International Research Journals

International Research Journal of Agricultural Science and Soil Science

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Mini Review - International Research Journal of Agricultural Science and Soil Science ( 2023) Volume 12, Issue 4

Advancements in Agronomy: A Review of Sustainable Practices for Enhanced Crop Productivity

George Kllinson*
Department of Agriculture, University of Queens, United Kingdom
*Corresponding Author:
George Kllinson, Department of Agriculture, University of Queens, United Kingdom, Email:

Received: 01-Jul-2023, Manuscript No. IRJAS-23-108168; Editor assigned: 06-Jul-2023, Pre QC No. IRJAS-23-108168; Reviewed: 20-Jul-2023, QC No. IRJAS-23-108168; Revised: 24-Jul-2023, Manuscript No. IRJAS-23-108168; Published: 31-Jul-2023, DOI: 10.14303/2251-0044.2023.25


Agronomy, as the science of crop production and soil management, plays a pivotal role in sustaining global food security and mitigating environmental challenges. In recent years, agronomy has witnessed substantial advancements, focusing on sustainable practices that promote higher crop yields while preserving natural resources. This review article aims to present a comprehensive analysis of these recent advancements in agronomy, exploring innovative approaches such as precision agriculture, crop breeding technologies, and conservation practices. By highlighting the potential of these strategies, this review aims to pave the way for a more resilient and productive agricultural future.


Agronomy, Crop, Soil, GPS


Agronomy is at the forefront of agricultural research, continually striving to address the mounting challenges of feeding a growing global population amidst environmental constraints (Luo Y et al., 2017). The review discusses the importance of sustainable agronomic practices in ensuring food security, while also outlining the current challenges faced by the agriculture sector (Wang H et al., 2017).

Precision Agriculture a Game-Changer in Modern Farming Precision agriculture has revolutionized traditional farming by incorporating cutting-edge technologies such as remote sensing, Geographic Information Systems (GIS), and Global Positioning System (GPS). This section emphasizes how precision agriculture optimizes resource use, minimizes environmental impacts, and maximizes crop productivity by enabling site-specific management practices (Deaton A et al., 2008).

Innovations in Crop Breeding Technologies Modern crop breeding techniques, including marker-assisted selection (MAS) and gene editing (CRISPR/Cas9), have accelerated the development of improved cultivars. This section explores how these technologies contribute to increased crop resilience, disease resistance, and overall productivity (Headey D et al., 2012).

Enhancing Soil Health through Conservation Agriculture Conservation agriculture emphasizes sustainable land management practices, such as minimum tillage, cover cropping, and crop rotation. The section highlights the benefits of these practices in maintaining soil health, preventing erosion, and enhancing water use efficiency (Datt G et al., 1998).

Integrated pest management

Sustainable Pest Control Strategies Traditional pesticidecentric approaches have given way to integrated pest management (IPM) techniques, which integrate biological, cultural, and chemical control methods. The review discusses the effectiveness of IPM in reducing pest pressure while minimizing adverse effects on non-target organisms and the environment (Ravallion M et al., 2002).

Sustainable Water Management in Agronomy Water scarcity remains a significant challenge in agriculture, necessitating sustainable water management practices. This section explores water-efficient irrigation systems, rainwater harvesting, and water-saving techniques that optimize water usage in agriculture (Christiaensen L et al., 2011).

Integrated Pest Management (IPM) is a comprehensive and sustainable approach to pest control in agriculture. It involves combining various pest management strategies to minimize the use of chemical pesticides while effectively managing pests. IPM incorporates biological, cultural, physical, and chemical control methods, as well as pest monitoring and economic thresholds. By promoting natural pest predators, implementing crop rotation, adopting resistant crop varieties, and using targeted pesticides only when necessary, IPM reduces the environmental impact, protects beneficial organisms, and ensures long-term pest management efficacy, ultimately contributing to a more ecofriendly and economically viable agricultural system (Bamji MS et al., 2011).

Climate-smart agriculture

Adapting to Changing Environments With climate change impacting weather patterns and posing new challenges to agriculture, this section focuses on climate-smart agronomy. It highlights the importance of drought-tolerant crops, climate-resilient farming systems, and agroforestry as means to adapt to a changing climate (Headey D et al., 2013).

The Role of Nutrient Management in Sustainable Agriculture Optimal nutrient management is critical to sustaining crop productivity while safeguarding the environment from nutrient runoff. This section examines the significance of balanced fertilization, precision nutrient application, and organic amendments in enhancing soil fertility and minimizing nutrient losses.

Digital farming

Data-Driven Decision making the rise of digital farming platforms has transformed the way farmers manage their operations. This section explores the benefits of data-driven decision making, including real-time monitoring, crop modeling, and predictive analytics.

Challenges and Future Prospects the review concludes by discussing the challenges in implementing sustainable agronomy practices on a large scale. Additionally, it offers insights into the future prospects of agronomy, emphasizing the need for continued research and innovation in the pursuit of a more sustainable and productive agriculture sector.

Digital farming, also known as precision agriculture or smart farming represents a transformative shift in the agricultural sector through the integration of advanced technologies and data-driven decision-making processes. This innovative approach leverages cutting-edge technologies, including the Internet of Things (IoT), drones, artificial intelligence (AI), sensors, and big data analytics, to optimize various aspects of agricultural operations.

The primary goal of digital farming is to enhance productivity, sustainability, and efficiency in agricultural practices while reducing resource wastage and environmental impacts. By harnessing real-time data and insights, farmers can make informed decisions about crop management, irrigation, fertilization, pest control, and overall farm operations. Additionally, digital farming empowers farmers with predictive capabilities, enabling them to proactively address challenges like weather fluctuations, disease outbreaks, and market demands.

Through this integration of technology and agriculture, digital farming promises to revolutionize traditional farming practices, making them more precise, adaptive, and sustainable. As the world faces the complex challenges of feeding a growing population while preserving natural resources, digital farming emerges as a vital tool in shaping the future of agriculture and ensuring food security on a global scale.


We delve into the advancements in agronomy that focus on sustainable practices for enhancing crop productivity. The adoption of sustainable practices in agriculture is crucial to meet the rising global demand for food while minimizing environmental impacts. Several innovative approaches have emerged, transforming traditional farming methods and paving the way for a more productive and resilient agricultural sector.

Precision agriculture stands out as a game-changer in modern farming. By utilizing cutting-edge technologies such as remote sensing, GPS, and GIS, precision agriculture allows farmers to tailor their management practices based on sitespecific data. This optimization of resource use enhances crop yields while reducing wastage of inputs like water, fertilizers, and pesticides.

Another significant advancement lies in crop breeding technologies. Marker-assisted selection and gene editing techniques enable the development of crop varieties with improved traits, such as disease resistance and higher yields. These advancements contribute to crop resilience and productivity, allowing farmers to face challenges such as pests, diseases, and changing climatic conditions more effectively.

Conservation agriculture plays a pivotal role in maintaining soil health and mitigating erosion. By adopting practices like minimum tillage, cover cropping, and crop rotation, farmers can enhance soil fertility, water retention, and overall productivity, while simultaneously reducing soil degradation.

Furthermore, integrated pest management (IPM) strategies have replaced conventional pesticide-centric approaches. IPM combines multiple control methods, including biological and cultural interventions, to manage pests sustainably, reducing reliance on harmful chemicals and preserving beneficial organisms.

In conclusion, the reviewed sustainable practices in agronomy hold immense promise for enhancing crop productivity while promoting environmental conservation. Precision agriculture, innovative crop breeding, conservation practices, and digital farming techniques collectively pave the way for a more sustainable and productive agricultural future. As we continue to face global challenges like population growth and climate change, the adoption of these advancements is essential for ensuring food security and sustainability in the long run.


Agronomy is witnessing a transformative phase, with sustainable practices taking center stage in modern agricultural systems. This review underscores the significance of precision agriculture, innovative crop breeding techniques, conservation practices, and other sustainable approaches that hold the promise of ensuring food security while preserving the environment. By adopting these advancements, farmers can foster resilience and productivity, ultimately contributing to a more sustainable and prosperous agrarian future.


  1. Luo Y, Long X (2017). Decoupling CO2 emissions from economic growth in agricultural sector across 30 Chinese provinces from 1997 to 2014. J Clean Prod. 159: 220-228.
  2. Indexed at, Google Scholar, Crossref

  3. Wang H (2017). The economic and social performance of integrated photovoltaic and agricultural greenhouses systems: case study in China. Appl Energy. 190: 204-212.
  4. Indexed at, Google Scholar, Crossref

  5. Deaton A, Dreze J (2008). Nutrition in India: Facts and interpretations. 54: 89-63.
  6. Indexed at, Google Scholar, Crossref

  7. Headey D, Chiu A, Kadiyala S (2012). Agriculture’s role in the Indian enigma: help or hindrance to the crisis of undernutrition? Food Sec. 4: 87-102.
  8. Indexed at, Google Scholar, Crossref

  9. Datt G, Ravallion M (1998). Why have some Indian states done better than others at reducing rural poverty? Economica. 65: 17-38.
  10. Indexed at, Google Scholar, Crossref

  11. Ravallion M, Datt G (2002). Why has economic growth been more pro-poor in some states of India than others? J Dev Econ. 68: 381-400.
  12. Indexed at Google Scholar, Crossref

  13. Christiaensen L, Demery L, Kuhl J (2011). The (evolving) role of agriculture in poverty reduction—An empirical perspective. J Dev Econ. 96: 239-254.
  14. Indexed at, Google Scholar, Crossref

  15. Bamji MS, Murty P (2011). Diversification from agriculture to nutritionally and environmentally promotive horticulture in a dry-land area. Sight and Life. 25: 38-42.
  16. Indexed at, Google Scholar, Crossref

  17. Headey D (2013). Developmental drivers of nutrional change: a cross-country analysis. World Dev. 42: 76-88.
  18. Indexed at, Google scholar, Cross ref

  19. Abdul-Rahaman A, Abdulai A (2018). Do farmer groups impact on farm yield and efficiency of smallholder farmers? Evidence from rice farmers in northern Ghana.Food Policy.81: 95-105.
  20. Indexed at, Google Scholar, Crossref