Sustainable Farming: How Futuristic Farms Will Supply The World’s Food Demand 

The world population is increasing at a rapid rate.

According to the latest estimates, the global population is expected to reach 9 billion by 2050.

This, in turn, necessitates that food production should increase by 60-70 percent to meet the food and dietary needs of people.

To overcome the overarching challenges of food security, crop productivity, and nutrition, the conventional farming system has put immense pressure on land, water, and natural resources, harming the environment in numerous ways.

Therefore, futuristic farms must adopt sustainable farming practices to enhance food production while minimizing environmental impact and preserving natural resources for future generations.

Global Farming Challenges

  1. Extensive use of land for farming activities and traditional farming methods has degraded our soils and reduced crop productivity. It has prompted farmers to seek fertile lands, leading to increased deforestation. Greater agricultural output using lesser land and regenerative soil fertilization strategies is the need of the hour.
  2. The heavy use of chemical fertilizers and pesticides to improve crop yields poses a significant risk, as it can impact both human health and the environment. With heavy irrigation and rainfall, these harsh and hazardous chemicals are washed down into rivers and lakes. They do no good to the soils they were intended for and end up heavily polluting our water bodies.
  3. Moreover, extensive use of synthetic chemicals has reduced the biological fertility of the soil. It has further disrupted the natural microbial community, which is beneficial for soil replenishment and nourishment, essential for plant growth, and crucial in its defense against plant diseases and pest attacks. There is an urgent need to promote the use of organic and natural fertilizers to maximize crop productivity without harming the environment.
  4. Water scarcity is another challenge faced by countries worldwide. Certain crops in India, such as sugarcane and rice, are considered water-intensive. They require a substantial amount of freshwater during the growing phase and rely on rainfall. Farming practices that focus on water conservation are thus necessary, unlike traditional farming methods, which use water extensively.

Farming Challenges in India

Apart from the farming issues discussed above, India has its own unique set of challenges.

The population of India is increasing at a staggering rate.

Changing consumption patterns and urbanization have put pressure on the farming industry.

Despite having 70% of its workforce in the farming sector, productivity remains among the lowest in the world.

The erratic weather patterns, soil degradation, and pesticide residue build-up have caused havoc in the farming sector.

Additionally, water scarcity and drought resulting from climate change have led to crop failures in India.

The lack of widespread adoption of modern farming practices also remains a concern.

Therefore, sustainable farming, which involves the conservation of soil and water, is the need of the hour.

A paradigm shift is essential from relying solely on conservative farming processes to adopting more sustainable farming practices.

It will help in attaining future food demand goals.

Traditional techniques can be combined with modern innovations and farming solutions to close the demand-supply gap in food.

Sustainable Farming

Sustainable agricultural practices aim to produce sufficient food while protecting the environment and conserving natural resources.

It is a holistic farming approach that helps in improving soil quality and crop yield.

It also helps conserve water and increase the economic viability of the farming system.

Different modern sustainable farming techniques can help increase food supply and also accelerate farm income.

Hydroponics is one such method of farming where plants are grown without using soil.

Hydroponic nutrients in water act as the medium through which all essential nutrients are supplied to the plant.

It has been observed that root growth is much better with this method.

Similarly, instead of relying solely on chemical fertilizers, insecticides, and pesticides, plant growth promoters with beneficial microbes can naturally create a healthy ecological balance, helping to optimize the uptake of these nutrients from within the soil.

This not only lowers the need for chemicals but also helps maximize the efficiency of the inputs used.

Organica Biotech is one of the leading companies with a wide range of agriculture solutions for a sustainable future.

MagicGro’s range of products includes plant growth promoters, microbial biostimulants, and soil conditioners.

Advanced microbiome replenishment technology powers these products.

They are natural, safe, and eco-friendly solutions that boost soil quality.

It also increases farming productivity, prevents crop diseases, and supports farming even in adverse and erratic weather conditions.

Using MagicGro’s range of farming products will pave the way for India and the world to increase food production.

Future food demand must be met without compromising the environment and safeguarding natural resources.

This is possible with Magicgro!

How Organica’s Magic Gro Plus Can Boost Vanilla Plantation

Aromatic, full of flavour, and a favourite for many, Vanilla is one of the most loved and popular flavours in the world.

It is well known for flavouring ice creams and soft drinks.

Along with food types like coffee, chocolate chip cookies, custard, and yogurt, it is also found in cosmetics, scents, soaps, and a wide range of perfumes.

Vanilla is ubiquitous and an indispensable part of our lives.

Originally native to Mexico, the top countries known for Vanilla production are Madagascar, Indonesia, Mexico, China, and islands in the West Indies.

It was only in 1835 that India first savored the taste of vanilla.

Today, it is cultivated in Wayanad, Kerala, and the Nilgiris of Tamil Nadu.

Demand for Vanilla has grown exponentially in recent times.

It is estimated that the world production of vanilla beans is approximately 3000 tonnes per year.

Out of which, Madagascar provides 50% of the world’s supply. Therefore, it is known as the hub of vanilla production.

One of the interesting facts about vanilla plantations is that they are typically located only 10 to 20 degrees north or south of the equator.

Also, it is the second most expensive spice in the world after Saffron.

Planting and processing vanilla involves a lot of risks and, therefore, a high price.

Vanilla beans are produced in the orchid by the name Vanilla planifolia, the only orchid that produces fruit.

Cultivation of vanilla beans is not an easy task.

It is a climbing plant that can reach up to 100 feet. Therefore, the aerial roots require a host plant to which they can attach.

It takes approximately 4 to 5 years for the plant to mature. It requires a specific tropical climate, characterized by warm and moist conditions.

A sufficient rainfall followed by a dry spell is necessary.

The penetration of sunlight to ground level should be sufficient to leave a rich humus layer and high organic matter content in the soil, resulting in better yields.

Several factors contribute to the success of vanilla plantations.

Pollination is possible only for a day when the flower remains open. In case pollination doesn’t occur, the flower dies.

Therefore, hand pollination is usually followed. When pollinated, the fruit develops into a long pod filled with tiny black seeds.

During the harvest time, a multi-staged curing process of blanching, sweating, and gradual drying in the sun is followed.

This leaves the black pods with seeds, which are packed up for use. It is a long and labour-intensive process.

Challenges Faced by Vanilla Growers

Since vanilla belongs to the orchid family, high use of water is necessary.

Sometimes, it can lead to over-watering, which causes harm to the growth of vanilla.

Several kinds of pests are found to affect vanilla plantations. This includes vanilla bugs, caterpillars, white grubs, and beetles.

They feed on roots, shoots, leaves, and suck the sap from the buds, leading to damage and leaving them withered.

Fungal diseases are generally found in Vanilla, causing root rot, shoot tip rot, and stem and bean rot.

Poor nutrient availability, water stagnation, and excessive moisture are the reasons for this.

Additionally, due to the excessive use of chemical inputs, plant life is severely affected.

While there is a steady increase in demand for vanilla worldwide, sufficient solutions to tackle the menace of pests and diseases remain a concern.

There are natural and eco-friendly solutions that can help boost the production capability of vanilla and improve its quality.

Organica Biotech’s Magic Gro Plus is an easy-to-use plant growth vitaliser.

It enhances plant-microbe interaction and helps in the following ways:-

  • It acts as a flowering stimulant, which improves nutrient uptake and plant productivity.
  • It is highly capable of improving soil structure, thereby enhancing water retention capacity and conserving water in the process.
  • Enhances plant immunity by providing resistance to pests and diseases.

Many farming experts have utilized Magic Gro Plus to enhance the quality and health of their plants.

You, too, can use it to improve and increase vanilla production.

See AlsoImpact of Climate Change on Agriculture

Plant Growth-Promoting Bacteria: Mechanisms and Applications

With the increasing human population, global food production at the current rate would be insufficient to meet the dietary needs of all people in the near future.

It is, therefore, crucial to enhance agricultural productivity over the next few decades.

Also, a sustainable and environmentally friendly approach is necessary to prevent the exploitation of natural resources.

Plant Growth-Promoting Bacteria, or PGPB, can help achieve the dual goal of crop productivity and sustainable agriculture.

Plant Growth Promoting Bacteria

It is well known today that soil is replete with different forms of microorganisms.

Of these, bacteria are the most common.

According to scientific data, soil hosts millions of bacteria. Soil conditions, including temperature, moisture, salinity, and the types of plants present in the soil, influence it.

It is essential to note that bacteria are highly concentrated around the plant’s roots.

This narrow region in the soil is known as the rhizosphere.

The plant growth-promoting bacteria belong to the beneficial and heterogeneous group of microorganisms in the rhizosphere that are capable of stimulating plant growth.

Moreover, it protects against abiotic stresses and diseases by controlling or inhibiting the activity of pathogens.

Furthermore, it also improves soil structure.

Depending on the plant species and strains, the influence of bacteria on plant growth and its mechanism differ.

The mechanisms are broadly classified as Direct and Indirect.

The indirect mechanism involves the activation of defense mechanisms against diseases, also known as induced systemic resistance (ISR).

Direct Mechanism

A direct mechanism includes plant growth by increasing the nutrient supply and hormones to the plant.

  • Biofertilizer – Biofertilizer consists of microorganisms that are applied to seeds, plant surfaces, and soil to enhance the supply of nutrients and promote plant growth. Different microorganism present in bio-fertilizer boosts soil fertility, the natural soil nutrient cycle, and soil organic matter availability. PGPB is one of the most widely used beneficial bacteria today.
  • Nitrogen fixation – Nitrogen fixation is the process by which atmospheric nitrogen is converted into a usable form that changes into ammonia. It is the basic building block of plants. Microorganisms in nature carry out biological nitrogen fixation. A wide variety of plant growth-promoting bacterial species helps promote plant growth and yield by enhancing nitrogen uptake in plants.
  • Phosphate Solubilization – Phosphorus is an essential nutrient for optimal plant growth. However, phosphorus is available mostly in insoluble forms. The PGPB facilitates the solubilization of inorganic phosphorus and the mineralization of organic phosphorus. As phosphate fertilizer is too expensive for farmers, using plant growth-promoting bacteria as inoculum for phosphate uptake is advantageous. Iron is another nutrient that is scarce in soil. PGPB can produce compounds known as siderophores, which contain ferric iron. Roots can utilize this for plant growth.
  • Phytohormones – Phytohormones play a major role in the natural growth of plants. Different processes, such as leaf formation, flower development, and fruit ripening, are regulated and determined by it. Due to various environmental factors, plants are subjected to stress. This is where PGPB can alter phytohormone levels and help in its response to stress.

Indirect Mechanism

Induced Systemic Resistance – Induced systemic resistance is a phenomenon or form of defense mechanism in plants that activates when a pathogenic agent infects the plant.

It helps in controlling diseases. The inducing bacteria trigger a reaction in the roots, which acts as a signal that reaches all parts of the plant, inducing systemic resistance.

Today, agriculture relies heavily on chemical inputs to boost plant growth and protect crops.

However, the overuse of chemicals can lead to unexpected environmental problems.

Therefore, there is an urgent need to use plant growth-promoting solutions for sustainable agriculture without any environmental issues.

Organica Biotech is a leading company that offers a wide range of solutions for sustainable agriculture.

Its MagicGro range of products includes MagicGro DripSolMagicGro NemacareMagicGro PSB, and other products that boost crop development and improve plant immunity and vigor sustainably.

Also read:

How Farmers Can Combat Erratic Weather Conditions Using Magic Gro Plus

Various studies worldwide have highlighted that climate change and weather variability have a detrimental impact on farming, food production, and food security on a global scale.

The indifference in intensity, frequency, and duration of weather extremes further influences crop production, growth, and crop yield.

Additionally, the subsequent effects are certainly complex, as they vary for different types of crops.

For example, undesired climates, such as excessively dry or excessively wet conditions, can affect crop yield.

Extreme weather can be defined as a weather event that goes beyond normal bounds.

In other words, weather events like rain become extreme, such as drought or flooding.

The same is true of the wind, which can become a storm, or heat into a heatwave, or snow into a blizzard.

It is a rare occurrence, and its impact on farming varies depending on the location.

The Intergovernmental Panel on Climate Change (IPCC) suggests that “rare” means in the bottom 10% or top 10% of severity for a given event type in a given location.

Global warming is considered one of the key phenomena contributing to climate change.

The Effects of Erratic Weather on Farming

The primary parameters at play include temperature, carbon dioxide, nutrient levels, plant nutrient uptake, soil moisture, and water availability.

Let’s see how these components of farming are affected:

  • Many times, extreme conditions like floods drown plants and seedlings at a time when the soil is most fertile for farming. Moreover, these weather extremes may manifest as a flood one year and return as a drought the next. The extreme nature of events makes it unpredictable, and farmers are unable to take proactive measures to protect their crops.

ark, ominous storm clouds gather over a green field and a curving road, representing the threat of unpredictable and extreme weather on agriculture.

  • A slight increase in temperature and additional carbon dioxide can enhance plant growth in certain locations and, in some instances, increase yield. However, at another location, a fall in temperature may lead to stunted growth and damage to the crop, as it creates an environment that is best suited for the growth of weeds, pests, and fungi. Additionally, in some cases, severe temperatures and heat lead to an increased transpiration process and water evaporation, thereby stressing the plants and causing damage.
  • It has been found that an increase in carbon dioxide percentage promotes plant growth, but at the same time, it reduces the nutritional value of important crops, such as wheat and rice. This also greatly affects human health when such food is consumed.

See Also: https://organicabiotech.com/coffee-plantation-how-plant-growth-promoter-can-boost-crop-yield/

In 2019, we have seen the drastic effects of climate change and erratic weather conditions creating havoc in different countries around the world.

It not only destroys farm yields but also directly affects a country’s economy.

Australia lost 8.4 million hectares of land due to the worst fires, extreme drought, and heat intensity caused by climate change.

India is another country where extreme heat, floods, sandstorms, and other natural disasters destroy agriculture, resulting in financial losses of millions of dollars every year.

Climate risk is a concept that illustrates how extreme weather events impact a country, considering both fatalities and economic losses.

It is measured annually by the Germanwatch Observatory via the Global Climate Risk Index.

It clearly illustrates the significant differences in how climate change affects various countries.

India is currently ranked 6th on the Climate Risk Index, as per 2025 data.

As most economies worldwide rely on agriculture, farmers must recognize erratic weather conditions as a significant challenge and adopt modern solutions to address them.

At the same time, government authorities should strive to transform the way farmers farm through more farm-friendly and environmentally focused policies.

  • Water conservation is one of the most effective methods for mitigating the effects of drought. This can include improved and more efficient irrigation practices and management, as well as biological solutions that enhance water retention in plants.
  • Organic farming methods – The increasing world population has led to massive industrialization of farming. The need for a sufficient food supply has stressed and damaged soil quality due to the use of pesticides, fertilizers, and herbicides. Opt for organic farming methods and sustainable techniques.
  • Government initiatives that support local farmers and implement stringent laws prohibiting the use of extensive farming practices and chemicals that can damage soil quality should be encouraged. This will prevent soil erosion during extreme weather conditions and protect both the harvest area and the crops.
  • Boost soil health – There is an urgent need to reverse the effects of industrialization and chemical pollution on soil. The natural microorganisms beneficial to plant growth should be promoted to enhance crop growth and yield.

Organica Biotech’s range of Magic Gro products is made of advanced formulations of beneficial microbes.

These are highly capable of adapting to different geo-climatic conditions, which in turn keeps the ecological balance in the soil healthy.

The salient features of Magic Gro include boosting immunity against biotic and abiotic stress, enhancing crop productivity, and improving crop yields.

It is, therefore, high time to utilize microbial biostimulants, as they are one of the most effective solutions for promoting sustainable farming and plant growth.

Rice Production in Malaysia & How Microbiome Technology Can Help in Boosting Output

Rice is among the top three crops produced in Malaysia, and it is the staple food for the majority of the population.

According to estimates, the average adult population consumes 2.5 plates of white rice per day.

In a year, the average consumption of rice by a Malaysian resident is approximately 82.3 kg.

Unsurprisingly, the rice industry is strategically important for the Malaysian economy, as it provides a livelihood to thousands of farmers.

Small-scale farmers in rural areas currently utilize approximately 7,00,000 hectares of land for rice production, with 3,00,500 hectares located on the Malaysian Peninsula and 3,90,000 hectares in the Borneo Islands.

The government has taken concrete steps to modernize the industry, boost productivity and efficiency, thereby helping to improve farmers’ incomes.

However, the growth rate of rice production has been low when compared to other rice-producing countries in Asia, such as Thailand and Bangladesh.

The national average yield is low, at just over 3 tons per hectare.

Moreover, the country’s rice production can only cover 60-65% of its domestic requirements.

The demand for the other 40% is thus satisfied by importing rice from other countries.

End consumers typically purchase rice at prices ranging from RM1.60 to RM2.50 per kilogram.

Farmers do not have a say on the pricing of rice in Malaysia as the government closely regulates retail prices.

Thus, there is a big difference between Gross and Net income among rice farmers.

As a result, farmers who practice rice farming experience a decline in profits.

But the government support and subsidies do help the farming community.

With an annual population growth rate of 2.7% and current trends in rice production and consumption, a significant gap is expected to emerge between domestic supply and demand by 2050.

Additionally, industrialization and urbanization have led to a limited supply of farmland.

In Malaysia, eight paddy granaries have been established with best-in-class infrastructure as part of the country’s strategic food security plan.

There are non-granary areas as well.

Generally, the average yield in granary areas is significantly higher than in non-granary areas due to multiple factors, including soil conditions, weather patterns, irrigation, pests, and diseases.

Additionally, there is a growing concern about climate change and its impact on agriculture in Malaysia.

Warmer temperatures, fluctuations in rainfall, and changes in precipitation percentage are predicted to make the agricultural system vulnerable in different parts of Malaysia.

According to a recent study, a 1% increase in temperature is found to lead to a 3.44% decrease in current paddy yield and a 0.03% decrease in paddy yield in the following season.

A 1% increase in rainfall will lead to a 0.12% decrease in the current paddy yield and a 0.21% decrease in paddy yield in the next season.

A further analysis revealed that insects, soil fertility loss, and the cost of inputs have become significant challenges over the last 5 years, as they reduce the potential yield.

Therefore, it is more crucial than ever to enhance rice production and ensure food security through the adoption of innovative solutions.

Additionally, sustainable farming methods are urgently needed to preserve the environment for future generations in Malaysia.

How Microbiome Technology Can Help Boost Rice Production

Microbiome technology harnesses the power of nature and nurtures soil microbiology.

With Organica Biotech’s pioneering microbiome enhancement technologies, farmers can increase Rice productivity ecologically and sustainably, which protects our precious natural resources for future generations.

Organica Biotech’s Magic Gro range of products features advanced formulations of microbes that can adapt to various geo-climatic conditions.

Partner with Organica to make a lasting impact on Rice’s growing journey today.

The Role of Soil Conditioning for Farming and Gardening Health in Myanmar

Located in Southeast Asia, Myanmar is characterized by its diverse climatic conditions, encompassing tropical, subtropical, and sub-temperate zones.

The summer, rainy, and winter seasons make it a place full of plant biodiversity, and consequently, it grows more than 60 kinds of crops.

Today, the major crops of economic significance include vegetables, chili, onions, garlic, potatoes, and fruits such as mangoes, bananas, and melons.

Horticulture crops, such as flowers, fruits, and vegetables, are highly dependent on climatic conditions.

Once, Myanmar was known as the “rice bowl of Asia,” as it was the largest exporter of rice in the region.

Since 2010, the production volume of rice has also decreased steadily.

Recent reports suggest that agricultural productivity as a whole is now below that of its regional counterparts and even by international standards.

Issues such as the non-availability of quality seeds, lack of irrigation, limited infrastructure, and policy-driven objectives by the authorities are a cause for concern.

Additionally, the degrading quality of soil, characterized by a lack of minerals, acidic content, and a lack of knowledge about efficient biological and natural agriculture solutions, is one of the major factors affecting farming and gardening in the country.

Since farming is the backbone of Myanmar’s economy, various methods can be employed to improve crop yields through soil conditioning.

Gardeners often face the problem of having imperfect soil for growing plants, which can impact their growth as well.

Several components of soil can be enhanced to make it more conducive to plant growth.

This includes minerals that influence nutrient availability, as well as organic matter such as decomposed grass, fallen leaves, and branches.

The content of air and water needs to be at least 25% for healthy soil.

For both gardening and farming, the availability of sunlight, proper spacing, and nutrient uptake are also essential.

The pH level of the soil is regularly checked to analyze if it is acidic or alkaline in nature.

Plants grow optimally when the pH range falls between 6.5 and 6.8.

Men Holding a Plant with Soil in Hand

Soil conditioning can also help farmers and gardeners in Myanmar improve their soil structure.

Soil is home to billions and billions of microorganisms. These natural microbes enhance the soil’s performance, resulting in better crop yields.

Over many decades, the physical, chemical, and biological properties of the soil have been compromised, thereby diminishing its quality.

The requirement for mass food production due to an increasing population has put undue stress on farmers to produce extensively.

To achieve this goal, the soil has been compromised by the use of chemical fertilizers and pesticides, which have disrupted its normal functioning.

To reverse the effects of using chemicals and restore the essential properties of soil, natural and effective microbes can be introduced into the soil.

One of the popular microorganisms that can be used is phototrophic bacteria.

It is powerful and degrades all kinds of organic waste and wastewater, which can be used as manure and converted into fertilizer.

It also creates a suitable environment for other microorganisms to co-exist.

Composting is a great way to supply natural manure to the soil, and microbes play a crucial role in the process.

Similarly, there are natural growth promoters that enhance the soil’s ability to uptake nutrients and help combat pests and diseases.

The beneficial microbes increase in population and help against the pathogens that can damage the plants.

The benefit of using microbes is that it is cost-effective with no requirement for special infrastructure.

It boosts soil quality, improves plant growth, and increases crop yield.

Organica Biotech’s Bioclean Compost is a microbial formulation that aids in the composting process.

MagicGro DripSol is an advanced biological solution that acts as an eco-friendly, safe, and effective plant growth promoter.

These biological and natural formulations can play key roles in improving the farming sector and gardening in Myanmar.

The Role of Biostimulants In Modern Agriculture

Today, modern agriculture plays a pivotal role in addressing some of humanity’s most pressing challenges.

First, the world population is increasing at an alarming rate, and it is predicted to reach approximately 9 billion people by 2050.

The agriculture sector is expected to meet the growing food demand and accomplish food security goals.

Secondly, fertilizers and pesticides played a crucial role in boosting agricultural production in the past many decades.

However, there has been a growing concern regarding the negative impact of using extensive chemicals.

It includes the reduction in soil quality, environmental pollution, and health hazards to humans.

Thus, sustainable and environmentally friendly farming practices, aided by innovative solutions, are now integral to modern agriculture.

Additionally, modern consumers are increasingly aware of how food is produced, and there is a growing demand for safe and healthy food that is free from potentially toxic elements.

This is indeed a challenge for millions of farmers, as crop failures and a decline in food productivity have become increasingly frequent due to climate change factors such as drought, flooding, a shortage of arable land, depleting water reserves, pollution, and waste.

Thus, the agricultural sector needs to adopt new solutions and approaches to enhance resource use efficiency, ensuring food production at the desired level.

Moreover, the latest solutions should also provide benefits to the farming community.

The use of biostimulants in modern agriculture is an environmentally friendly and very promising innovation.

It acts as a soil conditioner and is known to boost plant growth, crop productivity, and nutrient efficiency, while also improving flowering and tolerance to abiotic stress.

Biostimulants in Modern Agriculture

According to the European Biostimulant Industry Council (EBIC), biostimulants are defined as “products containing substances and/or microorganisms whose function, when applied to plants or the rhizosphere, is to stimulate natural processes to improve/benefit nutrient uptake, nutrient efficiency, abiotic stress tolerance, and crop quality.”

The market for biostimulants is expanding at an annual rate.

According to reports, the market for active ingredient biostimulants is estimated to reach approximately $5 billion by 2025.

Thousands of scientific studies have been published showing the benefits of using biostimulants in agriculture.

Plant biostimulants, such as Plant Growth Promoting Rhizobacteria (PGPR), are considered highly efficient and sustainable for enhancing agricultural productivity under both optimal and suboptimal conditions.

Nutrient Uptake and Efficiency

The use of microbial inoculants can help enhance the availability of nutrients, their uptake, and assimilation in the soil.

It maximizes nutrient use efficiency by acting on the root system architecture and increasing the solubility of macro- and micro-nutrients, resulting in higher nutrient uptake and efficiency.

The nutrient use efficiency of elements like Nitrogen and Phosphorus is essential for both environmental and economic reasons.

Thus, biostimulants exhibit properties similar to those of soil conditioners, promoting plant growth.

Abiotic Stress Tolerance

Due to global climate change, abiotic stresses such as drought, salinity, extreme temperature, and nutrient deficiency are affecting agricultural output and causing yield gaps.

According to the current climate change scenario, these factors will further reduce crop productivity, ultimately putting pressure on food security.

Microbial biostimulants are a promising biological mechanism to improve tolerance or resistance to unfavourable environments and soil conditions.

Produce Quality Improvement 

The application of microbial plant biostimulants is capable of modifying primary and secondary metabolism in plants.

Consequently, it facilitates the accumulation of antioxidant molecules, which are beneficial to humans.

According to studies, it enhances the nutritional and functional quality of various fruits and vegetables, while also improving shelf life.

Advantages of Using Biostimulants

Various advantages of biostimulants include:

  • Boost crop productivity and yield quality, thus increasing food production
  • Helps in fighting water stress and climatic factors
  • Improves soil quality
  • Causes no pollution and is environmentally friendly
  • Better quality of agricultural products, thus better for farmers
  • Safe, healthy, and nutritious food for the consumer
  • Activates natural defense mechanisms in plants, thus reducing dependence on pesticides

Thus, biostimulants, similar to soil conditioners, possess all the properties necessary to boost crop production, which can help meet the future food demand.

Moreover, it can help the farming community achieve food production targets, mitigate the effects of unfavourable weather conditions, and generate profits with higher-quality produce.

Additionally, the use of biostimulants can significantly reduce dependence on chemical fertilizers and pesticides, providing a sustainable alternative to intensive farming that does not cause environmental pollution.

Organica Biotech is a leading company offering advanced solutions for sustainable agriculture.

Microbiome enhancement technologies utilize both natural and biotechnological approaches to restore and nurture the soil microbiome.

Biostimulants act as soil conditioners, helping plants secure essential nutrients, ward off pests, and enhance crop productivity.

The MagicGro range of products features natural biostimulants that can be utilized in both organic and conventional farming practices.

It can help modern agriculture to meet food productivity goals without harming the environment or human health.

What Are The Best Practices Of Sustainable Agriculture?

Agriculture is one of the oldest occupations in the world, having been practiced for thousands of years to cultivate crops.

It is essential to supply the world’s food needs. Over time, agriculture has evolved and taken different shapes to meet this demand.

Advancements in science and technology have enabled farmers to produce extensive amounts of food, which has helped fulfill the demand for food.

The agricultural revolution contributed to transforming food production, and the resulting increased output fed the growing global population.

Furthermore, the use of enormous amounts of chemical fertilizers and pesticides has maximized output, making food cheap and abundant.

However, the flip side of this has been that modern farming practices have harmed the environment and negatively impacted human health.

It has caused land erosion, polluted air, water, and soil, led to deforestation, loss of soil quality, degradation of resources, and harmed the environment.

Additionally, the use of chemicals and their subsequent mixing with water has caused diseases and health problems in humans.

This is where the advent of sustainable agriculture comes in.

Sustainable agriculture aims to produce healthy and high-quality food without compromising health or the environment.

Moreover, it encourages the adoption of new agricultural techniques and farming methods, which help in conserving our limited natural resources.

Other facets of sustainable agriculture include conserving the economy and profits, maintaining/ improving soil health, promoting biodiversity, and maximizing productivity.

The following are some of the best practices for sustainable agriculture:

1. Crop Rotation

Crop rotation, along with improved crop diversity, is one of the simplest and effective methods to protect soil and maintain its quality.

Growing a variety of crops can help farmers achieve better yields for each crop in rotation, as well as in a single harvest.

It also enhances soil fertility and reduces the need for chemical fertilizers and pesticides.

It works on the principle that crops that do not require similar nutrients in terms of quality and quantity can be planted one after the other.

The crops must exhibit a positive correlation with one another to ensure they positively influence each other’s growth and do not drain the soil of the same nutrients.

Examples include growing barley after wheat, and cereals after legumes, among others.

Similarly, crop diversity helps in preventing crops from disease and decay as well.

If an infection or a pest attack affects one variety or species, the other plant varieties remain relatively safe and ensure that the farmer does not incur a complete loss.

There is also an ecological benefit to crop biodiversity, as it encourages the habitation of various pollinators and beneficial insects that act as natural barriers to pests.

2. Cover Crop Adoption

Cover crop adoption is one of the most effective techniques for adding natural matter to the soil and enhancing the productivity of land where crops are grown.

When farmers grow seasonal crops during the off-season, they traditionally leave the land fallow.

The wind and heavy rainfall can lead to soil erosion in such situations.

Nutrients from the soil percolate into the groundwater, polluting it.

Using cover crops during the off-season ensures that neither of these situations arises.

They protect the physical integrity and chemical fertility of the soil.

3. Soil Fertility

Soil fertility and quality are key factors that contribute to sustainable farming.

Soil fertility involves three aspects: physical, chemical, and biological fertility.

Due to the extensive use of fertilizers and pesticides, the biological fertility and diversity of soils have decreased significantly.

Replenishment of soil biological fertility can enhance soil quality and productivity.

Sustainable agricultural products and practices that enhance biological fertility are of utmost importance.

To achieve success with sustainable agricultural practices, there is an urgent need to switch to natural, eco-friendly, and innovative agricultural solutions.

Organica Biotech is a leader in the space of agricultural products that support and boost sustainable agriculture.

The MagicGro range of products, such as MagicGro DripSol, is a natural plant growth promoter that enhances immunity, crop vigor, and productivity, improves yield and quality, and reduces dependence on chemical use.

Also read:

Impact of Climate Change on Agriculture

Climate change, also known as global warming, refers to the increase in average surface temperatures on Earth.

An overwhelming scientific consensus maintains that climate change is primarily due to the human use of fossil fuels, which releases carbon dioxide and other greenhouse gases into the atmosphere.

The primary greenhouse gases in Earth’s atmosphere are water vapor, carbon dioxide, methane, nitrous oxide, and ozone.

These gases can absorb the spectrum of infrared light and contribute to the warming of our atmosphere, which can have a range of effects on ecosystems, including rising sea levels, floods, severe weather events, and droughts that render landscapes more susceptible to wildfires.

Other human activities, such as agriculture and deforestation, also contribute to the proliferation of greenhouse gases that cause climate change.

Warmer air can hold a higher water content, which makes rainfall patterns more extreme.

Climate change is having a serious impact on the world’s water systems, leading to increased flooding and droughts.

Extremes of drought and flooding will become more common, causing displacement and conflict.

Even small increases in Earth’s temperature caused by climate change can have severe effects.

The Earth’s average temperature has increased by 1.4°F over the past century and is expected to rise by as much as 11.5°F over the next.

In reality, the average temperature during the last Ice Age was approximately 4°F lower than it is today.

The United Nations Framework Convention on Climate Change (UNFCCC) defines it as a change of climate that is attributed directly or indirectly to human activity, altering the composition of the global atmosphere.

It has been estimated that if greenhouse gas emissions continue at the present rate, Earth’s surface temperature could exceed historical values as early as 2047, with potentially harmful effects on ecosystems, biodiversity, and the livelihoods of people worldwide.

Agriculture is the backbone of the Indian Economy.

About 65% of the Indian population depends directly on agriculture, and it accounts for around 22% of the GDP.

Rainfed agriculture accounts for 67 percent of the net sown area, contributing 44 percent of the food grains and supporting 40 percent of the population.

Uneven rainfall patterns, increased temperatures, and elevated CO2 content in the atmosphere are key climatic parameters that impact crop production.

Research studies indicate that weathering parameters strongly influence (67%) compared to other factors, such as soil and nutrient management (33%), during the cropping season.

The Intergovernmental Panel on Climate Change (IPCC) projected that the global mean surface temperature will likely rise, which may result in uneven climatic changes.

This rising temperature may affect crop yield on a large scale.

It has been reported over the 20th century that rising temperatures play an important role in global warming compared to precipitation.

Researchers have confirmed that crop yield falls by 3% to 5% for every 1°F increase in temperature.

A recently published article in ‘The Guardian’ states that the suicides of nearly 60,000 Indian farmers are linked to climate change.

The survey says that the rising temperatures and the resultant stress on India’s agricultural sector may have contributed to an increase in suicides over the past 30 years.

Illustrating the extreme sensitivity of the Indian agricultural industry to spikes in temperature, the study from the University of California, Berkeley, found that an increase of just 1 °C on an average day during the growing season was associated with 67 more suicides.

Also reported that rainfall increases of as little as 1cm each year were associated with an average 7% drop in the suicide rate.

A recently published special issue on climate change in ‘Down To Earth’ magazine states that climate change had a significant impact on agriculture, which led to a 1.5 percent loss in India’s GDP.

Their research findings are important and eye-opening.

It states that by 2030, rice and wheat are likely to see about a 6-10 per cent decrease in yields.

Crops such as rice, wheat, maize, and sorghum will be severely affected by the extreme weather events.

However, crops like soybean and gram are likely to benefit from a higher level of CO2 in the atmosphere, which helps in CO2 fertilisation.

The rising temperature has an adverse effect on flowering, leading to the buildup of pests and diseases.

Floods and excessive rain over a short period cause extensive damage to crops.

Extreme weather events have caught the attention of agrarian experts and scientists alike, and they are now focusing on natural farming to arrest the impacts of climate change.

The experts in this field say that the effect of climate change on crops mainly depends on the net sown area and the geographical location of a region where a particular crop is sown.

Mustard may experience a neutral to positive impact in northern India, especially in Punjab and Haryana, where winter temperatures are very low.

A 1°C rise in temperature won’t have much impact on production.

However, a similar rise in temperature in eastern and central India will have a negative impact.

Interestingly, potato production may be positively impacted by elevated CO2 concentration, as reported by experts at the Central Potato Research Institute, who claimed that potato yield would increase by 11.12 percent at elevated CO2 levels of 550 PPM and a 1°C rise in temperature.

However, a further increase in CO2, accompanied by a likely rise in temperature of 3°C, will result in a 13.72 percent decline in production by 2050.

Logically, the Kharif crops will be more affected by rainfall variability, while the Rabi crops will be more affected by minimum temperatures.

Wheat is likely to be negatively impacted in the Rabi season due to terminal heat stress, with a 1°C rise in temperature resulting in a loss of 4 metric tonnes (MT) of wheat.

Similarly, legumes are expected to benefit from elevated levels of atmospheric CO2.

An area is considered water-stressed when its annual water supply per person drops below 1,700 cubic meters per year.

We are soon going to face a situation where wars will be fought over water.

Much of the prosperity in the last two decades can be attributed to the exploitation of groundwater.

However, rainfed agriculture is being severely affected by fluctuations in rainfall patterns.

This year, the Vidharbha region in Maharashtra experienced a severe drought, with a prolonged dry spell affecting crucial stages of plant growth, including the flowering stage in soybeans and the boll formation stage in cotton.

Additionally, this region experienced unexpected delayed rains at the time of the first cotton picking, which significantly spoiled the produce.

Agriculture should be able to sustain itself despite adverse climatic conditions and produce enough food to feed the world’s population.

Natural farming, utilizing climate-tolerant or stress-tolerant crop varieties, is an emerging area of research.

Efficient water and nutrient management options to enhance use efficiency, evaluation of the carbon sequestration potential of different land-use systems, understanding the opportunities offered by conservation agriculture and agroforestry, and identifying cost-effective methane emission reduction practices in ruminants and rice paddies are a few important mitigation options that need to be considered.

References:

Aquaculture in Bangladesh and Use of Probiotics for Fish & Shrimp

Aquaculture is one of the fastest-growing industries in the world today.

For a large population living in different parts of the world, fish is the main source of nutrients, and thus it is integral to the dietary culture.

However, different kinds of disease outbreaks and poor water quality have been plaguing aquaculture and affecting its production rate.

Although conventional solutions like antibiotics are used, there is a growing concern about their extensive use and related adverse effects on the aquatic ecosystem and aquatic living beings.

Probiotics for fish and shrimp farming have emerged as an environmentally friendly method to control diseases and as one of the promising water treatment solutions in aquaculture.

Probiotics

Probiotics are microorganisms, mostly beneficial bacteria, that are capable of providing better health to fish and shrimp by adding them to the water.

In shrimp farming and fish farming, it is well known for boosting the immune system.

Additionally, it causes the growth of microbiota, inhibits pathogens, and strengthens the natural defense of fish, thereby helping in the fight against diseases.

As per recent studies, probiotics are also known to enhance water quality by sequestering matter into carbon dioxide.

For instance, it is now established that the bacteria Bacillus reduce nitrite, nitrate, and ammonium concentration in ornamental fish water.

Furthermore, probiotics for fish directly contribute to their development and growth.

It is achieved by increasing the efficiency of feed conversion as well as protein efficiency.

Multiple researchers have found high growth rates, an increase in body weight, high protein digestibility, and a low feed conversion ratio in a variety of fish due to the use of probiotics.

Aquaculture in Bangladesh

Aquaculture in Bangladesh has significantly grown in the past decades.

Today, it is considered one of the top contributors to food production.

Fish and shrimp farming have intensified in recent times due to the ever-increasing population in Bangladesh.

According to estimates, there are more than 2 lakh farmers practicing shrimp farming in rural areas.

Most of the shrimp and fish farming done in the coastal regions of Bangladesh is divided into mainly three categories: Extensive culture, Semi-intensive and Intensive culture.

The main difference is how they are grown in ponds.

Shrimp and fish depend on natural food in extensive culture, whereas in semi-intensive culture, they depend on natural food, as well as fertilizer and supplementary feed.

Intensive culture depends completely on artificial feed.

Different factors like salinity, pH, photosynthesis, and dissolved oxygen affect the growth, metabolism, and physiological processes of aquatic living organisms.

During the culture period, it is commonly seen that water quality deteriorates due to metabolic waste, leftover feed, and biotic substances.

It can stress the system and affect the survival of fish and shrimp.

More often, farmers have to spend a lot of money on water exchange systems and other infrastructure to prevent or control diseases caused by it.

Disease management remains a major challenge for farmers, and many depend on antibiotics.

The use of antibiotics and antimicrobials has caused another problem of drug-resistant bacteria, which is quite alarming.

The use of probiotics for shrimp and fish, on the other hand, is a better preventive approach, which helps in preventing diseases and keeping fish and shrimp healthy.

Various studies conducted in Bangladesh have also shown that probiotics for fish are useful in the prevention of diseases, better biological control, and nutrition.

The use of probiotics has shown that all parameters are in the acceptable range.

Also, improved water quality was observed due to the action of gram-positive bacteria on organic matter.

Organica Biotech is one of the leading companies with a wide variety of aquaculture probiotics products, which consist of multiple strains of microbes that perform various functions to improve the aquatic ecosystem of fish and shrimp.

Different probiotics for fish and shrimp available are Bioclean Aqua, Bioclean Aqua Plus, Biogut Aqua, Bioclean Aqua Hatchery, and Bioclean Aqua Fish.

The cost-effective range of products can be used for different purposes, such as helping to increase the body weight of fish and shrimp, maintaining healthy water quality, reducing toxicity levels, and boosting the immunity to fight against diseases.

For a developing country like Bangladesh, Organica Biotech’s probiotics products can help boost growth, increase survival rate, minimize pathogens, and maintain an environmentally friendly culture system.

It will eventually help farmers to increase production and better economic returns.

Also, using probiotics for fish can help Bangladesh to meet the future food demand by increasing fish and shrimp farming productivity.

Resources on Probiotics In Aquaculture:

whatsapp