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Soil Fertility Status and Nutrients Content in Maize (Zea Mays L.) Tissue at Migna Kura in Wayu Tuka District, East Wollega, Ethiopia

Title: Soil Fertility Status and Nutrients Content in Maize (Zea Mays L.) Tissue at Migna Kura in Wayu Tuka District, East Wollega, Ethiopia

Master's Thesis , 2021 , 101 Pages , Grade: A

Autor:in: Mintesinot Desalegn (Author)

Geography / Earth Science - Geology, Mineralogy, Soil Science
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Summary Excerpt Details

This study was initiated to assess soil fertility, quantify nutrients content in maize tissue, and mapping selective soil parameters of Migna Kura Kebele, Wayu Tuka District, east Wollega, Ethiopia in 2019. A total of 32 surface soils and leaf samples were randomly collected for nutrients concentration quantify. Soil physicochemical properties and maize leaf nutrients of 32 samples were analyzed using standard laboratory procedures.

Declined soil fertility is one of the main constraints to improve food production in Ethiopia and inadequate information about soil fertility in the study area. To replenish impoverished soils, site and crop-specific studies of soil fertility parameters are required to devise appropriate suggestions for site-specific balanced fertilizer recommendation and soil fertility management in the study area.

Excerpt


Table of Contents

1. INTRODUCTION

2. LITERATURE REVIEW

2.1. Concept of Soil Fertility and Productivity

2.2. Soil Fertility Indicators

2.2.1. Soil physical properties as indicators of soil fertility

2.2.1.1. Soil moisture content

2.2.1.2. Soil texture

2.2.1.3. Bulk density

2.2.1.4. Total porosity

2.2.2. Soil chemical properties as indicators of soil fertility

2.2.2.1. Soil pH and electrical conductivity

2.2.2.2. Exchangeable acidity

2.2.2.3. Soil organic matter and C: N

2.2.2.4. Total nitrogen

2.2.2.5. Available phosphorous

2.2.2.6. Exchangeable Bases

2.2.2.7. Cation exchange capacity

2.2.2.8. Micronutrients

2.3. Soil Fertility Mapping

2.4. Factors Affect Available Macro and Micronutrients in Soil

2.5. Soil and Plant Relationship

3. MATERIALS AND METHODS

3.1. Description of the Study Area

3.1.1. Location

3.1.2. Climate

3.1.3. Topography and Soils

3.1.4. Land use and Vegetations

3.1.5. Farming system

3.2. Site Selection and Soil Sampling

3.3. Soil Samples Preparation and Handling

3.4. Laboratory Analysis of Soil Samples

3.4.1. Soil physical analysis

3.4.2. Soil Chemical Properties Analysis

3.5. Plant Tissue Sampling and Preparation

3.6. Plant Tissue Analysis

3.7. Data Analysis and Interpretation

3.8. Spatial Interpolation and Soil Fertility Mapping

4. RESULTS AND DISCUSSION

4.1. Soil Management Practices in the Study area

4.2. Selected Soil Physical Properties

4.2.1. Moisture content

4.2.2. Particle size distribution

4.2.3. Bulk density and total porosity

4.3. Selected Soil Chemical Properties

4.3.1. Soil pH and available phosphorous, potassium and Sulfur

4.3.2. Exchangeable acidity and percent acid and aluminum saturation

4.3.3. Soil organic carbon, total nitrogen, and carbon to nitrogen ratio

4.3.4. Exchangeable bases, cation exchange capacity, and percent base saturation

4.3.5. Status of micronutrients in soil of the study area

4.4. Concentration of Nutrients in Maize Leaf Tissue

4.4.1. Macronutrients

4.4.2. Micronutrients

4.5. Relationship of Nutrients Concentration in Soil and Maize Leaf Tissue

4.6. Soil Fertility Status Maps of the Study Area

5. SUMMARY AND CONCLUSION

Objectives and Research Themes

The research aims to assess the current soil fertility status and quantify the nutrient content within maize tissue in Migna Kura Kebele. By analyzing soil physicochemical properties and correlating them with leaf tissue nutrient levels, the study seeks to identify critical nutrient deficiencies to support rational, site-specific fertilizer recommendations for sustainable maize production.

  • Soil fertility assessment and physicochemical property analysis.
  • Quantification of macro- and micronutrients in maize leaf tissue.
  • Spatial mapping of key soil fertility parameters using kriging interpolation.
  • Evaluation of soil-plant nutrient relationships to optimize fertilizer application.

Excerpt from the Book

3.1. Description of the Study Area

The study was conducted at Migna Kura Kebele in Wayu Tuka District of Oromia Regional State, Western highlands of Ethiopia. Gute is the administrative center of the district, it is located at a distance of 12 km from Nekemte Zonal capital town. The district is located 320 km from the capital city, Addis Ababa toward the west of the country and 10 km away from Nekemte. It is bounded by Sibu Sire in the north and east, Leka Dulecha in the south, and Guto Gida in the west. Geographically, the district is located in the Western highlands of Ethiopia (Figure 1) lying between 8°56'56"N and 9°7'49"N and 36°32'38"E and 36°49'3"E. According to WTWAO (2007), the altitude of the district ranges from 1300-3140 m.a.s.l. The study area is located 5 km from the Gute administration town toward the east of the district and 1 km from Gaba Jimata town toward the south. It is bounded by Gaba Jimata town and Kebeles of Wara Babo Migna in the North, Gara Hudha in the south, Wali Galte in the east, and Gute Badiya in the west.

Summary of Chapters

1. INTRODUCTION: Discusses the significance of maize in Ethiopia's economy, the critical problem of soil fertility decline, and the necessity of site-specific management strategies.

2. LITERATURE REVIEW: Reviews the concepts of soil fertility and productivity, indicators of soil health, soil mapping techniques, and the relationship between soil and plant nutrient status.

3. MATERIALS AND METHODS: Details the location, climate, sampling strategies for soil and leaf tissues, and the specific laboratory procedures used for nutrient analysis and spatial mapping.

4. RESULTS AND DISCUSSION: Presents findings on soil physical and chemical properties, concentration of nutrients in maize leaves, and the creation of soil fertility status maps for the study area.

5. SUMMARY AND CONCLUSION: Provides a final overview of the study's key findings regarding nutrient deficiencies and offers recommendations for improved, sustainable fertilization and soil management practices.

Keywords

Soil physicochemical, Macronutrients, Micronutrients, maize leaf, Mapping, Ethiopia, Soil fertility, Fertilizer recommendation, Nitisols, Crop production, Soil acidity, Nutrients depletion, Soil management, Sustainable agriculture, Spacial interpolation

Frequently Asked Questions

What is the fundamental purpose of this research?

The research intends to evaluate the soil fertility status and quantify nutrient levels in maize tissue to improve sustainable maize production in Migna Kura Kebele, Ethiopia.

Which thematic areas are primarily addressed?

The study covers soil physicochemical analysis, macronutrient and micronutrient availability, nutrient concentration in plant tissues, and spatial soil fertility mapping.

What is the core objective or research question?

The primary objective is to bridge the gap in area-specific soil information by assessing nutrient status and defining rational fertilizer requirements to boost maize crop yields.

What scientific methodologies were applied?

The study employed systematic soil and leaf tissue sampling, standard laboratory diagnostic procedures, and ArcGIS-based ordinary kriging for spatial variability mapping.

What content is covered in the main section of the document?

The main section analyzes soil physical properties (like moisture and bulk density), soil chemical indicators (such as pH, OC, and nitrogen), and the correlation between soil nutrient levels and maize leaf tissue concentration.

Which keywords best characterize this work?

Key terms include soil fertility, macronutrients, micronutrients, maize leaf tissue, spatial mapping, soil acidity, and nutrient management in Ethiopia.

Why are boron and zinc deficiencies highlighted in this study?

The analysis revealed that 100% of the soil samples were deficient in boron and zinc, identifying them as critical yield-limiting nutrients in the study area that require targeted fertilization.

How does soil acidity affect the findings?

Soil acidity (pH below 5.5) was identified as a major factor limiting nutrient availability, leading to decreased phosphorus and nitrogen uptake and increased aluminum toxicity in the maize fields.

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Details

Title
Soil Fertility Status and Nutrients Content in Maize (Zea Mays L.) Tissue at Migna Kura in Wayu Tuka District, East Wollega, Ethiopia
College
Haramaya University
Grade
A
Author
Mintesinot Desalegn (Author)
Publication Year
2021
Pages
101
Catalog Number
V1162812
ISBN (PDF)
9783346584533
ISBN (Book)
9783346584540
Language
English
Tags
soil fertility status nutrients content maize mays tissue migna kura wayu tuka district east wollega ethiopia
Product Safety
GRIN Publishing GmbH
Quote paper
Mintesinot Desalegn (Author), 2021, Soil Fertility Status and Nutrients Content in Maize (Zea Mays L.) Tissue at Migna Kura in Wayu Tuka District, East Wollega, Ethiopia, Munich, GRIN Verlag, https://www.grin.com/document/1162812
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