Why Delhi Needs Scientific Miyawaki Afforestation — Not the Myth Around It

As debate intensifies around the proposal to use the Miyawaki method in Delhi’s Central Ridge, an important distinction is being lost in public discourse: poorly designed plantations and scientifically executed Miyawaki restoration are not the same thing.

Recent reporting by HT Media / Hindustan Times raises valid ecological concerns—but these concerns largely apply to generic, non-site-specific plantations, not Potential Natural Vegetation (PNV)-based Miyawaki restoration.

If applied scientifically, Miyawaki can become one of Delhi’s most effective tools for restoring degraded landscapes, invasive-dominated parcels, and fragmented urban ecosystems.

What Dr. Akira Miyawaki Actually Proposed

Dr. Miyawaki’s work was never about “planting trees everywhere.”

His method was based on:

-Studying Potential Natural Vegetation (PNV)
-Identifying what vegetation would naturally exist without human disturbance
-Using only indigenous species
-Creating multi-layered native forests

Dr. Miyawaki restored over 1,300 sites globally using native vegetation mapping.

Delhi Ridge Is Not Fully Pristine Anymore

A major criticism says Ridge should be left untouched. That is true for intact native grasslands.

But large parts of Ridge today are heavily invaded by:

  • Prosopis juliflora (Vilayati Kikar)
  • Lantana camara

These invasive species suppress native regeneration.

In such degraded zones, passive restoration may take decades.

This is where assisted succession through PNV-based Miyawaki becomes ecologically justified.

The Miyawaki Afforestation method is best applied selectively in highly degraded, invasive-species dominated patches within the Ridge, where it can accelerate ecological recovery, suppress reinvasion, and establish native protective buffer zones that strengthen and safeguard adjacent sensitive habitats.

Why Dense Planting Works in Delhi

Delhi faces:

  • Extreme heat
  • PM2.5 pollution
  • Fragmented habitats
  • Water stress

Dense native planting creates:

1. Faster Canopy Closure :

Trees shade one another, reducing evaporation.

2. Cooler Microclimates

Tiny forests reduce heat stress in urban areas.

3. Improved Biodiversity

Recent studies report significantly higher biodiversity in urban Miyawaki forests.

4. Better Carbon Capture Per Square Meter

Dense, layered forests maximize biomass accumulation.

Water and cost concerns can be managed, not dismissed

The article calls Miyawaki “hugely wasteful of water and massively expensive”.

  • Most case studies show high water and cost inputs only in the first 2–3 years, after which the plots are designed to become largely self‑sustaining, with little to no irrigation once canopy closes.
  • When life‑cycle costs are considered—lower mortality, reduced replanting, faster soil improvement and ecosystem‑service benefits—Miyawaki can be competitive with repeated low‑survival conventional planting drives.

How to use it:
Instead of comparing one‑time per‑sapling costs, we should compare per‑hectare surviving native cover and ecosystem services after 10–15 years. On that metric, a carefully managed Miyawaki pilot may be more cost‑effective than multiple failed plantation rounds.

Afforestation vs restoration – clarify roles, not confuse them

Critics say “Miyawaki cannot be seen as ecological restoration” and that the Ridge needs full restoration ecology instead.

Miyawaki is primarily an afforestation / rapid revegetation tool—but afforestation and restoration are complementary, not mutually exclusive.

How to use it:
Instead of rejecting Miyawaki outright, Delhi should pilot it on carefully chosen degraded pockets of the Central Ridge with strong ecological safeguards and independent monitoring. That will generate real local data instead of speculation.

Miyawaki Afforestation- New Succession theory :

The above diagram compares the natural vegetation succession process with the Miyawaki Afforestation method. In natural succession, the ecosystem evolves over centuries, starting with annual plants and progressing through stages of perennial herbs, shrubs, pioneer trees, and eventually reaching a climax forest over 100–200 years. In contrast, the Miyawaki method accelerates this process by densely planting local climax species seedlings. Within just a few years, the forest canopy quickly establishes itself, shading out weeds, and within 15-40 years, a multi-layered, quasi-natural climax forest develops, creating a self-sustaining ecosystem in a much shorter timeframe. The Miyawaki method provides a rapid and efficient way to restore biodiversity and promote forest growth. 

By : Madhukar Varshney (Founder- Rise Foundation)

A Small Beginning Towards Big Change

At Bamnauli School (New Delhi), what started as a simple session turned into
a powerful step toward awareness, confidence, and empowerment.

Girls from grades 8th, 9th, and 10th came together.
In the beginning, there was hesitation—lowered gazes, silent questions, and uncertainty.

But as the session on reproductive health and care unfolded, something shifted.

Curiosity replaced silence. Questions replaced fear.

Topics that are often avoided were discussed openly.
Hesitation gradually turned into confidence.

The girls began to:

  • Understand their bodies better
  • Learn the importance of menstrual hygiene
  • Gain confidence to express themselves freely

What made this session impactful was not just the knowledge shared, but
the safe space that allowed voices to be heard.

It reinforced a powerful truth:
Right knowledge at the right time can transform lives.

This session was conducted by Madhuri Varshney from Rise Foundation,
with the vision to break taboos and build awareness around menstrual health.

🌱 A New Miyawaki Forest Takes Root in Rabarka Village, Tijara (Rajasthan) 🌱

At Rise Foundation, every plantation is more than planting trees—it is about restoring ecosystems, strengthening communities, and building climate resilience.

We are proud to announce the launch of another impactful Miyawaki afforestation project in Rabarka, Rajasthan, where 9,000 native plants have been planted to create a dense, self-sustaining forest.

This initiative will help:
🌿 Improve air quality
🦋 Support biodiversity and pollinators
🌧️ Enhance water conservation
🌳 Strengthen local ecosystems
🌍 Build climate resilience for future generations

A special and heartfelt thanks to RPSC (Rajasthan Prime Steel Processing Center Pvt. Ltd.) and the wonderful villagers of Rabarka for their trust, support, and active participation in making this vision a reality. Community-led restoration creates lasting change.

Together, we are not just planting trees—we are growing forests and creating a greener future. 💚🌏

#RiseFoundation #MiyawakiForest #Alwar #Rajasthan #Afforestation #ClimateAction #Biodiversity #SustainableFuture #GreenIndia

Sowing the Seeds of a Better Future: 9000 Trees, 33 Projects, One Mission

In a significant step towards ecological restoration and climate resilience, Rise Foundation, in collaboration with Rajasthan Prime Steel Processing Center Pvt Ltd (RPSC), has successfully implemented a Miyawaki Afforestation project of 9000 (8500+ 500 extra ) native plants at Rabarka Village, Alwar District, Rajasthan.

🌿 Transforming Land into Living Forests

The Miyawaki technique enables the creation of dense, fast-growing, native forests that become self-sustaining within a few years. Unlike traditional plantations, this method focuses on:

  • Native species selection 🌳
  • High-density plantation 🌱
  • Rapid growth and canopy formation 🌿
  • Long-term ecological sustainability 🌍

The Rabarka site, once underutilized, is now on its path to becoming a thriving green ecosystem that will support biodiversity, improve soil health, and significantly enhance local air quality.


🌍 Driving Impact Through Collaboration

This project reflects the power of meaningful partnerships. The collaboration between Rise Foundation and RPSC demonstrates how institutions can come together to address environmental challenges with tangible, on-ground action.

By engaging local communities and stakeholders, the initiative ensures not just plantation, but long-term ownership and sustainability.

📊 A Year of Purpose: 33 Projects Completed

The Rabarka plantation marks a proud milestone—33 successful projects completed in the financial year.

🌳 Beyond Plantation: Building a Greener Tomorrow

At Rise Foundation, the vision goes beyond planting trees. The focus is on creating self-sustaining ecosystems that continue to grow, evolve, and benefit communities for generations.

Initiatives like these directly contribute to:

  • Climate change mitigation
  • Carbon sequestration
  • Improved public health
  • Sustainable development goals (SDGs)

🤝 The Road Ahead

As we celebrate this milestone, the journey continues. With stronger partnerships, innovative approaches, and community participation, we aim to scale our efforts and create many more forests across India.

Because every tree planted today is an investment in a healthier, greener, and more sustainable future. 🌱


Together, we are not just planting trees—we are growing forests, restoring balance, and shaping tomorrow. 🌍✨

Note : 500 Extra plants donated by Rise Foundation for this project.

Is the Miyawaki Technique Expensive Compared to Conventional Plantation in the Long Run?

Urban India is facing rising temperatures, poor air quality, and declining biodiversity. As organizations like Rise Foundation continue developing Miyawaki Urban Forests across India, one common question from people, CSR partners and government stakeholders is:

Is Miyawaki plantation too expensive compared to conventional plantation?

Let’s explore this honestly and practically.


🌱 What is the Difference in Plantation Approach?

🌳 Miyawaki Technique

https://images.openai.com/static-rsc-3/70STmCjy8lbmbT4Ks-idPJAcIfQHRpDr7jWR8sF9KcmevC50mulsumYhMVYi2Ba0x3D4dSsA2E9Z5smFNFu77k5BQ8eTqEy4itaP445_5ww?purpose=fullsize&v=1

Higher upfront cost because:

  • 3–5 native plants per sq. meter
  • Multi-layer forest structure (shrubs, sub-trees, trees, canopy)
  • Intensive soil preparation with biomass
  • 2–3 years structured maintenance
  • Rapid growth (10x faster than conventional)

It mimics natural forest ecosystems and becomes self-sustaining in about 3 years.


🌳 Conventional Plantation

https://www.e-pao.org/galleries/images/misc/2013/10/Nashik_in_Tiddim_Road_20131015.jpg
https://worldarchitecture.org/cdnimgfiles/extuploadc/218.jpg

Lower upfront cost because:

  • 1 plant per 3–10 sq. meters
  • Usually single species or limited diversity
  • Minimal soil preparation
  • Slow canopy formation (8–15 years)
  • Ongoing watering and protection required

This approach focuses on planting numbers rather than ecosystem restoration.


💰 Initial Cost Comparison

ParameterMiyawakiConventional
Cost per sq. meter₹500 – ₹700₹50 – ₹100
Plant densityHighLow
Soil treatmentIntensiveMinimal
Species diversity30–50 native speciesOften 3–5 species

Yes — Miyawaki is more expensive upfront.

But that’s only half the story.


🌿 The Long-Term Economics (5–10 Years View)

1️⃣ Maintenance Cost

  • Miyawaki: High for first 2–3 years → Minimal after canopy closes
  • Conventional: Ongoing watering, gap filling, weed control for many years

2️⃣ Survival Rate

  • Miyawaki: 85–95%
  • Conventional: 20–30% (often requires replanting)

3️⃣ Ecological Return

  • Dense canopy in 2–3 years
  • Faster temperature reduction (urban heat island mitigation)
  • Higher carbon sequestration
  • Strong biodiversity recovery

In urban settings like Gurgaon schools and Faridabad Sec 31, fast canopy formation means quicker environmental impact.


🌍 Ecological ROI vs Financial ROI

If the objective is:

  • ✅ Maximum number of saplings → Conventional may appear cheaper
  • Long-term forest ecosystem restoration → Miyawaki is more efficient

When measured over 10 years, Miyawaki often becomes economically competitive because:

  • Lower replantation cost
  • No long-term irrigation
  • Reduced protection needs
  • Self-mulching system

📈 Why CSR Partners Prefer Miyawaki

For corporate sponsors, Miyawaki offers:

  • Visible impact within 2–3 years
  • Strong SDG alignment (SDG 11, 13, 15)
  • Better brand positioning as ecological restoration, not symbolic plantation

🎯 Final Conclusion

Short Term: Miyawaki looks expensive.
Long Term: It is more sustainable, resilient, and impactful.

In simple terms:

Conventional plantation grows trees.
Miyawaki grows forests.

For urban India, where land is limited and climate stress is high, the Miyawaki method is not just a plantation model — it is an ecological investment.

For more information contact Rise Foundation at mail2risefoundation@gmail.com or +91 9717764262

Faridabad Sec 31 Miyawaki Urban Forest – A Green Step Towards Climate Resilience

Urban areas across NCR are facing rising temperatures, deteriorating air quality, and declining biodiversity. In response to these challenges, the Miyawaki Urban Forest at Sector 31, Faridabad stands as a powerful example of how nature-based solutions can transform cities.

Developed using the Miyawaki afforestation technique, this high-density native plantation will:

🌳 Reduce Local Temperature
Dense green cover helps lower the urban heat island effect by providing shade and increasing evapotranspiration.

🌿 Improve Air Quality
Native trees act as natural air filters, absorbing pollutants and sequestering carbon dioxide, contributing to improved AQI levels.

🦋 Enhance Biodiversity
The project creates habitat for birds, butterflies, bees, and other pollinators, restoring ecological balance in an urban setting.

This initiative has been made possible through the generous sponsorship of HCIL Comtel and the valuable land partnership support of HSVP (Haryana Shahari Vikas Pradhikaran).

At Rise Foundation, we believe Urban Forests are not just plantations — they are long-term climate infrastructure for healthier communities.

Together, we are planting not just trees, but hope for a sustainable future.

For more information contact us at mail2risefoundation@gmail.com or +919717764262

Two Maps, One Crisis: What They Really Say About India’s Air

When you compare a NASA Fire Map with an AQI map of India, the connection seems obvious:
fires cause air pollution.

But the reality is more complex.

Fire hotspots are mostly in rural and forest areas, while the worst AQI is concentrated in urban regions like Delhi, Kanpur, Patna, and Lucknow — places with very few local fires.

This means fires worsen pollution, but they don’t create it.

High AQI is mainly driven by:

  • Vehicular emissions
  • Coal-based industries and power plants
  • Construction dust
  • Waste burning
  • Loss of green cover

Fires act as seasonal amplifiers, pushing already polluted air into the “severe” zone.

Fire is the trigger. The system is the problem.

What actually works:

  • Stop open burning
  • Clean energy and electric mobility
  • Better public transport
  • Dust control at construction sites
  • Decentralized waste management
  • Large-scale urban forests and green belts

Fire maps show where land is burning.
AQI maps show where people are suffering.
Solutions decide whether our cities breathe — or choke.

Note : Links for

NASA Fire incidents : https://firms.modaps.eosdis.nasa.gov/map/#d:today;l:fires_all,earth;@79.9,29.4,6.1z

AQI live data : https://www.aqi.in/in/air-quality-map?map_type=aqi&loc_slug=india

Recognition Under the Vidyanjali Programme: A CSR Milestone

At Rise Foundation NGO, we believe that sustainable social impact is built through collaboration, shared responsibility, and a strong focus on education.

We are honoured to be recognised for our CSR activities under the Vidyanjali Programme by SCERT. This recognition reflects the collective efforts of our team, volunteers, and partners who work consistently to strengthen school ecosystems and support student development.

We sincerely thank Ms. Madhuri Varshney for her guidance and encouragement, which have been instrumental in advancing education-led grassroots initiatives.

This milestone reinforces our commitment to responsible, transparent, and community-driven CSR initiatives aligned with national priorities. We remain dedicated to empowering students, strengthening communities, and creating long-term social impact through meaningful partnerships.

Together we rise. Together we serve.


Team Rise Foundation

Soil Collection Methods for Soil Testing

Principle

Soil testing is an essential component of soil resource management. Each sample collected must be a true representative of the area being sampled. Utility of the results obtained from the laboratory analysis depends on the sampling precision. Hence, collection of large number of samples is advisable so that sample of desired size can be obtained by sub-sampling. In general, sampling is done at the rate of one sample for every two hectare area. However, at-least one sample should be collected for a maximum area of five hectares. For soil survey work, samples are collected from a soil profile representative to the soil of the surrounding area.

Note : 1 hectare = 2.5 acres ; 1 acre = 0.4 hectare

Materials required
            1. Spade or auger (screw or tube or post hole type)
            2. Khurpi  
            3. Core sampler 
            4. Sampling bags
            5. Plastic tray or bucket

Points to be considered

  1. Collect the soil sample during fallow period.
  2. In the standing crop, collect samples between rows.
  3. Sampling at several locations in a zig-zag pattern ensures homogeneity.
  4. Fields, which are similar in appearance, production and past-management practices, can be grouped into a single sampling unit.
  5. Collect separate samples from fields that differ in colour, slope, drainage, past management practices like liming, gypsum application, fertilization, cropping system etc.
  6. Avoid sampling in dead furrows, wet spots, areas near main bund, trees, manure heaps and irrigation channels.
  7. For shallow rooted crops, collect samples up to 15 cm depth. For deep rooted crops, collect samples up to 30 cm depth. For tree crops, collect profile samples.
  8. Always collect the soil sample in presence of the farm owner who knows the farm better

Procedure

  1. Divide the field into different homogenous units based on the visual observation and farmer’s experience.
  2. Remove the surface litter at the sampling spot.
  3. Drive the auger to a plough depth of 15 cm and draw the soil sample.
  4. Collect at least 10 to 15 samples from each sampling unit and place in a bucket or tray.
  5. If auger is not available, make a ‘V’ shaped cut to a depth of 15 cm in the sampling spot using spade.
  6. Remove thick slices of soil from top to bottom of exposed face of the ‘V’ shaped cut and place in a clean container.
Soil_Sample_001

                   1 inch / 2.5 cm                                  6 inches (15 cm)

  1. Mix the samples thoroughly and remove foreign materials like roots, stones, pebbles and gravels.
  2. Reduce the bulk to about half to one kilogram by quartering or compartmentalization.
  3. Quartering is done by dividing the thoroughly mixed sample into four equal parts. The two opposite quarters are discarded and the remaining two quarters are remixed and the process repeated until the desired sample size is obtained.
  4. Compartmentalization is done by uniformly spreading the soil over a clean hard surface and dividing into smaller compartments by drawing lines along and across the length and breadth. From each compartment a pinch of soil is collected. This process is repeated till the desired quantity of sample is obtained.
  5. Collect the sample in a clean cloth or polythene bag.
  6. Label the bag with information like name of the farmer, location of the farm, survey number, previous crop grown, present crop, crop to be grown in the next season, date of collection, name of the sampler etc.

Collection of soil samples from a profile

  1. After the profile has been exposed, clean one face of the pit carefully with a spade and note the succession and depth of each horizon.
  2. Prick the surface with a knife or edge of the spade to show up structure, colour and compactness.
  3. Collect samples starting from the bottom most horizon first by holding a large basin at the bottom limit of the horizon while the soil above is loosened by a khurpi.
  4. Mix the sample and transfer to a polythene or cloth bag and label it.

Processing and storage

  1. Assign the sample number and enter it in the laboratory soil sample register.
  2. Dry the sample collected from the field in shade by spreading on a clean sheet of paper after breaking the large lumps, if present.
  3. Spread the soil on a paper or polythene sheet on a hard surface and powder the sample by breaking the clods to its ultimate soil particle using a wooden mallet.
  4. Sieve the soil material through 2 mm sieve.
  5. Repeat powdering and sieving until only materials of >2 mm (no soil or clod) are left on the sieve.
  6. Collect the material passing through the sieve and store in a clean glass or plastic container or polythene bag with proper labeling for laboratory analysis.
  7. For the determination of organic matter it is desirable to grind a representative sub sample and sieve it through 0.2 mm sieve.
  8. If the samples are meant for the analysis of micronutrients at-most care is needed in handling the sample to avoid contamination of iron, zinc and copper. Brass sieves should be avoided and it is better to use stainless steel or polythene materials for collection, processing and storage of samples.
  9. Air-drying of soils must be avoided if the samples are to be analyzed for NO3-N and NH4-N as well as for bacterial count.
  10. Field moisture content must be estimated in un-dried sample or to be preserved in a sealed polythene bag immediately after collection.
  11. Estimate the moisture content of sample before every analysis to express the results on dry weight basis.

Guidelines for sampling depth

S.No.CropSoil sampling depth
Inchescm
1Grasses and grasslands25
2Rice, finger millet, groundnut, pearl millet, small millets etc.(shallow rooted crops)615
3Cotton, sugarcane, banana, tapioca, vegetables etc. (deep rooted crops)922
4Perennial crops, plantations and orchard cropsThree soil samples at 12, 24 and  36 inchesThree soil samples at 30, 60 and 90 cm

🌿 मिट्टी परीक्षण क्या है ?

मिट्टी परीक्षण — क्यों ज़रूरी है और कैसे काम करता है

स्वस्थ मिट्टी पौधों की बढ़त के लिए सबसे महत्वपूर्ण है। चाहे आप किसान हों, बगीचे के शौकीन हों, या किसी हरित परियोजना पर काम कर रहे हों — मिट्टी की स्थिति को समझना ज़रूरी है। इसीलिए मिट्टी परीक्षण बहुत उपयोगी साबित होता है।

मिट्टी परीक्षण क्या है?

मिट्टी परीक्षण एक वैज्ञानिक प्रक्रिया है जिसमें मिट्टी के नमूनों का विश्लेषण कर उसे पोषक तत्वों और गुणों के लिए जाँचा जाता है। इसका उद्देश्य मिट्टी में मौजूद फॉस्फोरस, पोटेशियम, कैल्शियम, मैग्नीशियम जैसे महत्वपूर्ण तत्वों के स्तर को जानना होता है। इसके अलावा, pH स्तर तथा जैविक सामग्री का मूल्यांकन भी किया जाता है।

मिट्टी परीक्षण क्यों ज़रूरी है?

  • सटीक पोषक तत्व प्रबंधन:
    परीक्षण से पता चलता है कि मिट्टी में कौन-से पोषक तत्व पर्याप्त हैं और कौन-से कम हैं। इससे खाद और उर्वरक का उपयोग सही मात्रा में और सही समय पर किया जा सकता है।
  • उत्तम फसल उत्पादन:
    संतुलित पोषण से पौधे बेहतर बढ़ते हैं। मिट्टी परीक्षण से मिट्टी की वास्तविक ज़रूरतों के हिसाब से प्रबंधन करने में मदद मिलती है।
  • पर्यावरण संरक्षण:
    अत्यधिक उर्वरक उपयोग से पानी और मिट्टी प्रदूषित हो सकती है। मिट्टी परीक्षण से सिर्फ आवश्यक उर्वरक लगाने में मदद मिलती है, जिससे पर्यावरण की रक्षा होती है।
  • मिट्टी स्वास्थ्य की निगरानी:
    समय-समय पर परीक्षण से मिट्टी में होने वाले परिवर्तनों का पता चलता है और आवश्यक सुधार किए जा सकते हैं।

मिट्टी परीक्षण कैसे किया जाता है?

सबसे पहले मिट्टी के नमूने लिए जाते हैं और इन्हें परीक्षण लैब में भेजा जाता है। लैब में रसायनिक परीक्षणों द्वारा यह पता लगाया जाता है कि मिट्टी में कौन-से पोषक तत्व कितने उपलब्ध हैं, pH स्तर क्या है और मिट्टी का गुण-धर्म कैसा है। फिर इन रिपोर्टों के आधार पर विशेषज्ञ यह सुझाव देते हैं कि मिट्टी के लिए कौन-सी सामग्री कितनी मात्रा में उपयोग की जानी चाहिए।

मिट्टी का नमूना लेने के लिए आवश्यक सामग्री

  • नमूना एकत्रित करने के लिए तगारी (तसला)।
  • मिट्टी खोदने के लिए औजार-गेती, फावड़ा, खुरपी।
  • नमूना सुखाने एवं मिलाने के लिए अखबार।
  • नमूना रखने के लिए पॉलिथीन थैली (500 ग्राम)

नमूना एकत्रीकरण विधि

मिट्टी परीक्षण के लिये सबसे महत्वपूर्ण होता है कि मिट्टी का सही नमूना या सैंपल एकत्र करना । इसके लिये आवश्यक है कि नमूना इस प्रकार लिया जाये कि वह जिस खेत या क्षेत्र से लिया गया हो उसका पूर्ण प्रतिनिधित्व करता हो

1. मिट्टी परीक्षण के लिए सबसे पहले खेत में 4 से 5 मिट्टी के नमूना लेने के लिए स्थान का चयन करें, फिर उस जगह की ऊपर की मिट्टी की फावड़ा से साफई कर लें, उसके बाद कुदाली या खुरपी से ‘व्ही (V) आकार का 6-12 इंच ( 15 to 30 centimeter) गहरा गड्ढा कर लें, उसके बाद गड्ढे से खुरपी की सहायता से ऊपर से नीचे दोनों तरफ से आधा किलो मिट्टी खोद लें।

2. उसके बाद सभी गड्ढों की मिट्टी को एक साथ इकट्ठा करके मिला लें फिर उस ढेर में से मिट्टी के नमूना हेतु आधा किलोग्राम मिट्टी को एक प्लास्टिक या कपड़े की थैली में जमा कर लें, यदि मिट्टी गीली हो तो छाँव में सुखा लें।

  • चित्रानुसार मिट्टी का ढेर लगाएं।
  • चार बराबर हिस्सों में बांटे।
  • चित्रानुसार दो हिस्से चुनें तथा दो हिस्से छोड़े।
  • फिर इन दो हिस्सों को मिलाए
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3. इस प्रकार मिट्टी का नमूना जाँच के लिए तैयार हो जाता है। उस नमूना को मिट्टी परीक्षण प्रयोगशाला में भेजकर जाँच करा लें और मिट्टी स्वास्थ्य कार्ड के आधार पर ही अगली फसलों में उर्वरकों का प्रयोग करें।

मिट्टी परीक्षण दोबारा कितने समय के अंतराल पर करायें?

  • कम से कम 3 या 5 साल के अन्तराल पर अपनी भूमि की मिट्टी का परीक्षण एक बार अवश्य करवा लें। एक पूरी फसल-चक्र के बाद मिट्टी का परीक्षण हो जाना अच्छा है। हल्की या नुकसानदेह भूमि की मृदा का परीक्षण की अधिक आवश्यकता है।
  • वर्ष में जब भी भूमि की स्थिति नमूने लेने योग्य हो, नमूने अवश्य एकत्रित कर लेना चाहिये। यह जरूरी नहीं कि मिट्टी का परीक्षण केवल फसल बोने के समय करवाया जाये।