer media, which ranges from plastics, gravels, bricks, or other materials.

The anaerobic microorganisms establish themselves on the filter media, generating what is known as a biofilm.

In the AF reactor, wastewater is made to pass through the filter, exposing it to microbes.

It has a high capability for biosolid retention and is widely used in the food processing, pharmaceutical, and chemical industries.

3. Fluidized and expanded bed reactors

It comprises small media, such as sand or granular activated carbon.

The bacteria are attached to it.

Large biomass can be developed due to mass transfer and high flow rate around the particles.

Due to their small size, fluidized bed reactors are highly efficient.

One of the most utilized bioreactor types is the Upflow Anaerobic Sludge Blanket Digestion (UASBD).

4. UASB – Upflow anaerobic sludge blanket digestion

It is one of the most utilized bioreactor types in anaerobic wastewater treatment.

UASB is a methane-producing anaerobic bioreactor that has undergone significant development and gained widespread acceptance.

The wide range of applications for municipal wastewater treatment and industrial wastewater treatment, particularly in the food, chemical, and pulp industries, has made it a popular choice.

Anaerobic microorganisms process it and form a blanket of granular sludge.

The treatment process consists of a sludge bed and a sludge blanket.

The wastewater flows upwards through the blanket and is broken down by the anaerobic microorganisms.

The upward flow, combined with the settling action of gravity, suspends the blanket with the aid of flocculants.

The sludge bed consists of a high concentration of biomass, through which substrates pass.

The sludge blanket contains biomass with lower density, through which the remaining substrate passes.

The blanketing of the sludge enables a dual solid and hydraulic (liquid) retention time in the digesters.

Solids requiring a high degree of digestion can remain in the reactors for periods of up to 90 days.

Sugars dissolved in the liquid waste stream can be converted into a gas quickly in the liquid phase, which can exit the system within a day.

The technology requires constant monitoring when in use to ensure that the sludge blanket is maintained and not washed away.

Biogas with a high concentration of methane is produced as a by-product, and this may be captured and used as an energy source to generate electricity and cover its running power.

It features a three-phase separator called GLSS – Gas, Liquid, Solid Separator- which helps the reactor separate solid, liquid, and gas under highly turbulent conditions.

The multiple gas hoods allow the separation of biogas.

As mentioned earlier, for effective use, microorganisms are required to convert organic material into biogas through the processes of hydrolysis and acidification.

Organica Biotech’s wastewater treatment solutions comprise a diverse & well-balanced ecosystem of bacteria for wastewater treatment.

The natural and effective solution supports biogas production, and its output can also be significantly enhanced.

It is powerful against odour and maximizes COD/BOD reduction.

It is effective in various industries, including chemical, pharmaceutical, petrochemical, food processing, paper and pulp, breweries, milk, dairy & cheese processing, as well as fisheries & meat processing units, among others.

Also read

Are You Disinfecting Your Way To Bad Health?

In 2014, the World Health Organisation (WHO) published a report on antimicrobial resistance, which stated, “This serious threat is no longer a prediction for the future; it is happening right now in every region of the world.”

As if that weren’t alarming enough, in 2017, the report was followed up with a stringent warning that superbugs and the universe of drug-resistant bacteria/pathogens are presently one of the biggest threats to human health across the world.

On the one hand, drug resistance in bacteria is increasing, while on the other, the speed at which newer antibiotics are being developed and introduced is rapidly slowing down.

It is now almost commonplace to hear about the connection between antibiotic resistance and the rise of the superbug, with the rapidly increasing dependence on biocides.

What Is a Biocide?

Biocide is a bacteria-killing substance and is now a generic term for a range of cleaning and disinfecting agents, including surface cleaners, antiseptics, preservatives, and the like.

It is interesting to note, however, that antibiotics are not considered a biocide, despite their serving the exact purpose that biocides do, in the purest sense.

Curiously, though, antibiotics are slotted entirely separately, as a category unto themselves.

The Concern With Biocides

One of the most crucial issues that come up when studying the link between disinfectants and the rise of superbugs is the speculation that widespread usage of biocides is responsible for their evolution and propagation.

In recent times, there has been a growing trend of biocides being introduced within the home.

They come packaged in products that we’re told are good for us, products that will help make our homes cleaner, surfaces around the house and office bacteria-free, our vegetables bug-free, and every nook and corner of our living spaces squeaky clean.

The inclusion of biocides in everyday items insidiously promotes a culture of hyper-sanitization that builds on the inaccurate premise that our homes are heavily contaminated and need to be 100% disinfected.

Enough research in recent times has shown that it is these very chemical cleaning solutions that are severely destroying not just our health, but also our ecosystems.

It is alarming, and not to mention hugely counterintuitive, to arrive at a potential conclusion that the very products that are promoted as safe and in fact essential for cleanliness and good health may actually be causing us more harm.

But here we are. All of these developments raise the question of whether we’re all collectively disinfecting our way to bad health.

Today, these biocide-ridden products are present in more places than you might imagine, and in all likelihood have convinced you that they’re good for you.

Triclosan, for example, is no longer limited to being used in surface cleaners.

It is incorporated within the surface of chopping boards, knife handles, as well as boots for indoor use, under the pretext of cleaning up all microbial contamination even before it enters your home.

These chemicals are also often present in other products, such as paint, varnish, and bathroom fittings, such as soap dispensers and toilet seats that come with the proud claim of being microbe-free or disinfected.

Priority Pathogens

The 2017 WHO report on the matter included a first-of-its-kind list of antibiotic-resistant priority pathogens and 12 families of bacteria that are believed to pose the highest threat to human health today.

The rise of the superbug stems from antibiotic resistance, which, though mostly naturally occurring, is also accelerated by the misuse of antibiotics, disinfectants, and biocides.

Antibiotic resistance threatens not just sanitation and health but is also linked to food security and, therefore, is a potential global development challenge.

Today, a wide range of infections, including salmonellosis, pneumonia, gonorrhea, and tuberculosis, are becoming more and more resistant to antibiotics, rendering the antidotes less and less effective over time.

For developing nations like ours, rising antibiotic resistance inevitably means longer hospital stays, higher chances of an outbreak of epidemics, rising medical costs, and a potentially unhealthy mortality rate.

These pathogens, when present in low levels, as they are in home cleaning products as well as household disinfectants, have the highest potential to make some of these bacteria grow in strength and build their resistance to antibiotics.

A growing resistance to medication that would otherwise deal with these bacteria leads to the inevitable creation of superbugs.

The fact is, chemical disinfectants, ostensibly meant to help clean up, inadvertently set off the cycle of disruption in the healthy, natural balance of bacteria – some of which are good for you – within your home or office, on your body as well as within your body, creating an environment ripe for bacteria to multiply, flourish and grow from strength to strength.

Safe Cleaning

New research and evidence are increasingly pointing to raising children in homes that have an environment sufficiently peppered with healthy, essential microbes and using other natural remedies to resolve their issues.

This will go a long way in ensuring that their bodies are equipped with bacteria that are beneficial to gut health, they can resist allergies, and build immunity against superbugs.

Essentially, an environment that is too clean may actually prove detrimental to the health of your children and families.

A disruption in the natural balance of microbial systems in the gut, as caused by exposure to chemicals in household cleaners, has already been linked to childhood obesity.

A theory known as the Hygiene Hypothesis lends explanations as to why we have seen such a global spike in never-before-seen allergies and immune-system-related disorders.

The last few decades have seen these conditions to have double, triple, and in some cases quadruple too.

That’s not all, with traces of harsh chemicals like triclosan and triclocarban found in human blood, mucus, and even breast milk, research is continuously proving that hyper-disinfected environments are more harmful to health than likely to promote good health.

There is growing evidence to show this link between antimicrobial resistance and the uninformed use of biocidal chemical cleaners.

More and more, it seems like the battle against entire strains of growing antibiotic‐resistant bacteria morphing into superbugs begins with an attempt to ensure safe cleaning done right.

Also Read – Your Home Is Not A Hospital Or Cleanroom. Here’s What You Should Know

Increasing Ratoon Cotton Productivity With Advanced Biotechnology

Anand Patil was at his wits’ end. Anand, a cotton farmer in Jalgaon, was experiencing problems with the yield of his ratoon cotton crop.

Square drop just before boll formation resulted in fewer bolls per plant. Fewer bolls meant lower yield and lower returns.

Frustrated, Anand reached out to us for a solution.

Nutrient deprivation, climate variations, or pathogen infestation primarily cause premature boll drops.

During the boll development stage, there is excessive demand for carbohydrates and nutrients, with a major portion diverted to growing seeds.

Leaves and roots receive a minimal amount of nutrients, leaving roots weaker and decreasing the potential for nutrient uptake from the soil.

Cotton grows best in cold weather, with ideal temperatures ranging from 15 °C to 25 °C.

Minor temperature fluctuations, especially those in higher ranges, are detrimental to bolls.

Cotton plants are often prey to nematodes, parasites, and fungi. Fungal infection causes root and boll rot.

Our experts visited Anand at his farm and thoroughly analysed the problem.

Our solution is the application of Magic-Gro DripSol.

We recommended he use 500 grams of Magic-Gro DripSol per acre immediately after the first watering, followed by a second application 30 days later of 250 grams per acre.

Magic-Gro technology is the fruit of over 15 years of rigorous research.

It is a consortium of non-genetically engineered, beneficial, and robust microbes that are non-pathogenic, enhance soil fertility, and boost plant immunity.

Strains used in Magic-Gro DripSol are scientifically chosen for the best results of the products.

The formulation is in powder form and free from any toxic chemicals.

Anand was thrilled with the results. His productivity was higher than he had expected after applying Magic-Gro DripSol.

Cotton bolls were healthier and disease-free due to increased nutrient uptake.

Leaves weren’t discoloured, and his dependence on pesticides and fertilizers was significantly reduced.

His yield was 90-100 squares per plant, in comparison to plants in his uncle’s farms, where only 20-30 squares developed per (ratoon cotton) plant.

His yield had increased by almost 80 percent!

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