AdSterra

10 Main reasons we call Organic Acids are "Natural Blessings" in Food

              Organic Acids as a "Natural Blessing" in Food

           Organic acids occurs widely in plants and animals naturally. These have general formula R-COOH and have many beneficial characteristics that gives uniqueness to natural foods! 

Examples of Organic Acids:

Citric acids, formic acids, oxalic acids, acetic acids, lactic acid and tartaric acids etc,.

Benefits of Organic Acids in Foods:

There are many benefits only few are discussed here:
  1. Organic acids inhibits the growth of microbes in food e.g., citric acid in citrus fruits inhibits thermo-philic bacteria.
  2. These acids are the cause of chelate effect in food due to this food reduce the oxidation and enhance the shelf life.
  3. These acids not only enhance the flavor and also improve palatability of foods.
  4. Help to regulate the pH of the foods and balance the diet of humans.
  5. These can change the food texture by reactions with food components.
  6. It is proved fact that organic acids prevents the browning in food components.

For Humans benefits of Organic Acids

  1. These acids improve digestion with improvement in pepsin activity and regulate the pH of the stomach ultimately support the digestive tract.
  2. Organic acids increase the villi length that directly increase the absorption of food in intestine.
  3. Organic acids major role is strengthening of immunity of human body against diseases.


Quote Of the Day

                 Quote By Hazrat Ali


10 Major Roles of Soil Microorganisms for Fertility Enhancement

Soil Microorganisms Roles in Increasing Fertility

    Soil Microbiologist says that soil fertility is directly associated with soil biological health.There are hundreds of millions to billions of microorganisms in a single gram of soil. There are many key roles in fertility enhancement by microorganisms are given below:
  1. Soil microbes plays an important role in nutrients cycling like carbon, nitrogen and oxygen etc.
  2. Microorganisms decompose the organic matter maintain the soil structure.
  3. Microorganisms maintain soil quality and health by improving soil aeration and penetratibility.
  4. It is reported fact that microbes can maintain pH for optimum plant growth. Microbes shows maximum growth in acidic soils.
  5. Microbes are also responsible for the decomposition of organic matter as well as pesticide residues. 
  6. Soil microbes not only contribute the better crop as well as improve the soil ecosystem.
  7. Fungi make symbiotic relationship with the legume crops for nitrogen fixation and improve soil health.
  8. Promote plant growth by provision of  growth hormones and growth regulators.
  9. It is reported that almost 60% nitrogen is fixed by microbes.
  10. Some microbes are used for the control of soil borne and seed borne disease.

Quote Of the Day

                                  Hazrat Ali


10 Ways to promote Pollinators for Yield and Quality

                    Promote Pollinators for your Future

It is reported fact that 35% of the food production depends solely on pollinators which includes bees, butterfly and bats etc. It should be our duty to promote pollinators, there are few ways to promote pollinators:
  1. Grow garden rather than lawn with variety of flowers, herbs,shrubs and trees.
  2. Promote the growing to native plant varieties for the concerning regions.
  3. Promote organic forming and biological practices.
  4. Provide the nesting habitat for the bees and other pollinators.
  5. Protect the grasslands and pollinators habitats.
  6. Join National Wildlife Federation(NWF) effort in Whole of the word similar to the America.
  7. Provide them water sources for the bees. 
  8. Use pollinator friendly plants and accept little plant damage.
  9. Leave dead tree trunks for the habitat of pollinators.
  10. Promote mulching that give habitat for the underground insects.


10 Key Reasons that scientists use ESCHERICHIA COLI as a Model Organism

Why ESCHERICHIA COLI as a Model Organism in Biotechnology?


                  Scientists says E.coli as a Molecular Biologist tool Box
There are following reasons that E.coli is used widely in experiments:

  1. E.coli is a Gram negative Bacillus, generally harmless in nature for human beings.
  2. The rod shape bacterium which is found in the lower intestine of warm blooded animals shows fast growth in culture media. Stains make colony and shows purity in easiest way.
  3. The third and foremost important reason is the well understood genetic and genomics knowledge. Its genome sequenced in 1997, one of the earliest sequenced genome sequenced in the history.
  4. E.coli based biosensors are helpful to identify the genes of targets like biotic or abiotic traits controlling genes.
  5. Its temperature requirement under invivo reactions are similar to the human beings.
  6. E.coli can grow with or without the availability of oxygen.
  7. Rarely unwanted mutations appeared in cultures.
  8. It shows rapid reproduction with small in size. About 2 billion copies from a single cell and 4.5 to 5.5 Mbps genome size.
  9. The presence of extraordinary Plasmids with multiple characters.
  10. It has simple nutritional requirements as compared to others.



Quote of the Day

                           Importance of Knowledge


10 Modern Ways Of Artificial Intelligence Application in Agriculture in Developed countries

Artificial Intelligence in Agriculture

Artificial Intelligence is computer operated automated intelligence used for the management of crops  to achieve the maximum yield at optimum usage of inputs. These Intelligence is used widely in developed countries especially America, Australia, Canada,  and European countries etc. 

Where Artificial Intelligence is used in Agriculture:


  1. Automated Farm Mechanization.
  2. Identification of insect pest and disease outbreak in the field forecasting.
  3. Management in crop quality especially soil quality, nutrition availability and fertilizer requirement of crops.
  4. Climate Forecasting
  5. Crop monitoring with Phenomics.

10 Modern Ways Of Artificial Intelligence Application:

  1.  Global System for Mobile Communication (GSM) is used for the crop monitring in all farm activities like irrigation, fertilization, general health of crops etc.
  2. Artificial Neural Networks (ANNs),Genetic Algorithms(GAs) for yield predictions.
  3. Hortibot are used for weeds removal with the help of Global positioning system(GPS).
  4. Blue River Technology.
  5. Harvest CROO robotics.
  6. Driver less Tractors.
  7. Machine Vision for Diagnosing Pest.
  8. Machine Leaning for Diagnosing soil.
  9. Hyper-spectral Imaging in phenomics.
  10. 3D Laser-scanning in phenomics.  


10 Reasons to leave the Genetically Modified Organisms (GMO)

                             No More use of Genetically Modified Organism(GMO)

5 Major Effects on Genetically Modified organism:

  1. Genetically modified organisms consist of multiple deleterious genes with beneficial genes.
  2. Genetically altered organisms are vulnerable for further mutations.DNA integration in host genome cause insertions mutagenesis. 
  3. These organisms are easier targets for the pandemic disease due to lower resistance against disease.
  4. Organism face stress due to gene manipulation.
  5. Some modified organisms face infertility.


5 Major Effects on Human Health:

  1. Sometimes GMO cause allergic reactions in peoples.
  2. Nature can't afford the alterations or interfere in true breeding.
  3. GMO plants most of the times produce the toxic pollen that cause the danger for the health of insects.
  4. It is reported infant mortality and cancer in humans by GMO.
  5. GMO cause the reductions in Immune system in humans.
Conclusion:
       Heavy cost, less available, species stress, ecosystem threat and vulnerable to disease and pest give us the solid reasons to leave the GMO. Further you want to study or references than join us in discussions. 
Email: syedshaharshad514@gmail.com

Quote of the day

               Quote of the day by Aristotle


10 Ways to Increase the Germination for Maximum Yield

           Germination Increase automatically Yield Increase

Germination% age can be increased through following ways
  1. Optimum water provision for the Imbibation of seed to initiate the biochemical reaction inside the seeds.
  2. Optimum temperature should be provided during germination
  3. Optimum light requirement for some seeds(Photoblastic).
  4. Optimum oxygen  like 20% is necessary for  proper germination, over water will decrease oxygen % in soil.
  5. Seed depth should maintain (1 inch) during sowing.
  6. Proper cultural practices should be maintain before sowing.
  7. Seeds storage should be proper before sowing for the dormancy period.
  8. Insect pest infestation should be proper checked before sowing in soil and also in storage house.
  9. Save seed from uneven drastic climatic conditions during germination period.
  10. Acclimatized seeds will showed maximum germination rather than exotic. 





5 Automated platforms for Digital Image Phenotyping (The Era Of Phenomics) under controlled environment

5 Automated platforms for Digital Image Phenotyping (The Era Of Phenomics)

  1. RGB color Imaging for Plant morphological trait measuring methodology in phenomics like colour, texture etc.
  2. Lidar for 3D image technology for the phenotyping of plants.
  3. Chlorophyll florescence imaging to determine phenotype during photosynthesis.
  4. Thermal imaging for the sensing of temperature through digital imaging.
  5. Hyper-spectral Imaging for the measuring the nutrient uptake efficiency of plants through phenomics.

5 Limitations of Mutation Breeding

Limitations Of Mutation Breeding

  1. Beneficial mutation is very low approximately 0.1%.
  2. Screening of desirable traits is difficult in large population.
  3. Most of the mutations show the phototropic effects.
  4. Desirable mutations most of the times associated with the non desirable traits.
  5. Most of the mutations are recessive.


Quote Of the Day

                            Quote of the Day


Gene Mutation


Plants collection and Identification


FISH(Fluorescence In Situ Hybridization)



https://www.youtube.com/watch?v=JqPtpTOZ-Q8&t=15s
 

Quote of the Day

5 Modern Ways that Accelerated the Varietal development Procedure

Varietal Development Accelerated in current Scenario:

      Varietal development accelerated through advanced methods that made the methods more accurate, time saving, consumptive use of resources and targeted. These methods are included in the following manners:

  1. Applied breeding:
  2.  Double haploid 
  3. Mutation Breeding
  4. Somoclonal variation
  5. tissue culture
  6. micropropagation
  7. single cell culture
  8. Digital Image Phenotyping
 Classical breeding methods that are traditional used from the beginning for varietal development. These methods include Pedigree method, bulk method, single seed decent method, back cross method and test cross methods. By applying the colchicine the number of chromosomes become doubled and increase the plant morphological traits. Double haploid is widely use in cotton and wheat.Integrated approach is applied in these days that reduce the time by taking multiple generations with the help of genetic engineering and applied breeding.



Global Warming the real threat to life on planet

10 ways to save planet from global warming

  1.  By growing trees from street level to country level.
  2.  By decrease the level chloro-floro-carbons emissions in air.
  3.  By saving the forests in countries.
  4.  By making the projects to save the ozone layer in global levels.
  5.  Avoid the complete rely of fossil fuels for energy sources. 
  6.  Renewable energy sources should be used for the revival of the planet earth.
  7.  Reuse the recycle material and save the resources for the upcoming generations.
  8.  National parks should be established to save the ecosystem of the living organisms.
  9.  Public transport should encouraged rather than private transport.
  10.  Governments of the countries should participate in environmental safety measures.



Digital Image Phenotyping in Plants

   Role and benefits of Digital Image Phenotyping



  • Large area of plants can easily analyzed through drones for scanning of nutrients deficiency.
  • Plants can easily analyzed the severity of disease through digital imaging.
  • Digital cameras are used to calculate the quantitative characters by using various software like Matlab.   
  • Time and labor cost become lower down through digital imaging.
  • Huge number of plants can be analyzed for breeding programs.
  • There are many instrument used in these days like digital cameras,  infrared sensor, drones etc.

  •  
If you want to know further than in next article I will explain further outcomes.
Kindly subscribe our blog for further updates.
Email us at :   syedshaharshad514@gmail.com


Benefits of Hoeing

                                             Benefits of Hoeing (godi)

  • To improve the aeration of soil.
  • To improve the structure of soil.
  • It helps to remove the weeds that are potential competitors for the plants.
  • Hoeing is best cultural practice in garden point of view for the plants.
  • Hoeing help to increase the surface area for the plant to gain nutrients.  

Benefits of Growing under controlled environment

What are the benefits of controlled environment for growing of plants?
  1. Temperature control is easy in controlled environment(glasshouse).
  2. weather conditions can easy to control.
  3. Disease control is easy.
  4. Growth of plants become fast.
  5. Time frame become less.
  6. Purpose based work is easy.
  7. cost effective after initial cost.





Importance of Pruning for Trees with AI

Importance of Pruning in Trees With AI


Pruning is an important horticultural practice involving the selective removal of branches, shoots, and other plant parts to regulate tree growth, canopy structure, productivity, and health. Proper pruning improves light penetration and air circulation, removes dead or diseased branches, develops a strong tree framework, and facilitates orchard operations. In fruit trees, pruning can influence flowering, fruit development, yield, fruit size, colour, and quality by maintaining an appropriate balance between vegetative growth and reproductive development. However, excessive or poorly timed pruning can reduce photosynthetic capacity, stimulate excessive vegetative growth, and decrease productivity. Therefore, pruning should be performed according to tree species, cultivar, age, environmental conditions, production system, and management objectives.

1. What is Pruning in 2026 

Trees naturally develop branches and shoots according to their genetic characteristics and environmental conditions. As trees grow, branches may become crowded, cross one another, become weak, or develop in undesirable positions. Pruning provides an effective method for managing tree architecture and maintaining a productive canopy. Green Biotechnology

The major objectives of pruning are to develop a strong framework, remove undesirable branches, improve light distribution, increase air circulation, maintain tree size, and facilitate harvesting and other orchard operations. In fruit production, pruning and training are particularly important because canopy architecture determines how effectively sunlight reaches leaves and fruiting wood.

Pruning should not be considered simply as the removal of branches. It is a management technique designed to achieve a specific physiological and structural response from the tree. The intensity and timing of pruning must therefore be carefully selected. Vegetable Breeding

2. Regulation of Tree Architecture

One of the primary benefits of pruning is the development of a strong and balanced tree structure. In young trees, formative pruning helps establish the desired framework and prevents the development of weak or poorly positioned branches.

Maintenance pruning removes dead, damaged, diseased, crossing, and rubbing branches. This reduces structural problems and helps maintain a balanced canopy. A properly structured tree is also easier to manage because spraying, harvesting, inspection, and other orchard operations become more efficient.

Early correction of structural problems is particularly valuable because removing small branches generally creates smaller wounds than removing large branches from mature trees. Excessive corrective pruning at later stages can cause unnecessary stress and encourage vigorous unwanted shoots.

3. Improvement of Light Distribution

Light is essential for photosynthesis and therefore plays a major role in tree growth and fruit production. Dense canopies often contain shaded interior areas where leaves receive insufficient sunlight. Pruning opens the canopy and allows sunlight to penetrate deeper into the tree.

Improved light distribution can increase the efficiency of photosynthesis and improve several aspects of fruit production. In many fruit crops, adequate light is associated with better fruit colour, development, and quality. Proper pruning can also maintain productive fruiting wood by preventing excessive shading.

However, excessive canopy opening should be avoided. Leaves are the primary organs responsible for photosynthesis, so removing too much foliage can reduce the tree's ability to produce carbohydrates. The objective should therefore be an optimal balance between canopy density and light penetration.

4. Improvement of Air Circulation and Disease Management

A dense canopy can restrict air movement and increase the time required for leaves and fruits to dry after rain, irrigation, or dew. Prolonged moisture on plant surfaces can create favourable conditions for certain fungal and bacterial diseases.

Selective pruning improves air circulation by removing crowded branches and opening the canopy. Better airflow can improve canopy drying and may reduce conditions favourable for some diseases. Removing dead and diseased branches can also reduce potential sources of infection.

Nevertheless, pruning alone cannot control all pests and diseases. It should be combined with sanitation, resistant cultivars, appropriate irrigation, nutrition, monitoring, and integrated pest-management practices.

5. Effects on Fruit Yield and Quality

The relationship between pruning and yield depends on pruning intensity, timing, tree age, cultivar, and production system. Appropriate pruning maintains a productive balance between vegetative and reproductive growth.

A well-managed canopy can improve light distribution to leaves and fruiting branches, potentially contributing to better fruit development and quality. Pruning can also make fruit-bearing branches more accessible for harvesting and crop management.

In contrast, severe pruning can reduce yield because too many productive branches and leaves may be removed. It may also stimulate vigorous vegetative shoots that compete with reproductive growth. Therefore, the goal should not be maximum branch removal but optimum canopy management for sustainable production.

6. Major Types of Pruning

Structural or Formative Pruning

This is mainly performed when trees are young. It develops the basic framework and establishes appropriately positioned primary and secondary branches.

Maintenance Pruning

Maintenance pruning removes dead, damaged, diseased, weak, crossing, or crowded branches. It maintains tree health, structure, and canopy efficiency.

Rejuvenation Pruning

Older trees may develop declining or unproductive branches. Selective removal of older wood can encourage the development of new productive growth and improve canopy structure.

Fruit-Tree Pruning

In commercial orchards, pruning is used to regulate tree size, maintain fruiting wood, improve light penetration, and facilitate harvesting and other management activities.

7. Heading and Thinning Cuts

Two basic pruning approaches are heading and thinning cuts. A heading cut removes the terminal portion of a shoot or branch and can stimulate branching below the cut. A thinning cut removes a branch or shoot back to its point of origin and is generally used to reduce canopy density while maintaining a more natural branch structure.

The choice of pruning cut depends on the desired response. Excessive heading can stimulate vigorous shoot development, whereas appropriate thinning cuts can help maintain an open and balanced canopy.

8. Timing of Pruning

The appropriate time for pruning varies with tree species, cultivar, climate, tree age, and production objective. For many deciduous trees, pruning during the dormant season is commonly recommended because the tree structure is easier to observe and physiological activity is relatively low.

However, there is no universal pruning period for all trees. Some fruit crops and production systems require specific pruning schedules. Summer pruning may also be useful in selected situations, but its effects depend on timing, intensity, tree vigour, and the type of pruning cuts.

Therefore, pruning recommendations should always be based on the biology and production requirements of the particular crop.

9. Effects on Tree Health and Longevity

Correct pruning can contribute to long-term tree health by removing damaged or diseased wood and reducing structural problems. Removing branches that rub against one another can also prevent mechanical injuries.

Properly trained trees generally require less severe corrective pruning later in life. This can reduce the size of pruning wounds and help maintain structural stability.

Nevertheless, pruning itself is a form of stress. Excessive removal of branches can reduce the photosynthetic surface, expose branches to environmental stress, and stimulate undesirable vegetative growth. For this reason, pruning should be selective rather than excessive.

10. Pruning and Sustainable Orchard Management

Pruning contributes to sustainable orchard management by improving canopy structure and making orchard operations more efficient. Better canopy organization can improve access for harvesting, crop monitoring, and plant-protection activities.

Improved air circulation and canopy drying may also support integrated disease management. However, sustainable tree management requires integration of pruning with irrigation, fertilization, crop-load management, pest control, disease management, and suitable cultivar and rootstock selection.

11. Research Considerations

The response to pruning differs among tree species and production systems. Scientific studies should therefore evaluate pruning treatments using measurable traits such as:

  • tree height and canopy volume;

  • number and length of new shoots;

  • leaf area;

  • light penetration;

  • flowering and fruit set;

  • fruit number and weight;

  • yield per tree;

  • yield efficiency;

  • fruit size and quality;

  • fruit colour;

  • disease incidence; and

  • long-term tree productivity.

Such measurements allow researchers to determine whether a particular pruning system provides actual improvements in growth, yield, quality, and economic performance.

12. Conclusion

Pruning is a fundamental practice in tree and orchard management. Its importance extends beyond controlling tree shape. Proper pruning helps establish a strong framework, improve light penetration and air circulation, remove dead or diseased branches, maintain productive fruiting wood, and facilitate orchard operations.

The benefits of pruning depend strongly on timing, intensity, tree species, cultivar, age, and production objective. Excessive pruning can reduce photosynthetic capacity and stimulate unwanted vegetative growth, whereas insufficient pruning can result in excessive canopy density and poor light distribution.

Therefore, the most effective approach is selective and objective-based pruning that maintains sufficient foliage while creating a well-structured and productive canopy.

Correct pruning → balanced canopy → better light and air circulation → healthier trees → improved productivity and fruit quality.

Bioinformatics 



Why practical knowledge is important in agriculture for academia

                  Why Practical is Important?

Practical knowledge is extremely important in agricultural academia because agriculture is a field where laboratory and classroom knowledge must ultimately work under real field, farmer, environmental, and market conditions.

  1. Why practical knowledge matters in agricultural academia

    1. Connects theory with real fields
      Students may learn plant breeding, agronomy, soil science, pathology, or entomology theoretically, but field experience teaches them how these principles actually behave under variable conditions.

    2. Improves research quality
      Practical experience helps researchers design realistic experiments, select appropriate traits, identify field problems, and interpret unexpected results.

    3. Better plant breeding decisions
      In breeding, statistical results alone are not enough. A breeder must understand plant growth, flowering behavior, disease response, fruit/seed characteristics, environmental adaptation, and farmer requirements to select useful genotypes.

    4. Makes statistical analysis meaningful
      For example, a researcher may obtain a significant correlation between fruit area and yield. Practical knowledge helps determine whether that relationship has a genuine biological explanation and whether it is useful for selection.

    5. Helps identify genotype × environment effects
      A genotype that performs exceptionally well in one experimental station may perform poorly elsewhere. Field experience helps researchers understand soil, temperature, irrigation, pests, diseases, and management effects behind such variation.

    6. Improves teaching
      Academics with practical experience can explain concepts using real examples rather than only textbook theory. This makes agricultural education more useful for students.

    7. Bridges academia and farmers
      Agricultural research ultimately needs to solve agricultural problems. Practical knowledge helps academics develop technologies and varieties that are economically and technically feasible for farmers.

    8. Supports industry collaboration
      Modern agricultural universities increasingly interact with seed companies, agribusinesses, farms, and research organizations. Practical experience allows academics to understand industry requirements and translate research into applications.

    Particularly important for plant breeding

    For a plant breeder, the strongest combination is:

    Academic knowledge + Field experience + Data science + Breeding methodology

    For example:

    Digital image phenotyping can measure fruit area, perimeter, width, height, roundness and solidity very accurately. However, the breeder's practical knowledge is needed to determine whether these traits actually represent desirable fruit type, market preference, yield potential and field performance.

    Therefore, practical knowledge does not compete with academic knowledge—it makes academic knowledge more applicable and powerful.

    A strong academic statement

    You could use this in a CV, interview, research statement, or motivation letter:

    “Practical agricultural experience is essential for translating academic knowledge into meaningful research outcomes. It enables researchers to understand field-level variability, design realistic experiments, interpret biological responses, and develop technologies and varieties that address farmers’ and industry’s actual needs. In plant breeding, the integration of practical field knowledge with quantitative genetics, statistical analysis and modern phenotyping is particularly important for making accurate and effective selection decisions.