Some reasons why you should choose precision farming

In the world of farming today, the use of the term ‘precision agriculture’ is increasing at an exponential rate and given its power to completely transform the productivity of a farm, the increase is justified and even extremely important.

In simple terms, precision farming can be defined as the use of technology and data to determine the type of farm inputs, the level of those inputs, and also the precise location of those inputs within the land.

In traditional farming, the entire plot of land is treated as one whole entity and the inputs are thus applied uniformly over the entire field. This doesn’t align with the actual input requirements for optimal production by the different parts of the land.

On the other hand, it recognizes the input requirements of each part of the land by identifying the different intra-field variabilities like the difference in soil properties, slopes, nutrient content, production levels, sunlight reception, and so on.

Precision farming is better than other conventional or traditional farming techniques because it relies on data generated by the use of technology, which is then analyzed by reliable computer programs as well as expert agronomists to make accurate predictions and recommend precision farming solutions in a timely manner to the farmers.

In fact, it can go as far as to actually make those interventions or administer the different inputs in the farm with the help of technology-driven machinery and equipment.

Some of these methods used for data collection are field-based sensors, drones, satellite imageries, etc while an example of direct input through precision-agriculture includes the use of robotic devices fitted to GPS-guided autonomous tractors.

Overall, it not only makes the farmlands and agribusinesses more profitable but also very sustainable in the long run.

How the Internet of Things (IoT) is used in agriculture today?

Internet of things is considered as the backbone of modern agriculture which is basically the act of connecting objects and devices with sensors to measure the required data and transmit the data via a network.

In case, the various things and objects that are included in the IoT include the farmland itself, the crops, weather, machinery, etc. So the use of IoT to achieve increased yield, alleviate operational expenses, and also achieve environmental sustainability is called precision farming.

The utilization of IoT in agriculture today for precision practices is mostly done through AgTech solution providers like GeoPard Agriculture because of the complexity of the processes involved in a holistic precision agriculture practice.

For instance, given the developmental stage of a plant, its level of greenness may reveal its nutritional needs.

The data on the level of the greenness of the plants are gathered and analyzed using the Crop-Monitoring solution which uses images obtained from satellites like the Landsat and sentinel multispectral images and then creates detailed maps of your land revealing its specific input needs.

Similarly, we all know that topography has a large influence on farming decisions like species selection, irrigation needs and determines the final production by controlling aspects like light reception and water retention.

So, precision farming solutions like Topography analytics lets you create very accurate topographical models of your farm using elevation, slope, and aspect data obtained from field-based GPS attached to machinery as well as LIDAR and satellite data.

Soil is the most important part of agriculture and the type and quality of soil determine the type, quality, and quantity of farm yields.

Hence, understanding your farm’s soil precisely translates to a precise understanding of your input needs for optimum production and environmental protection.

Tools like Soil Data Analytics do just that by providing you with precise locations for soil data sampling and using those sampling data combined with other data layers to create a high-resolution visualization of all the necessary soil attributes.

Based on the variability of those attributes across the land, you can obtain and plan the different types and intensities of inputs like fertilizers and cropping patterns.

The IoT tools mentioned above are only a few of the many tools you use in an integrated model of precision farming.

All these tools and the data obtained from them work seamlessly in a network that provides you with much-needed timely information to optimize your production and alleviate operational costs.

Why should you turn to precision agriculture?

Considering the global problem of food shortage and the limited availability of arable farmland, it is highly recommended to adopt it as it allows for maximum yield while minimizing overall costs.

The only obstacles to implementing precision agriculture are limited access to technology and a lack of knowledge and skills, both of which can be overcome with precision farming solutions readily available.

So let’s look at some of the reasons why precision farming is the way towards a sustainable and profitable agribusiness.

1. Precision farming reduces the costs associated with farming

This might sound counterintuitive at first since the use of technology in your farmlands obviously sounds like an expensive venture.

However, precision-farming tools like GeoPard have become extremely accessible and affordable to farmers and these costs are nothing in comparison to the numerous long-term costs you will save by optimizing the actual level of inputs like fertilizers and herbicides you need to use in precise locations of your farms.

It also dramatically reduces the ever-increasing human labor cost from the agriculture economics equation thus reducing your costs marginally.

2. Precision farming increases the yield and thus the overall profitability

As mentioned earlier, precision-agriculture increases profit by cutting costs.

But even more than that, the major goal of precision farming is to maximize the crop yields from your farmland by accurately measuring the farmland attributes, analyzing those data, and suggesting or implementing solutions that will yield the most productive in the long run.

Long-term productivity is key here because it combines spatial data with temporal data to give you precision farming solutions that are suited for your long-term production goals.

3. Precision farming ensures environmental sustainability

In contrast to conventional farming methods that often neglect environmental concerns such as pollution, nutrient leaching, and waterbody contamination, it prioritizes environmental sustainability.

This approach considers the necessary environmental standards that must be met to enhance the environmental value of products and tap into new markets, leading to potential economic benefits.

4. Precision agriculture combines technical expertise with farmers’ experience

It is an often overlooked benefit of turning into precision agriculture but adopting any level of precision farming technology in your farm means that your agribusiness will be driven by better agronomical expertise while you will retain the ability to use your experience in light of the better understanding of your own field at a higher resolution.

Especially in the case of small farms, it only provides you with accurate and detailed information and suggestions, but it is up to you, the farmer to use that information and manage your agricultural farm according to your needs which brings us to the next and final point.

5. Precision farming is suitable for all farm sizes

Large farms and farming organizations use advanced and sophisticated machines and networks as large-scale precision farming. However, the majority of the food we eat in today’s world still comes from small farms. Although the type of precision agriculture tools varies according to farm size, they are applicable in all sizes of farms.

For small farms, tools like handheld GPS, small drones, and services like mobile apps with offline capabilities, cloud-based analytics, etc. can make a huge impact on the overall operation and productivity of the farm. With increased spatial resolution and low prices offered, the small size of the farm should not be a reason to not turn into precision farm today.

How to get started with precision agriculture?

Precision agriculture, Internet of Things (IoT), advanced machinery, data analytics, and other associated terminologies might be distressing at first glance if you are not quite familiar with these terms and this is the main reason why many farmers tend to stay away from precision-farming.

However, it is simply the act of obtaining more detailed and precise information about your own farm so that you can make the best decisions. While getting started with it, you need to understand the following things for the best results.

How to get started with precision agriculture?

Precision agriculture must always start with a clear understanding of your specific needs since it serves more than one purpose increasing yields, reducing costs, improving operational efficiency, and enhancing sustainability.

So first, a specific set of needs and expectations derived from a proper evaluation of your farm is the perfect way to start your precision journey.

Now you need to choose the tools that will best fit your needs. For this, you need to consult with experts, go to conferences, or simply contact the solution providers to gain information on specific tools and technologies.

While starting out on precision practices, it is always best to choose user-friendly tools that you or your staff can properly navigate and operate if needed. Also, even though you need not go on the details of the tools, it is always a good idea to have a basic understanding of how the tools and overall network works.

Finally, the actual implementation of the tools and the proper utilization of technology as well as the information obtained is the key to a successful precision farming operation.

It is also critical to understand that precision farming is a long terms approach that works best when multiple data layers are combined and tools are integrated into a common network rather than working independently.


Frequently Asked Questions


1. How can GPS be used in precision farming?

GPS (Global Positioning System) plays a vital role in precision farming. Firstly, GPS technology enables accurate and precise mapping of fields, allowing farmers to create digital boundaries and track field boundaries, aiding in precise farm management.

Secondly, GPS enables guidance systems for automated machinery, ensuring precise and consistent operations such as seeding, spraying, and harvesting.

Thirdly, GPS data can be integrated with other data sources like soil sampling and yield maps, providing valuable insights for site-specific management decisions. Lastly, GPS helps in creating accurate records and documenting activities for compliance and traceability purposes.

2. How much does precision agriculture cost?

The cost of precision agriculture can vary depending on several factors. It involves investments in technology, equipment, software, and data management systems. The specific needs of the farm, the scale of operations, and the level of precision desired all impact the overall cost. Additionally, ongoing expenses may include maintenance, upgrades, and training.

3. Why is precision agriculture also called site-specific agriculture?

It is also referred to as site-specific agriculture due to its focus on tailoring farming practices to specific locations within a field or farm. By utilizing technologies such as GPS, remote sensing, and data analytics, it enables farmers to identify and manage variations in soil composition, moisture levels, nutrient requirements, and crop health across their fields.

4. What is the difference between power farming and traditional farming?

The key difference between power farming and traditional farming lies in the level of mechanization and technology used. Power farming, also known as mechanized or modern farming, heavily relies on advanced machinery and technology to carry out farming operations. It involves the use of tractors, harvesters, irrigation systems, and other mechanized tools.

Traditional farming, on the other hand, often involves manual labor, basic tools, and traditional farming practices passed down through generations. Power farming enables increased efficiency, larger-scale production, and higher productivity compared to the labor-intensive and smaller-scale methods of traditional farming.

Types of green roof irrigation systems and their organization

Environmental campaigns and even considerations are uplifting the use of green roofs. As opposed to hard construction materials such as tiles, green roofs are known to more importantly lower the rainwater run-off hence lowering flood problems. Complex rooftop irrigation systems are capable of holding up to about 90% of the rainwater and also even the thinnest complex green roof system holds up to 40% of the rainwater.

Alongside that, the remaining 60% of the rainwater is more likely to run off rather slowly as compared to when on a conventional roof. Green roofs are also known to offer important cover in lowering heat transfers and even reduction of noise.

Besides increasing diversity, offering a habitat for both the animals and even plants, all green roofs are most likely to heighten air quality by filtering airborne dust particles and even other pollutants. All green roof design is simply the compromise of offering both the plants and grass adequate soil to thrive unattended and also ensuring the roof weight is down.

Since the soil possesses a high density, the price for making roof structures goes up based on the more depth of soil needed. With that in place, several designs are more likely to embrace the use of the minimum amount of soil and even special mixes involving compost to lower the weight.

From a horticultural point of view, a shallow depth and the exposed aspect make the soil dry up very fast resulting to plant stress and even failure. Types of green roof irrigation systems and their organization. There are only two basic types of green roof design.

Intensive roof systems

This kind of system is always used where an accessible garden environment is needed. Structures that include water features, planters, benching, and also trees are all included in this design.

Here, the soil depth is always deeper making it a necessity for the roof structure to be stronger to withstand the extra weight. Again, complete maintenance is needed with this kind of design since a more varied plant type is always used.

Types of green roof irrigation systems

Extensive roof systems

This is always initiated whenever the environmental benefits of a green roof are needed. Sedums that are also known as low growing drought resistible plants are pre-sewn into a blanket are always used more so due to their high tolerance and also their lightweight construction.

Alongside all that, they also need slight maintenance hence are seen to be cheap when it comes to maintenance.

Irrigation methods

These will always depend based on the application among other aspects; however, there are two main types. They include:

1. Sprinklers

They are always used in intensive roof systems. When the roof depths are extremely shallow, supply pipework is placed on the gravel margin or even on raised beds across all the edges found in the lawn.

The ancient lawn-based sprinklers of the pop-up kind are always situated around the outer perimeter in the grass area, spraying all the way to the lawn area. These kinds of sprinklers are known to have amazing coverage and can also be used to spray the grass on their earlier days when laid.

As for the lawns that have greater soil depth, the pop-up sprinklers can be perfectly placed into the lawn area, and they will then work in the same way as sprinklers in an ancient lawn.

2. Driplines

For extensive green roofs, they are always equipped with a dripline system that directly targets the root zone. You also need to be aware that it should not be installed when the green roof is being installed.

A special dripline is always used, where it is made to move all the way to the root zone – and also several ordinary drip pipes will always clog when used to perform such kinds of operations. Original individual drippers also come along with a compensation device built to ensure that, even if the roof elevates, each of the drippers is capable of offering a similar amount of water.

Driplines are also laid below the soil surface at the root level. Based on application, driplines are laid along the roof in lines that have 300 to 400m intervals. As for the Sedum blankets, two lines of dripline are always the only requirements for wetting the capillary kind of matting and not the sedums – one above the slope and also another one halfway down.

For intensive roof gardens that planters or even shrub borders are placed, they all have to be dealt with using the driplines that are placed on the surface (usually beneath mulch) of the bed. When it happens that there are pots and even urns in the roof area, they can be watered through individual drippers found in each of the pots.

3. Pressurization and control units

Due to the irrigation location such as high level, a pressurized water supply will be needed so that water can be evenly distributed. Water regulations always need a kind of ‘A’ air brake on all of the irrigation systems. That can be derived from a compatible pressurized supply within a given building or even a dedicated built pressurization unit.

The latter is always pre-assembled and also has a built-in water storage tank equipped with an air gap, controller, and also pressure pump. This unit is always situated in a pump room at a lower level. Copper or MDPE pipework is always moved from its location all the way to the roof level.

All that is needed here is a mains water and 230v power supply as an additional requirement. The controller can always be programmed to conduct the irrigation automatically either daily, or even weekly for a certain period of time and it can also be manually operated whenever a need be.

The extra sensor can also be placed whenever needed – this will simply reduce or even prevent watering whenever it rains.

A few tips for creating a green rooftop irrigation system

Below is a list and descriptions of some of the tips or considerations that you need to keep in mind when creating a green roof irrigation system:

Weight considerations

You need to rest assured that all of the things that you have built on your roof are perfectly supported. To do avoid problems from this, you need to prevent concentrating much of the weight on small areas through the use of wood and even PVC frames that are capable of spreading the weight across a larger area.

Be informed that when you fail to enforce proper support, there are higher chances of your roof leaking or even collapsing leading to an expensive fix the damage.

When to water

Regardless of the mechanism that you use, there is always a given time for watering. You need to know that no matter what, you should not water your plants in the middle of the day since it will only make them wilt or even burn.

Tips for creating a green roof irrigation system

The best time that you may adopt for watering your plants is usually 3 hours immediately after the sunrise and also 3 hours before the sunset. When you stay in areas that are very dry, then, the best time for watering your plants needs to be during the evening since it offers plants and the soil adequate time to absorb the water before it evaporates.

Homemade irrigation

You can always choose to use the rolled tubing to build a simple irrigation system. You can also channel the drainage to a central recycling vessel where it is strained and then pumped back to the plants.

Debris that is sifted can also be evenly distributed above the rooftop garden. Embrace a cheaper pump to bring about water distribution, and also set it on a common wall timer.


Frequently Asked Questions


1. How to make rooftop lawn?

To create a rooftop lawn, follow these steps:

  • Check the structural integrity: Ensure that your rooftop can support the weight of a lawn. Consult with a structural engineer if needed.
  • Install a waterproof membrane: Apply a waterproof layer to prevent water leakage into the building. This is crucial to protect the structure.
  • Build a drainage system: Install a proper drainage system to prevent water pooling. Use drainage mats, perforated pipes, and a waterproofing membrane to facilitate water runoff.
  • Choose appropriate soil and grass: Select lightweight soil or soilless media that promotes drainage. Choose grass varieties suitable for rooftop conditions, such as drought-tolerant and low-maintenance species.

Remember to consider local regulations, seek professional advice, and maintain the lawn regularly to ensure its longevity and health.

2. Do roof sprinklers work?

Roof sprinklers can be effective in certain situations. They can help cool the roof surface and reduce the risk of fire spreading in wildfire-prone areas. Roof sprinklers work by wetting the roof and surrounding areas, creating a moisture barrier.

However, their effectiveness depends on factors such as water availability, system design, and maintenance. It’s important to consult with fire experts and local authorities to determine if roof sprinklers are appropriate and effective for your specific location and circumstances.

Regular testing and maintenance are crucial to ensure their functionality when needed.

3. What is the necessity of irrigation?

Irrigation is necessary for plant health, agriculture, and landscape maintenance. It provides a reliable water supply during dry periods, promoting optimal growth.

It enables crop cultivation in regions with limited rainfall, increasing food production. Additionally, irrigation keeps lawns and gardens hydrated, preventing wilting and maintaining attractive outdoor spaces.

How to prevent waterlogging in agriculture

We all know that the excessive use of everything is bad. But could anyone ever imagine the implication of excessive water availability to the soil? As much as plants need adequate water, sunlight, and fertilizers. The excessive and uncontrolled water supply could result in the logging of water and ultimately hinder the development of plants. In the worst cases, it may lead to the death of those plants.

What is waterlogging? How does it harm the crops?

Waterlogging refers to the excessive accumulation of water in the soil, leading to the saturation of the root zone. It occurs when the soil’s ability to drain water is compromised, often due to factors such as heavy rainfall, poor soil structure, or inadequate drainage systems.

It deprives plant roots of oxygen, hindering their ability to absorb nutrients and causing stress or even death. It adversely affects plant growth and crop productivity, making it a significant challenge in agriculture and requiring effective drainage measures to mitigate its impact.

The meaning of waterlogging in a much simpler term is the process of hardening or clogging of the topsoil due to excessive water availability to the soil. In agricultural terms, it can be defined as the extravagant and uncontrolled flow of water, through rain or irrigation practices to crops.

When the water available to the soil is much more than what the plant’s root and soil can absorb, then there will be waterlogging on the soil. The most significant effect of this condition on crops is the drop in the level of oxygen available to plants’ roots.

Water logging on the soil is a common problem in underdeveloped and developing countries where small-scale and medium-scale agriculture is majorly practiced. Large-scale farming usually has a strategy that controls the flow of water to crops.

Properly done Irrigation farming is an example of a modernized method of farming that reduces the stagnancy of water on the soil.

Crops need oxygen for normal activities such as respiration and consistent growth. CO2 absorbed by plants during respiration and photosynthesis is broken down into oxygen and carbohydrates. A greater portion of the oxygen obtained by the plant is released into the surroundings while the remaining portion is stored in the root for other purposes.

In severe cases, plants undergo anaerobic respiration to survive. This condition is called “anaerobiosis”, a condition of respiration when oxygen is absent. Plants may stop growing well, undergo denitrification, experience an evident decrease in the secretion of manganese and iron oxides, and eventually die off.

It is not usually detected until it has led to severe damages to the crops. Prompt detection reduces its effect on soil, plants, and the surrounding environment. Agriculturists need to know the signs of water logging on the soil for prompt detection and treatment.

It at the beginning stage leads to the yellowish coloration of the leaves. It also leads to wilting of leaves, smelly roots, and abnormally colored roots. Later signs are decomposition, stunted growth, and dying off of plants.

Summarily, waterlogging is the situation where there is oversaturation beyond the water holding capacity of the soil. It leads to clogging and obstruction in the flow of oxygen.

Forms of Waterlogging in Agriculture

There are various forms of waterlogging that occur in agriculture. The forms are:

  • Periodic waterlogging
  • Subsoil waterlogging
  • River waterlogging
  • Ocean waterlogging

Causes of waterlogging in Agriculture

1. Periodic 

Here, rainwater accumulates on depressed or flatlands and results in waterlogging of soil.

2. Subsoil 

This is when water enters the roots of plants. This usually happens during heavy rainfall or extensive irrigation practices.

3. River 

Here, there is an inflow from the bigger water sources like rivers into the farmlands. This is caused by extensive rainfall.

4. Ocean 

This is caused by adverse weather conditions such as earthquakes. Here, water from oceans flows into the farmlands.

Causes of waterlogging

The causes of waterlogging are:

  • Badly practiced irrigation
  • Poor medium of drainage
  • Land Topography
  • Heavy rainfall and flood
  • Soil permeability
  • Seepage inflow of water

1. Badly practiced irrigation

The intensive method of irrigation exposes soil to water logging. This is because water seeps through the soil and there is a rise in the groundwater table.

2. Poor system of drainage

In the absence of a proper draining system to evacuate water during rainfall, water remains stagnant on the soil. This is a major cause of waterlogging in agriculture. A drainage system helps to evacuate water from the land.

3. Land Topography

The topography of land includes the sloppiness, shape, and other physical features of particular land or environment. Some lands are accelerated such as hills and valleys, while some lands are depressed such as lowlands.

Accelerated lands have high steeps and prevent it. While depressed lands are flat and encourage stagnant water. This becomes worse in the absence of a proper drainage system.

4. Heavy rainfall and flood

Excessive rainfall is a natural cause of waterlogging. Water may remain on the land for several days especially if the soil has low porosity or permeability.

A flood is a natural disaster that results in the accumulation of water. Flooding is more destructive to plants and usually leads to the dying off of plants.

5. Soil permeability

The different types of soil have different porosity and water permeability. For instance, loamy soil is more permeable and porous than other types of soil.

In the advent of excessive rainfall, loamy soil absorbs more water than clayey soil and prevents or reduces the effect of waterlogging on the soil.

6. Seepage inflow of water

Lands that are closer to large water bodies are more likely to experience water inflows to the land. This effect can be reduced by utilizing water effectively. Water from rivers can be treated and used for industrial purposes.

Effects of waterlogging

It has numerous effects on plants. The effects of waterlogging are:

  • Poor aeration
  • Anaerobiosis
  • Retarded growth of plants
  • Increased salinity
  • Growth of unwanted plants
  • Lowered soil temperature
  • Difficulties in performing farm operations
  • Environmental pollution

1. Poor aeration of the soil

Excessive and indiscriminate supply of water to plants leads to a reduction in the supply of oxygen to plants. Aeration is the process of air circulation in the soil. Plants produce oxygen during the day. A larger portion of the oxygen produced by plants is in the environment.

While the remaining portion is stored in plants’ roots. When water-logging occurs, the oxygen stored in the plant root is lost due to excessive moisture.

2. Anaerobiosis

Anaerobiosis is the condition of anaerobic respiration in plants. In extreme cases, plants lose the oxygen required for their normal respiration.

Thus, they resort to anaerobic respiration, a condition of respiration in the absence of oxygen.

3. Retarded growth of plants

It disrupts the normal biological function of plants. Excessive supply of water to plants reduces the supply of oxygen and nitrogen to plants.

Since both elements are fundamental to the growth of plants, disruption in their supply will retard the growth of plants.

4. Increased salinity

This is usually more common in intensive methods of irrigation farming. Salts are accumulated in the root of plants due to the accumulation of minerals in the water.

5. Growth of unwanted plants

Some water-loving and wild plants thrive more during the condition of waterlogging. These unwanted plants compete with the main crops for nutrients and sunlight.

They outgrow the main plants and retard their growth. In some cases, it eventually causes the crops to die. The growth of unwanted plants reduces the profit of farmers. A large amount of money is spent to get them destroyed.

6. Lowered soil temperature

Due to the moist environment created by waterlogging, there is a fall in the temperature of the soil. Low temperature encourages the activities and functions of microorganisms. Some chemical substances that are harmful to plants are also bred.

7. Difficulties in performing farm operations

Many farm operations such as weeding, plowing, planting, and more are best carried out in dry environments. It prevents farmers from carrying out many activities on the farm or makes those activities harder to perform.

8. Environmental pollution

It leads to water pollution in the environment. The accumulated water serves as a medium for the growth of microorganisms. It may also harbor dirt and unwanted objects. It may pose a great danger to the environment.

How to prevent waterlogging in agriculture

Due to the effect waterlogging has on soil, plants, the ecosystem, and agriculturists, it is necessary to prevent the occurrence of waterlogging on lands. Agricultural industries can prevent it through the following ways:

  • Growing crops in raised beds
  • Practice good drainage system
  • Mulching
  • Minimizing seepage inflow
  • Proper irrigation management
  • Alternating farming methods

How to prevent waterlogging in agriculture

1. Growing crops in raised beds

This method is more effective when the land or area of farming is small. For example, backyard gardens and small-scale farms. The beds of the crops may be raised to a higher level to avert it.

Although, this method is very stressful and requires a lot of effort by the farmer. But provides reliable prevention to waterlogging and protects crop roots from excessive water.

2. Practice good drainage system

This is an important precaution against it in agriculture. Farmers should ensure that their farms have a reliable drainage system. It ensures that water is properly evacuated from the farm. When draining water away from farms, farmers should ensure that the water does not remain stagnant on another person’s land or farm.

This is to prevent affecting the environment or someone else with water logging. There are natural and man-made systems of draining water in agriculture. The farmer should adopt the method that is the best fit for his crop and type of land.

3. Mulching

Mulching provides a better and more practicable solution to the problem of waterlogging in farms. In Agriculture, mulching is the process of treating the soil with organic or inorganic substances. When these substances are added to the soil, it protects the soil surface and help plants grow.

It also helps to reduce the rate of evaporation. It is however advisable to use a thicker mulch of organic substances in severe cases of water logging. Mulching aids soil aeration and eventually eradicate it on the soil.

4. Minimizing seepage inflow

Water inflows from rivers, canals, and lakes to the farmland can be minimized or blocked to prevent it. Paths can be created along the water bodies to prevent the inflow of water to the farms. Drainage systems could also be planted along the water bodies to prevent unsolicited inflow of water to the farm.

The water bodies could also be widened to aid water flow to its maximum capacity. Also, water from lakes, canals, and oceans can be used more beneficially and economically. This will also prevent unnecessary inflow of water to the surrounding environment.

5. Proper irrigation management

Proper irrigation management should be practiced to prevent waterlogging of soil. The intensity or deepness of irrigation practices should be below. Proper soil types with the right level of porosity should be used for irrigation.

Furthermore, alkaline water or seawater should not be used for irrigation. This is because the minerals present in alkaline water can harden the soil surface and prevent soil from absorbing them. And this will result in waterlogging of the soil.

6. Alternating farming methods

Crop rotation should be practiced on lands to prevent waterlogging and improve the well-being of the soil. The farmer should endeavor to practice different crop production methods on his land. Also, extensive methods of irrigation farming should not be practiced on land for a very long time. Crops that require intensive irrigation should be encouraged.

In conclusion, It is a notable challenge in both modern and traditional farming. It may not be easily detected unless close attention is paid to it. Its causes are numerous and they are all highlighted in this article.

Some are natural while some are man-made. It has enormous consequences on the following: soil effectiveness, plants, agriculturists, and the ecosystem, and numerous methods can be employed to stop the incidence and also reduce its effect.

This article gives a detailed analysis of the issues surrounding waterlogging in farming. The underlying causes, and practicable prevention.


Frequently Asked Questions


1. Why should excessive supply of water to plants be avoided?

Excessive water supply to plants should be avoided to prevent waterlogging, nutrient loss, disease susceptibility, and water wastage. When a field becomes waterlogged, it can have detrimental consequences on plants.

The lack of oxygen in the waterlogged soil can suffocate plant roots, leading to root rot and poor nutrient uptake. Ultimately, these factors can result in stunted growth, wilting, yellowing of leaves, and even plant death.

2. What are the basic reasons of water logging and salinity?

The basic reasons for waterlogging and salinity are primarily related to poor drainage and excessive irrigation. It occurs when the soil is unable to drain adequately due to factors such as high water table, compacted soil, or inadequate drainage systems.

Salinity, on the other hand, arises when there is an accumulation of salts in the soil due to excessive irrigation and evaporation, leading to an increase in soil salinity levels. Both negatively impact plant growth and productivity, requiring proper drainage and irrigation management to mitigate these issues.

3. How does salinity affect plant growth?

Salinity negatively affects plant growth in multiple ways. High levels of salt in the soil can create an osmotic imbalance, causing water to be drawn out of plant roots, leading to dehydration and wilting.

Excess salt also interferes with the uptake of essential nutrients, depriving plants of vital elements necessary for growth and development.

Additionally, salt accumulation can damage plant tissues and disrupt physiological processes, impairing photosynthesis and reducing overall productivity. Ultimately, salinity stress can result in stunted growth, leaf burn, reduced yield, and even plant death.

4. How does soil help plants grow?

Soil plays a crucial role in supporting plant growth in several ways. Firstly, soil serves as a medium for plant roots to anchor and obtain physical support. It also acts as a reservoir for water, holding moisture that plants need for hydration and nutrient uptake.

Soil provides essential nutrients to plants, acting as a source of minerals and organic matter necessary for their growth and development. Additionally, soil contributes to root aeration and gas exchange, allowing plants to access oxygen for respiration.

5. How the modern methods of irrigation are more water efficient than the traditional ones?

Modern methods of irrigation are more water-efficient compared to traditional ones for several reasons. Firstly, modern techniques such as drip irrigation and sprinkler systems deliver water directly to the root zone, reducing wastage through evaporation or runoff.

Secondly, these methods allow for precise control of water application, adjusting the flow rate and timing according to plant needs. Thirdly, technology-driven irrigation systems incorporate sensors and automation, enabling real-time monitoring and optimizing water usage.

Lastly, modern methods promote water conservation practices like mulching and soil moisture management, further enhancing efficiency. Collectively, these advancements minimize water loss and promote sustainable water usage in agriculture.

6. How to harden soil?’

To harden soil, there are a few simple steps you can take. Firstly, avoid over-watering the soil, as excessive moisture can make it soft and compact. Secondly, ensure proper drainage by improving the soil’s structure with organic matter, such as compost or well-rotted manure, which helps to promote better drainage.

Thirdly, avoid excessive foot traffic or heavy machinery on the soil, as this can lead to compaction. Lastly, consider incorporating sand or gravel into the soil to increase its density and improve its hardness.

7. How to prevent soil salinization?

To prevent soil salinization, manage irrigation carefully, improve soil drainage, use salt-tolerant plants, and practice crop rotation.

8. What are the four traditional methods of irrigation?

The four traditional methods of irrigation are flood irrigation, furrow irrigation, sprinkler irrigation, and manual irrigation. Flood irrigation involves flooding the entire field with water. Furrow irrigation involves creating small channels or furrows to direct water to the plant roots.

Sprinkler irrigation utilizes sprinklers to distribute water over the field. Manual irrigation involves manually carrying and applying water to plants, often using watering cans or buckets.

These traditional methods have been used for centuries but may not be as water-efficient as modern irrigation techniques.

9. What would happen to a plant if it grow in polluted soil?

If a plant grows in polluted soil, it can experience various adverse effects. The pollutants present in the soil can be absorbed by the plant’s roots and transported throughout its tissues. This can lead to reduced growth, stunted development, and yellowing or wilting of leaves.

Pollutants can also disrupt essential physiological processes, hinder nutrient uptake, and cause cellular damage. In severe cases, plants may die due to the toxic effects of the pollutants. Therefore, it is crucial to ensure plants grow in healthy, unpolluted soil for optimal growth and productivity.

11. How to fix a waterlogged garden?

To fix a waterlogged garden, several steps can be taken. Firstly, improve drainage by creating channels or trenches to redirect excess water away from the garden area. Secondly, amend the soil by adding organic matter like compost or well-rotted manure to enhance its structure and drainage capacity.

Thirdly, raise garden beds or create raised planting areas to elevate plants above waterlogged soil. Lastly, select plants that are more tolerant of wet conditions and ensure proper spacing to allow for adequate air circulation. These measures will help alleviate waterlogging and promote a healthier garden environment.

12. Does gravel absorb water?

No, gravel does not absorb water. Gravel is a non-porous material, meaning it does not have the ability to retain or absorb water. Instead, it allows water to pass through it freely, promoting drainage. Gravel is often used in landscaping and construction projects precisely for its excellent drainage properties, as it helps to prevent water from pooling or causing waterlogged conditions.

Principles and methods of Integrated Plant Protection

All gardeners and gardening enthusiasts always want to have a garden that is easy to care for. However, there are lots of drawbacks that always slow down the process of making a garden meet the above-stated condition.

Even though there are major challenges, with adequate knowledge, gardeners can be able to put in place perfect measures that limit the chances of diseases and pests invasion.

The first step that needs to be taken is a gardener planning and surveying the local conditions in the garden. These may include aspects such as:

  • The soil properties
  • Sun intensity
  • Whether it is windy or if at times have a higher humidity
  • Choosing the best plants and varieties that can thrive and remain healthy
  • Choosing whether to buy seeds or plants in pots

Some other aspects that you may also check on are driving your attention to the flowers and also to healthy foliage. You also need to check on the roots since they will help you gauge the plants’ quality among other things.

What is plant protection in agriculture?

Plant protection in agriculture refers to the measures and practices employed to safeguard crops from pests, diseases, and weeds. It involves the use of various techniques and strategies to prevent, control, or manage these threats to ensure healthy plant growth and maximize yield.

Plant protection methods may include the application of pesticides, biocontrol agents, and cultural practices like crop rotation and sanitation. The goal is to maintain the health and productivity of crops while minimizing the negative impacts of pests and diseases on agricultural production.

The goal of Integrated Plant Protection: strong and resilient plants

Immediately the best plant has been found for your garden, your next area of focus needs to be on supplying both care and the needed nutrients. Fertilization is a major issue that should be taken seriously since only well-nourished plants are capable of fighting against pests and even diseases.

Plants that lack nutrients are always easy prey for pests and even fungal diseases since they offer minimal resistance. Apart from using fertilizers, gardeners can also adopt the use of plant restorers to help their plants fight pests and diseases.

Most importantly, cultivation measures such as the right cutting of plants, promoting organisms for mutual benefits, tillage, and even hygiene measures also play crucial roles on plants’ health.

General Principles Integrated Plant Protection

General prevention and fighting harmful organisms are most likely to be achieved by choosing to adopt the following options:

  • Crop rotation – use of enough gardening techniques (for instance stale seedbed technique before planting)
  • Planting dates and densities
  • Under-sowing
  • Conservation tillage
  • Pruning and direct sowing – needs to be used only where necessary
  • Adoption of resistant cultivars and certified seed and planting material
  • Adoption of balanced fertilization
  • Liming, irrigation, and drainage practices
  • Avoiding the spread of harmful organisms through high hygiene such as regularly cleaning machinery and even other equipment
  • Protection and caring of mutual beneficial organisms
  • Enough plant protection strategies and measures
  • Use of ecological infrastructures both inside and outside production sites

Besides all the above-mentioned best practices that can be adopted, moderate biological, physical, and even non-chemical methods need to be a priority when they prove to be satisfying.

All the pesticides that are used also need to be accurate and specific as much as possible and have the least or zero effects on humans and also non-harmful organisms and also be environment friendly.

The professional user of the pesticides needs to minimize the intensity of the use and also other forms of intervention by lowering the doses, reducing the frequency of use, and that they do not harm beneficial organisms.

General Principles Integrated Plant Protection

In cases where the resistance against a given plant protection measure is known and also where the extent of harmful organisms needs repeated use of pesticides to the plants, existing anti-resistance measures need to be applied to stabilize the efficacy of the products.

This may involve the application of pesticides with different types of action. According to the records on the use of pesticides and on the monitoring of damaging organisms the professional user needs to check the success or the effectiveness of the used protection measures.

Damaging organisms needs to be monitored by enough methods and even tools when needed. Those tools need to include those having the potential to observe fields such as scientifically giving warnings, forecast, and quick diagnosis systems, and also use advice taken from professional and qualified advisors.

Relying on the information from the monitoring, the professional user needs to choose whether and also if applicable when to introduce plant protection measures. Massive and scientifically fit threshold values are primary components in decision-making.

IPM (Integrated Pest Management) as a part of Integrated Plant Protection

Commonly known as IPM, is simply a system that controls pests and one that is built to be suitable. IPM is built upon the best combination of biological, cultural, and even chemical measures for given situations and is not limited to plant biotechnology.

This offers the cheapest and, most environmentally friendly and also socially vouched for a method of controlling insects, weeds, diseases, and also other pests witnessed in agriculture.

Avoiding pests speeds up through the application of the right crop cultivation methods, observation of the plants to track pest levels, other levels of natural control methods such as the enhancement of beneficial insects to make sound decisions about the control of pests when needed.

A major principle of working IPM is to come up with pest control methods that come along with all needed control measures and also locally present methods, and also sensitive to the local and environmental needs. A successful user of IPM will weigh down how cost-effective each of the alternatives is and also for the whole control plan.

Integrated Plant Protection with the help of GeoPard

Protecting plants can be made easier and achieved through the adoption of efficient smart farming, this is because the internet of things is capable of calculating the status of the plants and also the number of pesticides needed to avoid the damage.

Monitoring stations that gather data on four factors: crop growth, soil moisture, pests, and even natural disasters are capable of lowering the cost involved in controlling pests.

Data gathered through smart devices such as HD cameras, sensors, micro weather spots, and even pest capture lights is sent to platforms located at monitoring stations to aid with the support of agricultural research and production.

Monitoring and forecasting are primary methods of heightening plant protection and also reducing the application of pesticides.

Variable-rate application technology in Precision Agriculture

Variable-rate application (VRA) in agriculture is a section in tech that majors in the automated use of products in a certain landscape. The manner in which the products are used relies on the data that is gathered through sensors, GPS, and maps. Products are not limited to chemicals, seeds, or fertilizers, and all of them are simply to aid increase crop yields.

What is Variable-rate application?

Variable-rate application (VRA) is a precision farming technique that involves adjusting the application rate of inputs such as fertilizers, pesticides, and seeds to different areas of a field based on their specific needs.

VRA uses data from various sources, including satellite imagery, soil maps, and yield data, to create a customized prescription map that guides the application of inputs to different sections of the field.

By tailoring the input application to the specific needs of each area, VRA can optimize crop yields, reduce input waste, and lower costs, making it an effective and efficient tool for precision farming.

There are several kinds of tech that are applied in this area of agriculture. They cover nearly all things such as:

  • Hyperspectral Imaging
  • Drones
  • Artificial intelligence
  • Satellites

Nonetheless, the kind of VRT is applied, it is crucial to get to know the general method and how it is used.

Variable-rate application technology in Precision Agriculture

Using fertilizer is a normal agricultural trend or activity that is capable of being automated through the use of VRT. Below is a detailed step-by-step instruction on how to use VRT to spray fertilizer:

Zoning/Management Areas – Management areas are divided into sections of a field where conflicting products need to be applied.

When you choose to use VRT, it is crucial to mark which sections the machines need to apply certain products to, since failure to then, you are most likely to face negative results.

Owing to its value, the initial step when using a fertilizer with VRT tech is simple to set the right management sections. It is also necessary to validate that this information is perfectly fed into the VRA system.

Map-Driven vs. Sensor-Driven VRA – VRT in farming can either be sensor-driven or map-driven. The following step is simply to find out the form that is more of a solution to the current challenge that you are experiencing.

Besides that, it can also depend on the disadvantages of the VRT tech that is already applied. Map-based VRT is simply when a map is produced of the landscape and fed to the system prior to working out the activities.

On the other hand, sensor-driven is simply where VRT tech mergers sensors that are capable of automatically detecting the information that later aids in making decisions on the perfect fertilizer to be applied. For instance, it can sense the crop’s well-being and through that make the right decision.

What Data/Imagery Needs to Be Used – Immediately after choosing either sensor-driven or map-driven, the next thing is to find out about the kind of data that the sensors need to be gathering, or what kind of imagery needs to be used in the locating.

Several VRA technologies use drones or other forms of imaging systems to find data regarding the landscape.

Data and Information that is accurate and perfect for spreading fertilizer is not limited to things such as the soil quality and products, the kind of crop, the pace at which the machine is moving when spreading fertilizer, and lastly the data about the climate.

Other Applications and Benefits

Variable-rate application technology in farming majors on other several areas and not only on the spreading of fertilizers. Some other common applications of VRA tech involve:

  • Use of herbicides and even other kinds of chemicals
  • Seeding
  • Detecting pests and diseases
  • Detecting weeds

Generally, VRA tech is majorly used to find out information regarding a certain landscape and also to make a system come up with decisions depending on the information provided. These decisions that are made determine the kind of products to be used in the field.

Apart from that, the benefit of using a VRA system is that it can aid automates this entire section of the agricultural process.

The more automation and precision that a firm specializes in its operations, the more money it can save by higher production and efficiency. Several sources show lots of economic benefits of using VRA as shown below:

Higher chances of yield increase since there is more efficient spying and fertilization according to actual crop needs and variability of lands. Environmental protection from excess spraying of pests and also fertilization.

Geopard is one of the best ways that you can use to try out the Variable-rate application service since it offers several services such as:

Disadvantages and benefits of monocrop agriculture

Are you hearing about monocropping for the first time? Monocrop agriculture is about sowing one crop every year in a similar piece of land, and not choosing to adopt practices such as rotation of other kinds of crops or even choosing to grow several crops on the same field, commonly known as polyculture.

What is monocropping in agriculture?

Besides that, in monocropping, some of the common and also popular crops that are always preferred across the globe include:

  • Soybeans
  • Wheat
  • Corn

The above listed are some of the three most planted crops through the monocropping methods.
The techniques for monocropping enable farmers to have regular crops all over their fields.

Again, farmers always choose to only grow some of the crops that are profitable alone and use the same seed, same diseases and pest regulation methods, similar machinery, and also similar planting method throughout the whole field which have increased the chances of heightening the entire field profitability.

Farmers who prefer its adoption say that it’s a method of farming that results in higher yields as compared to choosing to rotate other crops every year. As much as the claim in regards to profitability may prove to be true, the consequences involved in it will also sooner or later turn out to be very devastating than the benefits in relation to environmental safety and care.

The agricultural and ecological practice of monocrop agriculture

Monocropping and also the Loss of Diversifying in both Culture and Food

Lots of biodiversity across the world happens in areas that are densely populated, and monocropping limits cultural diversity.

Besides that, it in terms of economic scale simply proves that very few families undergo lots of financial burdens for those that insist to stay leading to the extinction of many local cultures across the globe. All that limit and reduction in diversity is simply a result of lack and failure to adopt food diversity.

For instance, industrial fish cages or farms found in the West African country of The Gambia consist of polluted rivers and ocean, damaged wild fish stocks, and also denied local fishing communities of their livelihoods and also Gambians of their original diet.

Across the globe, 50% of the human diet consists of simply three crops which are wheat, rice, and maize resulting in diet imbalances and malnutrition. Even though it claimed that it leads to profitability and better living, several people across the globe who practice this kind of farming have remained to be among those suffering from food insecurity and add to those experiencing world hunger.

Monocropping and Climate Change

As much as it is practiced it triggers yearly inputs of chemical fertilizers to manage soil depletion. The chemicals used merged together with the yearly plowing using heavy machinery divide and also break down all the soil components that are considered to be the best for healthy crops.

Are you aware that the use of chemical fertilizers and also wasteful irrigation have increased the chances of runoffs that damage water ecosystems and also pollute waterways? Just like a low diverse landscape invites a limited species of birds and also beneficial insects, monocropping similarly makes it difficult to fight harmful pests and diseases and also increases the need for fungicides and pesticides.

Methane emissions a possible greenhouse gas from fertilizer manufacturing are estimated to be 3.5 times higher than the U.S EPA’s estimations of all the methane emissions from all industries all over the United States.

Apart from all those, it also adds to climate change by making it difficult for agricultural systems to adapt to it, hence making them more vulnerable to pest infestations, blights, invasive species, droughts, and extreme weather.

Monocropping disadvantages

Higher yields at reduced costs seem so good and also with the increasing costs and increasing population, it can turn out to be the ultimate solution to combat the increasing food security problems across the globe.

However, the long-term and final impacts of monocropping are very dangerous making monoculture farming a threat. Below are some of the long-term effects:

Damage to soil quality

When you choose to only grow one kind of crop on your land, it results in intensive farming across the field. When planting such crops yearly in the same way, triggers depletion of the soil nutrients.

The depletion of these soil nutrients more so nitrogen further leads to soil weakness and also the inability to accommodate the healthy growth of crops. Besides nutrient depletion, it also damages the natural soil components of the soil due to the increased use of fertilizers.

Increased use of Fertilizers

It simply means that farmers have to equip the soil with more and more primary nutrients to be capable of growing crops at the same ability. Higher demands of nutrients are done through the use of the increased amount of fertilizers. The fertilizers also have their own impacts on the environment.

Susceptibility to Pests

When a farmer chooses monocropping, then he or she needs to be ready to fight weeds and pests since this farming method is vulnerable to such attacks hence the need for the use of more pesticides to prevent and fight them.

This method also simply involves crops that are similar or clones of one another, this means that if it happens that one crop is susceptible to pests, then, others will also act the same way.

Monocropping disadvantages

Monocropping farms are also more than just farms but appear to be home to pests since the kind of food or crops that they eat are grown at a given time and also every year hence attracting more pests.

With all that happening, risks of economic loss among farmers that practice monocropping since when one crop was to go bad, then, the entire crops will also be affected resulting in a massive loss of profit in the whole farm due to devastated agricultural production.

More use of Pesticides and herbicides

As detailed above, since monoculture crops have higher chances of getting infested by pests and weeds, then, there will be increased usage of pesticides in such fields. This will also increase the farmer’s budget since pesticides will be used most of the time and in large quantities.

Damage to the Environment

Increased quantities of pesticides and fertilizers used in the fields end up in the groundwater and also flow into rivers leading to water pollution and also getting into the air and polluting the air.

monocropping threat to environment

Another major problem that is fueled by monocropping is deforestation as the need for land increases. Statistics have it that from 1970, the Amazon rainforest alone has lost more than 20% of its forest cover through this techniques.

There are also claims that there exists a high dependency on fossil fuels that may result in increased environmental problems such as global warming.

Loss of Biodiversity

Planting certain species of crops (monoculture farming) leads to a loss of biodiversity. It also limits the choices of customers since they lack a variety of products to buy.

More Susceptibility to diseases

Since crops grown using this method are always of a similar gene (same species), their general reaction or resistance to diseases are almost the same. For the above reason, whenever one crop gets affected, there are higher chances of the entire farm getting affected and being taken down by a similar disease.

Lower yields

Those who have embraced monocropping tend to believe that monoculture has more yield as compared to other forms of farming such as polyculture which is not true. According to the latest research conducted, this is not true but just a belief.

Monocrop agriculture benefits

Specialized and Consistent Crop Production

Maximizing one kind of crop across the whole field, the farmer is capable to optimize the processes such as the seeds, water requirement, harvesting methods, and many others similar across the farm. Adopting the above-described method leads to reduced cost of production and higher produce.

It will also result in reduced costs of production since the seeds, pesticides and even fertilizer will be bought in large quantities or in bulks for the same type of crop. Same crops would also state that the agricultural processes in the entire farm would be specialized and that the farmer would have to find some money for a given type of machinery.

This calls for monocropping that is more economically viable for farmers. A group of individuals who are against monoculture farming believes that it leads to lots of environmental problems and is usually less profitable as compared to organic farming.

Crops in-demand

This method favors crops that are common in the market. Farmers analyze the crops that are commercially in demand and profitable to grow such as wheat.

Perfect match of conditions

Monocrop agriculture can be leveraged to grow a group of crops that are best suited for the local climate and soil conditions of the field. This will maintain good produce for the chosen crop since the growing conditions will be adequately available.

Easy and Simple

It is said that doing the same thing or rather one thing multiple times is easier as compared to doing several things at a go. This simply means that when farmers choose to grow one kind of crop on a piece of land, it is easier and simpler for them to manage than choosing to grow several types of crops in one field.

Polyculture Farming is the main alternative

This is opposite to monoculture since it is a type of agriculture where several species of crops are grown in the same field and at the same time imitate the diversity of plants in nature’s ecosystems. It has also been more common among farmers tracing back all the way to the history of organic farming and conventional farming.

Polyculture Types

Some of the different types of polyculture techniques applied include:

  • Inter-cropping – involves growing more than one crop adjacently, on one field
  • Cover-cropping – this entails growing crops just to cover and conserve the soil

Polyculture farming is more beneficial since it has the ability to combat pests, diseases, and even weeds. This is one of the major reasons why polyculture farming is considered to entail sustainable agriculture.

Intensive subsistence agriculture: types and practices

Under subsistence farming, farmers produce just enough crops and/or livestock that are required for their own needs and do not have the option to earn money by selling or obtaining goods by trading their production. While most of the food on our plates today comes from large-scale farmlands spread across hundreds of acres, it is still prevalent in many parts of the world and mostly in developing or under-developed countries of Asia and Africa.

When humans first began growing crops instead of foraging for food, the foods they grew were entirely for self-consumption and thus, in a way, subsistence-farming was the first form of agriculture that led humans to settle in one place.

When trade started, humans began to shift from subsistence farming to commercial farming thereby selling the surplus amount of what they produced in exchange for other necessities. However, as the human race evolved and the human population exploded, thanks to the increased food supply through farming, land available to a farmer became limited.

In the current agricultural system, companies hold vast areas of farmlands while farmers with limited land do not even have enough to meet their own needs. So farmers have been finding ways to intensify their farming practices to increase production. This form of farming is now known as intensive-subsistence farming.

Types of Subsistence Farming

It in itself can be categorized into two types namely Primitive-Subsistence farming and Intensive-Subsistence Farming.

1. Primitive subsistence farming

It is called primitive subsistence farming because it follows an approach called ‘shifting-cultivation’ or ‘slash and burn technique’ similar to our primitive ancestors. Under this, patches of land from forests or grasslands are cleared by felling the trees, burning with fire, and preparing the soil.

The land is used for a few years until its fertility runs low, at which point a new area is cleared and farming is shifted to that location.

Moreover, as shifting cultivation has gradually reduced due to its negative impacts on the environment, primitive-subsistence agriculture is still present in other forms such as homestead farming in which small gardens or tiny plots of lands are used to grow vegetables and crops using the manures and bio-waste produced by the farmer as fertilizers.

2. Intensive subsistence farming

Intensive-subsistence farming however mainly results from a single cause, that land is limited. And as land is passed on from one generation to the next, it is fragmented into smaller plots to divide among the offsprings of the farmers.

So it goes on getting smaller and smaller until it cannot produce enough to even satisfy the needs of a single family and the farmer uses intensive practices to fulfill production.

In which areas is Intensive subsistence farming practiced?

For an area to have intensive subsistence agriculture, it has to have suitable conditions in terms of light and rainfall. The location should have continuous sunlight coverage most of the year and should have a significant monsoon season.

Checking both those requirements, the monsoon parts of Asia in countries like China, India, the Philippines, and many parts of South East Asia are renowned for their practices in intensifying their farmland production.

Many rural areas of China have hills beautifully carved into terraces that grow different varieties of crops all year round. The need for intensifying agricultural production comes from having a higher population.

In more developed countries of Europe and America, intensive subsistence farming is often practiced in the countryside households having small landholdings and is not uniformly distributed to a certain place.

What are some characteristics of intensive-subsistence agriculture?

1. Very small landholdings

The small size of the landholdings of the farmers is the primary feature of the intensive-subsistence agricultural system. The entire arable land will be subdivided into numerous small plots of lands each belonging to a separate farmer.

As a result, they are managed separately by individuals trying to produce just enough to feed themselves. This becomes very uneconomic to run since you can’t afford any inputs on the farms due to the lack of capital.

Depending on the location, the average size of the land can vary anywhere from a quarter of an acre to a few acres i.e. (0.25 – 10) acres.

2. Farming is very intensive

The intensity of farming can be seen both in temporal and spatial terms in the farms. What it means for the land is that as much area of it as possible will be used for farming leaving only a few ridges as footpaths in the plains and tightly packed terraces will be constructed in hilly areas.

Even marginal lands like swamps and dry lands will be made arable by draining the water and irrigating the land respectively.

Also, the land will not be left barren at any time of the year with a new crop replacing the previous one as soon as it is harvested. Other intensive techniques like multi-cropping on several layers are also often practiced.

3. Much hand labor is entailed

A farmer practicing intensive subsistence farming will always try to use hand labor as much as possible rather than using machinery and power tools to keep the costs low. The general understanding is that machines cost money while their own hands don’t.

So even though tractors are available for tillage, they gravitate towards the old methods of using animals like buffaloes and handmade wooden plows and spades. Harvesting is also done using sickles as are all other post-treatments according to the crop.

In fact, Intensive-subsistence agriculture is identified as having very low production per labor and high production per land. However, as technology progresses, the machinery is getting more affordable, and intensive subsistence farmers in some places like India, Japan, and China are starting to hire machines whenever accessible and affordable.

4. Use of animal and plant manures

The use of animal and plant manures as a characteristic of intensive subsistence farming is also related to the lack of money to afford chemical or artificial fertilizers by the farmer. But this is a good thing since bio-fertilizers made from kitchen waste, human excreta, farm waste, plants, and animal dung doesn’t affect the soil and the environment.

So this is one of the good aspects of this form of farming practice since even though it puts pressure on the soil and land, the addition of nutrients in the form of manures and bio-fertilizers tries to balance it out.

However, like machinery, chemical fertilizers have increasingly become affordable to most farmers due to reductions in prices and government assistance. As a result, in many parts of the world, the tables have turned and intensive subsistence agriculture is now recognized for its excessive usage of harmful insecticides, pesticides, and fertilizers to maximize output.

This compromises the sustainability of the farm. So the use of animal and plant manures should be promoted which makes the farm self-sustaining and ensures food security to the farmers.

5. The dominance of paddy and other food crops

While paddy is the most grown crop in the intensive-subsistence agricultural system, several other food crops are also extensively grown and they vary according to location and its climate, soil, and topography.

For example, wheat, soybeans, and barley are majorly grown intensively in subsistence farms of northern parts of china, japan, and Korea and also parts of India like Punjab. In areas where rainfall is not adequate, food crops like millet and gorghum are grown.

Maize is also often included in the crop rotation at one time of the year. Peas and other vegetables are often integrated with plants like maize.

6. Lack of Credit Services for Farmers

Farmers are often faced with financial difficulties in these systems of farming, especially because of the lack of financial services and credit facilities. This is because intensive-subsistence farming is mostly rainfed which makes it susceptible to failure.

Moreover, since no surplus remains of the production for selling, there is no way for farmers to repay their credit if they have no other source of income.

Intensive subsistence farming and precision agriculture

For many years, subsistence agriculture and precision agriculture have belonged to the opposite sides of the spectrum. But with technological advancements, the gap is starting to be steadily reduced.

First of all, the importance of subsistence farming in ensuring food safety is being increasingly recognized. Along with this, research and experiments have proven the effectiveness and viability of precision agriculture tools and techniques in small intensively farmed subsistence farmlands, especially on those existing in clusters.

The concept of precision farming comes down to the scale of variability that exists within a plot in terms of nutrient availability, soil type, moisture, topography, and other factors. It has been noted that variability can occur in very small plots.

The technology which has driven precision agriculture is becoming more widely accessible. The Soil Data Analytics and Yield data service offered by GeoPard is one such example of a sophisticated and capable precision agriculture tool being accessible and affordable even on farmlands owned by several small landholders.

It helps to discover the promising combination of agricultural and technological fields and improve agronomic decisions of small farmers so that their subsistence need for food can be ensured and the intense stress on their lands can be reduced to ensure sustainability.


Frequently Asked Questions


1. Is shifting cultivation intensive or extensive?

Shifting cultivation is an extensive form of farming that involves clearing and cultivating different plots of land over time. It requires substantial land area and involves rotating crops across various fields to maintain soil fertility.

While it demands a large amount of land, it does not involve intensive inputs like fertilizers or machinery. Instead, it relies on natural resources and traditional farming practices, making it a unique and less resource-intensive method of agriculture.

2. Which of the following is classified as a type of intensive farming?

One type of farming classified as intensive is greenhouse farming. In this method, crops are grown in controlled environments like glass or plastic structures.

The use of advanced technology, such as temperature and humidity control, artificial lighting, and irrigation systems, allows for year-round cultivation and optimized crop production.

This intensive approach maximizes yield and minimizes resource wastage, making it a popular choice for growing high-value and delicate crops.

3. What is a subsistence farmer?

A subsistence farmer is an individual who practices farming primarily to meet the basic needs of themselves and their family. They cultivate small plots of land using traditional and labor-intensive methods, relying on their own physical effort and simple tools.

The crops grown are typically consumed by the farmer and their family, with minimal surplus for trade or sale. It is often associated with rural areas and is driven by self-sufficiency rather than commercial profit.

4. Which one of the following characteristics is most unique to intensive subsistence agriculture?

The most unique characteristic of intensive subsistence agriculture is its high labor input per unit of land. Farmers practicing intensive subsistence agriculture work intensively on small plots of land, utilizing manual labor and traditional farming techniques to maximize the productivity of their limited resources.

This labor-intensive approach allows them to achieve high yields and sustain their livelihoods in areas where land availability is scarce. Unlike extensive agriculture, which relies on larger land areas, intensive subsistence agriculture focuses on maximizing output within a limited space through diligent labor and efficient farming methods.

5. Difference between subsistence farming and commercial farming?

The main difference between subsistence and commercial farming lies in their primary goals and scale of operation.

It is practiced to meet the immediate needs of the farmer and their family, with the surplus being minimal or absent. It focuses on self-sufficiency rather than profit and typically involves small plots of land and traditional farming methods.

In contrast, commercial farming aims at generating profit by producing crops or raising livestock for sale in the market. It involves larger land areas, modern agricultural techniques, and the use of machinery and commercial inputs to maximize yield and profitability.

6. Where is intensive subsistence wet rice dominant practiced?

Intensive subsistence wet rice farming is predominantly practiced in regions of Asia, particularly in densely populated countries such as China, India, Indonesia, Vietnam, and Bangladesh. These areas have favorable climatic conditions, such as high rainfall and fertile soils, that are suitable for rice cultivation.

The practice involves the labor-intensive cultivation of rice in flooded paddy fields, where farmers employ techniques like terracing, irrigation, and crop rotation to optimize rice production and sustain their livelihoods. This farming method has been developed and perfected over centuries, making it a dominant agricultural system in these regions.

7. Difference between intensive and extensive farming?

Intensive farming and extensive farming differ in terms of their scale, inputs, and productivity. Intensive farming involves maximizing output on a smaller land area by utilizing high inputs such as fertilizers, pesticides, machinery, and advanced technology.

In contrast, extensive farming involves cultivating larger land areas with lower inputs and reliance on natural resources. It focuses on extensive land use rather than maximizing output per unit of land. Extensive farming is commonly associated with livestock grazing or large-scale crop cultivation, while intensive farming is prevalent in commercial crop production and greenhouse farming.

Improving soil health through the use of organic matter

With poor soil health, it will be impossible to meet the constantly rising demand for food. Soil quality can be boosted organically, through the use of legumes, manures, compost material, and some planting methods.

It can also be boosted inorganically, by adding chemical fertilizers. However, this has resulted in an increased rate of production. Also, chemical fertilizer doesn’t enhance soil value eventually. It only helps the plants grow by boosting soil minerals.

And they have to be added repeatedly to uphold this standard. Therefore, improving it by employing organic matter is now a growing trend in Agriculture.

Now, agriculturists need to know how to improve soil health naturally if they want better yields. The concept of soil health, soil fertility, structure, pH, and type of soil are discussed exponentially in this article.

What is soil health?

All living things need soil for their advancement. Plants directly depend on soil for their growth while animals depend on soil, indirectly, via the food they consume for their growth.

Therefore, the potential of soil to function properly, that is, “soil health” is a great concern to everything that lives. It is the potential of soil to perform its role as a pillar for the advancement of living creatures.

This is just its peripheral meaning, there are many other definitions of the term. It is difficult to determine it without using a measure.

What is soil health?

Therefore, agronomists and other professionals have put together some pointers that serve as a measure to determine soil quality. The Soil Health Institution declared the universal pointers of Soil health in 2017.

The pointers are categorized into physical, biological, and chemical criteria. Other pointers include color, texture, tilth, drainage, and the appearance of weed. After planting, the yield obtained also determines the soil starts.

What is organic matter?

Organic matter refers to the remains of dead plants and animals or their waste products, which have decomposed and formed a complex mixture of carbon-based compounds. Organic matter is a crucial component of healthy soil, as it provides nutrients and helps to retain moisture.

What is organic matter

It is also an important part of the carbon cycle, as it plays a significant role in carbon sequestration and the reduction of greenhouse gas emissions. Examples of organic matter include leaves, grass clippings, food scraps, manure, and other decomposing plant and animal materials.

Different Approaches For Effective Soil Fertility Management

Boosting the status of the soil is a useful approach to the practicable management of its fertility. Organic approaches have been propelling waves in recent years.

Soil fertility simply implies the aptitude of soil to be a favorable housing for plants and support them. This theory intends to enhance soil nutrients by maximizing agronomic activities and increasing yield.

Organic approaches include planting crops (precisely legumes), manures, cover crops, and other natural farming methods. While inorganic methods include using chemical fertilizers.

Legumes are plants having an abundance of nitrogen, and they are needed for plants to boost the soil’s well-being. Legumes undergo “Nitrogen fixation” when planted.

Nitrogen fixation is the cycle of converting nitrogen in the atmosphere to ammonia. However, not all legumes perform this task. Legumes, which draw nitrogen from the atmosphere to give off ammonia are called ” Nitrogen-fixing legumes”.

Manures are waste of animals, such as feces and urine that can be used to boost soil, organically. Humans, cows, poultry, e.t.c. produce this material through excretion. Spreading cover crops, or practicing intercropping can also boost soil.

Planting cover crops also bolster organic substances in the soil. Additionally, preventing the loss of nutrients has also been a decent approach to managing soil well-being. Loss to erosion or leaching should be prevented or avoided.

Different Approaches For Effective Soil Fertility Management

Knowing the strategies to manage soil fertility is not enough. It is also key to know that each type of soil, sandy, loamy, and clay has a unique approach that works for them to improve their status.

How to Improve Soil Health and Structure? Enrich poor soil

The configuration of soil contributes largely to its characteristics. This configuration can boost the well-being of the soil, its productivity, and health. The discussion of the ways to enrich the soil will be based on the varieties of soil and how to boost each of them.

1. Sandy Soil

This type has big particles and big pores. These pores allow indiscriminate permeability of air into the soil. It also. allow permeability of water. Therefore, sandy soil can’t conserve water and other nutrients for a long time. They are also not uniformly shaped. Some particles are big and some are small. Sandy soil is not sticky even when wet.

The unhindered permeability of air in sandy soil encourages microbial activities. These microorganisms deteriorate organic material easily. Due to these reasons, sandy soil is not suitable for planting, but it is suitable for particular plants.

To improve health of sandy soil:

  • Add organic materials, droppings, or compost. (About three to four inches or its equivalent)
  • Cover the plants with any part of plants, such as bark, leaves straws, e.t.c. Mulching helps water retention of soil
  • Yearly, add about organic materials (about two inches)
  • Plant some cover crops on the soil

2. Clay soil

Clay soil has many opposing characteristics with sandy soil. Clay soil has smaller particles and tiny pores. Its particles are closely arranged, thus water retention is facilitated. Clay soil is very vulnerable to waterlogging. When wet, clay soils are muggy and moldable.

And it becomes hard and crumbly when dried. Clay soils are not only used for agrarian purposes, they can also be used to mold various objects.

Clay soils do not allow free and unhindered permeability of air, so they have low microbial activities. Also, plants grown on clay soil find it difficult to penetrate deeply due to the hardness and compact arrangement of the soil.

Not all plants can ordinarily thrive on clay soil. However, clay soil has an abundance of minerals and will do better if it is enhanced organically.

To Improve Clay Soil:

  • Add organic materials, manures, or compost materials. (about three inches to the soil)
  • Always top it with a little quantity each year (about 1 pound or its equivalent)
  • Grow plants on raised beds to improve the drainage system
  • Reduce tillage activities on the soil

3. Silty soil

This type of soil has some advantages over sandy and clay soil. It contains rock particles and minerals in small particles. It is denser and has bigger pores compared to clay soil, but its pores are smaller when compared to sandy soil.

Silt soils also retain water for a long time and are susceptible to waterlogging. They are the growth of plants than the two types of soil mentioned above. This shows that they are the most fertile and they are rich in organic matter.

To improve silty soil:

  • Top the soil with a small amount of organic matter once a year (about one inch). Focus more on the topsoil
  • Reduce tillage and other activities that disturb the soil
  • Use raised bed to grow crops, to facilitate drainage

4. Soil pH

This is a metric that indicates the level of hydrogen and hydroxyl in the soil. The scale for measurement pH level is number 1-14. PH of 1-6.9 indicates acidity, pH value of 7 shows neutrality while oH value of 7.1 to 14 shows alkalinity.

When hydrogen ions of the soil are higher than hydroxyl, it shows that the soil is acidic. When hydroxyl ions present in the soil are higher than hydrogen ions, it shows that the soil is basic.

When hydrogen and hydroxyl ions in the soil are in equal amounts, it shows that the soil is neutral. Soil pH level tells a lot about the quantitative and qualitative properties of the soil. A pH that is too high or too low may affect soil fertility.

5. Soil pH Tester

Adjusting the pH level of the soil is part of the approach to the management of soil fertility. However, it should be done gradually and correctly. Organically, the pH level of soil can be moderated by adding organic matter, manure, or compost material. It can also be improved by adding chemicals.

We may wonder why it is important to moderate soil pH levels. This is because most plants have a range in which they can thrive.

Most plants grow at a pH range of 6.5-6.8 and nutrients are not easily at a higher or lower pH value. Thus, the nutrients in the soil are rendered useless to the plants. And this will affect soil health and fertility.

How to Improve Soil Health and Structure

6. Acidic soil

Although some plants grow well in acidic soil, most plants don’t. Examples of plants that grow well in acidic soil are blueberries and azaleas. A pH that is less than 6 5 is detrimental to the growth of green plants.

So there is a need to increase the pH of acidic soil so that it can become diluted and accommodating for plant growth. Environment and topography also determine the level of acid in the soil. For instance, soils in the United States are mostly acidic.

The PH value of the soil can be heightened by adding limestone and wood ash. Limestone increases the pH value gradually by adding manganese to the soil. And this helps to increase the hydroxyl ions. But wood ash produces a different effect. It is faster and more effective.

However, the excessive use of wood ash on the soil can be disastrous. So, it is recommended to measure the quantity to be added to the soil. Wood ash is better applied to the soil during winter. About two pounds of it or its equivalent should be added once every two or three years on 100 square feet of land.

  • To raise the pH value of sandy soil by one point; add limestone. About three to four pounds or its equivalent for every 100 Square feet of land should do.
  • To raise the pH of loam soil by one point: Add limestone. About seven to eight pounds or its equivalent for every 100 Square feet of land should do.
  • To raise the pH of clay soil by one point; Add limestone. About eight to 10 pounds or its equivalent for every 100 Square feet of land should do.

7. Alkaline soil

Just like too high acid soil is bad for the soil, too much alkaline is likewise bad. Although some plants such as lavender, tomato, and cabbage thrive well in alkaline soil, most green plants don’t. Climate also plays a role in the alkaline level of the soil. In arid lands, the soil is usually alkaline.

So, if the pH value is higher than 6.8, it is important to lower the pH to accommodate most green plants. The addition of sulfur to the soil increases the pH level.

That is, the higher the sulfur in the soil, the higher the alkalinity. Also, the accumulation of materials such as sawdust, oak leaves, peat moss, and other organic acid substances will increase the amount of alkaline present in the soil.

  • To drop the pH level of sandy soil by one pound; add a pound of grounded sulfur or its equivalent. (for 100 square feet of land).
  • To drop the pH of sandy soil by one pound; add about two pounds of sulfur or its equivalent. (for 100 feet of land).
  • To drop the pH of clay soil by one pound; add about two pounds of grounded sulfur or its equivalent. (for 100 feet of land).

Soil health and soil quality can be used interchangeably. Both terms mean the ability of soil to execute its tasks and support the growth of plants. The health pointers are categorized into three measures.

Organic approaches to practical soil management comprise planting “nitrogen-fixing legumes”, using manures, and adopting some planting methods. The different types of soil have different structures and these structures have an impact on the soil.

The pH of the soil is also a determinant of its health and fertility. Too high or too low acidity or alkaline will affect the growth of plants. So, this factor should also be monitored.


Frequently Asked Questions


1. How does organic farming improve soil and water quality? What organic farmers use?

Organic farming practices prioritize the use of natural fertilizers and avoid synthetic chemicals, which helps to improve soil and water quality. Organic farmers focus on building healthy soil through practices like crop rotation, cover cropping, and composting, which enhance soil fertility and structure.

2. What type of soil is good for organic farming?

Organic farming can be successful in a variety of soil types, but certain characteristics are preferred. Well-drained soils with good water-holding capacity are beneficial for organic farming, as they promote proper root development and nutrient uptake.

Loamy soils, which have a balanced mixture of sand, silt, and clay, are often considered ideal for organic farming due to their ability to retain moisture while allowing for adequate drainage.

3. What color are soils that contain plenty of organic material?

Soils that contain plenty of organic material often have a dark or black color. The high organic content contributes to the darkening of the soil, as organic matter, such as decomposed plant and animal residues, adds rich organic compounds to the soil.

This dark color indicates the presence of nutrients and the overall fertility of the soil, making it desirable for agricultural purposes. The dark color also helps the soil retain moisture and promotes healthy plant growth.

Polyculture Farming: methods, advantages, and disadvantages

Polyculture in agriculture is best defined as the practice of planting several kinds of crop species on the same piece of land and at the same time. Choosing to adopt polyculture tries to imitate the diversity found in the natural ecosystems. Another name for polycropping is intercropping, and this is the opposite of monoculture whereby only one species of crop and even animals are kept together.

Polyculture farming: methods, advantages, and disadvantages

Besides that, polycropping is also perceived to be capable of minimizing pests, diseases, and even weeds and also limits the use of pesticides across the farm. Non-legumes together with intercrops of legumes have higher chances of adjusting the produce on low-nitrogen soils through biological nitrogen fixation.

As opposed to that, it also can lower crop yields through competition among mixed-species for resources such as water, nutrients, and also light. Apart from that, it further complicates the handling of the entire farm since different species possess conflicting growth pace, harvest needs, and also days to maturity.

Monocultures also are considered to be amenable to mechanization. Due to the above-described reasons, several farmers in large-scale agriculture prefer to adopt monocultures and manage them through crop rotation to include diversity in this kind of farming.

Polycropping farming methods

1. Multiple cropping

This farming technique is also known by some as double-cropping. It simply involves the growth of crops on the same piece of land through a single growing season. Immediately the crops are harvested, you will need to plant the next crops as fast as possible or if possible, then immediately.

The newly grown crops continue after the harvests are done at the end of the growing season. Main crops that are grown in multi-cropping systems are arable crops, fiber, and even vegetables. Small or ordinary farmers tend to use polycropping since they can efficiently use the fertilizer, water, and land.

2. Relay cropping (modified double-cropping)

This is an altered version of double cropping. It is not the same since your crops are grown before the harvest of your initial crops. In other words, all of the crops will have to share a section of the growing season, aiding to adjust the solar radiation and also the present heat for all of the crops.

As you read this, relay cropping is gaining momentum as several farmers across the world specialize in planting corn for seed, winter wheat crops, and even soybean.

3. Intercropping

It is the growth of several crops whereby two or even more different crops will cover the same piece of land simultaneously. Here, you first grow the main crop. You then proceed by growing the second crop in the spaces left.

Usually, farmers who use this method do use a minimum of two different crops at the same time. Another name for intercropping is agroforestry because smaller crops are always grown below those that grow higher. This method is suitable in places that have a low amount of land available for farming.

Crops are also grown in an organized style or even mixed randomly. The most suitable crop species for this method are the legumes. This is because they insert atmospheric nitrogen into the soil, aiding lower the use of fertilizer.

4. Cover cropping

Just as the name goes, cover crops are grown to cover the soil. The main aim is to use them to conserve the soil’s surface from getting carried away by the wind, water erosions and also prevent the weeds from growing in the field.

Their top growths aid in covering the soil surface and their roots holding and stabilizing the soil particles. Cover crops are also widely used to generate green manure.

At the end of their growth, you may choose to till them into the soil to offer nutrients back to the soil as they also adjust your soil’s traits such as aeration and even water retention.

5. Crop rotation

Here, you plant a different kind of crop every time in a crop rotation system at certain intervals on the same field. Polycropping is important not to grow a similar type of crop on the land for two years. Waiting lets the soil regenerate between growing a similar crop. It also offers better conditions for both the crop and the soil.

Benefits of polyculture farming

1. Saving on resources

Several years back before polyculture, the primary farming technique was monoculture. This means that a given section of land was used for growing one kind of crop. For instance, corn would only be grown together with corn crops and also kales would only grow with kale crops.

The drawback with this kind of method is that a farmer would require large sections of the field to divide the crops. A complicated irrigation system would also be needed to water the crops across large tracts of land.

A farmer may also have a smaller section of land with a similar output of crops and also possess a more efficient irrigation system.

2. Plant competition

When the soil is meant for several crops, crops always grow stronger. This may appear to be counter-intuitive because people always argue that several plants eat more nutrients at a faster rate. But the crops rather seem to focus on what looks like competition over the soil.

Besides that, the roots of crops and even vegetables always grow thicker with the aim of covering as much soil as they can. With all that happening, the plants grow healthier and offer better yields. As the crops move closer to one another, their immune systems increase.

Research has polycropping that plants that belong to different species when coming closer to another, fight diseases more easily as compared to those in monoculture.

Polyculture farming disadvantages

1. Control Issues

The main drawback of polyculture is the number of control challenges one has over the crops. As opposed to a single plot where one species of the crop would grow, it involves a plot whereby several species of crops are grown.

Here, the farmer must work in a more compact space with several kinds of crops growing altogether. A farmer may also know only how to handle one kind of species and doesn’t have enough knowledge to manage the remaining others.

Polyculture Farming: advantages and disadvantages

2. Equipment

There is some polyculture that needs an investment in some equipment to aid control of the land. This is commonly used in polyculture applications in fish farms. The farmer will have to dedicate more time and also on the infrastructure to make it work.

The plot land should be large enough, have a perfect irrigation system, and also physical and even chemical products to help support the growth.

Monoculture vs Polyculture farming methods

Monocultures consume high quantities of synthetic chemicals for handling pests and also offer nutrients to your crops. It helps get rid of lots of these synthetic inputs in your garden and escalates for a better manageable gardening system.

After some time, it finishes the soil health, unlike polycultures that heighten your soil’s health after some time. Polycropping also lowers the risks and offers you one with stable and also high-quality produce. Numerous methods can be used to introduce this system into your field.

Similarities between monoculture and polyculture agriculture

The only existing major similarity between these two methods is that you are planting some vegetation. Both of them involve the use of fungicides, fertilizers, and even pesticides. However, monoculture consumes more quantities as compared to polyculture.

Whenever you need to shift to organic farming while increasing the biodiversity of your farm, shifting towards a polyculture system is one of the best moves to make. You can also choose to use polycultures in a crop rotation or even use them as green manure to adjust your general soil’s fertility and also nutrient level.

It was used commonly across the globe tracing back to up to 70 years ago. From there, then, monocultures began spreading across the United States, Europe, and then Canada.

As much as it enable farmers to increase their harvests, polycropping also has severe impacts on the environment and also the general health of the soils. For you to estimate all your farming outcomes, then, try some of our Agricultural tools.


Frequently Asked Questions


1. What is the opposite of monoculture? Why is polyculture better than it?

The opposite of monoculture is polyculture. Unlike monoculture, which involves growing a single crop in a large area, polyculture refers to the practice of cultivating multiple crops together in the same field.

Polyculture promotes biodiversity, enhances ecological resilience, and reduces the risk of crop failure. By combining different plant species, it mimics natural ecosystems and allows for beneficial interactions between plants, such as pest control, nutrient sharing, and improved soil health.

6 Ways to improve soil quality

Healthy soil is the pillar necessity for profitable, productive, and also environmentally fit agricultural systems. Investing time in learning about soil processes and methods to improve soil quality through effective techniques can lead to a sustainable soil management system that enhances plant growth and environmental quality over time.

This piece of information is mainly for farmers, gardeners, and farming enthusiasts who want to get to know more about the biological, physical, and chemical components of healthy soil and also how to handle them.

Soil is a precious and essential resource and how it is handled can adjust or reduce its quality. Apart from that, the soil is considered a complicated ecosystem where living microorganisms and even plant roots bring together mineral particles and also organic matter into one dynamic structure that controls air, water, and also nutrients.

In agriculture, soil health is usually known as the ability of the soil to maintain agricultural yield and also conserve environmental resources. Healthy soils offer several functions that aid in plant growth, biological control of pests and diseases, water control, air supply, and also nutrient cycling.

All the above-mentioned functions depend on the interrelated biological, physical, and chemical properties of the soil whereby many of them are sensitive to soil management techniques.

Techniques to improve soil quality

Techniques to improve soil quality

Add organic matter

In the beginning, we always use soil that is not suitable for growing crops. But we are always anxious to get going, so we continue regardless. At this time we are asking the soil to offer nutrient-full food from nutrient-deficient soil. There are higher chances of this activity resulting in poor harvests or even pests and disease challenges.

Reviving the soil is very crucial even when one starts with healthy soil since you will have harvested all the nutrients at the end of the season. There is a related connection between you and the soil in organic gardening – this is simply a give and take.

Seasons such as fall and winter are a great moment for replenishing the soil and allowing it to rest if there is a need. Introduce organic matter in the fall to begin each spring garden at peak levels.

Adopt no-till practices

Tillage takes away the soil and leads to a poor soil structure that does not let the roots spread freely to exploit nutrients and moisture. Getting rid of or limiting tillage activities by shifting to cover crops to till the soil even without the use of machines or any sort of mechanical equipment. This further invites several benefits such as lowering the production cost, lowering soil erosion, and also adjusting the soil productivity.

Mulch for big benefits

Mulching supports healthy soil by holding moisture and nutrients. Besides that, it also saves on time by lowering the need for doing activities such as fertilizing, weeding, and watering. How you mulch your garden should also be based on your climate.

For instance, heavier mulches are best for hot or dry climates where moisture evaporation is higher. As opposed to that, lighter mulches are mostly preferred in rainy or cool climates where the soil needs warmth from the sun but also needs to be protected against erosion.

As for several gardeners, heavy mulches in the off-season offer cover that is important to the soil organisms from the elements and also lowers soil erosion from heavy rainfalls. After a pest invasion, you need to abandon the affected plant material and also not put so much mulch in the winter to avoid giving cover to overwintering pests.

Plant cover crops

Cover crops are the best to include in your soil improvement techniques. This is because they can offer organic matter and nutrients, adjust drainage and aeration, support important soil organisms, and also as overwintering mulch.

As much as cover crops are planted mostly with other crops any time across the year, they are also commonly grown during the late summer or even early fall to germinate over the winter.

Several of them are always killed by the winter cold making spring planting simple, and others are buried before planting. You can use a digging fork or chickens to bury or turn cover crops within a timeline of three weeks before planting in the spring.

Techniques to improve soil quality

Grow chop-and-drop nutrient accumulators

Nutrient accumulators are a type of plant that are at some times merged and used in permaculture farms. Accumulators have roots that are perceived to be capable of gathering given nutrients from the soil. These nutrient-rich plants can then be cut multiple times throughout the year to be used as mulch.

Adopting this method also limits the cost of spending on other several amendments. Planting these plants also increases biodiversity. Even though no research has been done about this kind of plant, it has remained to be the best plant for this.

Maximize soil carbon

Getting to know the carbon-to-nitrogen (C: N) ratio is the key. It involves the mass of carbon to the mass of nitrogen in the soil. According to NRCS, microorganisms operate best at the ratio of a 24:1 C: N, and the 16 parts of carbon are consumed for energy and eight parts for maintenance.

Here, you need to understand that the higher the nitrogen, the faster you deplete the carbon. Again, excess nitrogen leads to more soil bacteria at the expense of fungi. It is the soil fungi that build the glues that hold soil components together. Based on the NRCS chart, wheat straw contains a higher C: N ratio. It simply means that the soil microbes must locate extra nitrogen to consume the wheat straw.

And this must only be found from excess N in the soil. It can also lead to a temporary N deficit if there is a low supply of N in the soil. This continues up to the time that some of the microbes in the soil die and let go of N held in their bodies. Have you ever imagined why soybean Stover does not last for a longer time on the soil surface?

This is simply due to the low C: N ratio of 20:1 it has. This is according to Purdue University data. As opposed to that, high-carbon stover crops such as wheat (80:1) or corn (57:1) aid balance the C: N ratio throughout a two-year planting season.

Growing cover crops aids balance the C: N ratio at a faster pace and also aids to support soil microorganisms’ population. This is one of the reasons why cover crops blends are very common.

Farmers can use several species to alter the C: N ratio and attain several goals, be it adjusting the soil health and even providing grazing.

How can we help in improve soil quality?

Our history in farming is diverse so we know the right solution to your problems. GeoPard helps farmers to estimate and improve soil quality by allowing them to upload soil sampling files into GeoPard Agriculture and then it offers an easy-to-read heatmap visualization of all of the attributes in the soil sampling file among other several operations such as comparing layers and even building variable rate fertilizer prescription files.


Frequently Asked Questions


1. How should soil be tilled to preserve and enhance soil quality?

To preserve and enhance soil quality, it is recommended to practice minimal tillage or no-till farming methods. This involves reducing the frequency and depth of soil tilling.

By minimizing soil disturbance, organic matter is preserved, soil erosion is reduced, and soil structure is maintained.

This approach promotes better water infiltration, nutrient retention, and microbial activity, leading to improved soil fertility and long-term soil health.

2. What farming practice can help improve and maintain soil quality?

Implementing cover cropping is a farming practice that can help improve and maintain soil quality. Cover crops are grown between main crop seasons to cover and protect the soil. They help prevent erosion, reduce weed growth, and improve soil structure.

3. Can soil health improve all types of crop farms?

Yes, soil health can improve all types of crop farms. Regardless of the farming system, maintaining and improving soil health is crucial for sustainable and productive agriculture. Healthy soil provides a favorable environment for plant growth, nutrient uptake, and water retention.

Implementing soil conservation practices and adopting soil-friendly management techniques can benefit all types of crop farms and contribute to long-term agricultural sustainability.

4. How can we improve the soil using crop remains?

One way to improve soil is by incorporating crop remains or plant residues into the soil. This practice, known as crop residue management or crop residue incorporation, helps to increase organic matter content and improve soil structure.

Crop remains, such as stalks, leaves, and roots, break down over time, releasing nutrients into the soil and enhancing its fertility.

5. How to measure soil quality?

Soil quality can be measured through various methods. One common approach is conducting a soil test to analyze its chemical composition, including pH, nutrient levels, and organic matter content.

Physical characteristics such as soil texture and structure can be assessed through visual observation and feel. Soil biodiversity and microbial activity can be evaluated through biological indicators like earthworm counts or microbial biomass assessments.

6. What country has the richest soil?

Several countries are known for having rich and fertile soil, but one country often recognized for its exceptional soil quality is Ukraine. With its vast agricultural lands, Ukraine benefits from the chernozem soil, which is considered one of the most fertile types in the world.

This dark, rich soil is high in organic matter and nutrients, making it highly suitable for agriculture. However, it’s important to note that soil quality can vary within regions and is influenced by various factors such as climate, topography, and management practices.

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