Skip to content

2 papers indexed here

We haven’t gathered this author’s papers yet. Follow them and we’ll fetch their work.

Not the right person? Other researchers publish under this name.

Review Open access Jul 2026

Ecological Concepts for Sustainable Weed Management: A Comprehensive Review of Principles, Practices, Challenges, and Future Prospects

Weed management remains one of the greatest challenges confronting sustainable agricultural production due to the persistent competition between weeds and crops for essential resources such as light, water, nutrients, and space. Conventional weed control has historically relied heavily on synthetic herbicides because of their effectiveness and ease of application. However, the continuous dependence on herbicides has resulted in several environmental and agronomic challenges, including herbicide resistance, environmental pollution, biodiversity loss, soil degradation, contamination of water resources, and potential risks to human and animal health. These concerns have stimulated increasing interest in ecological approaches that promote sustainable weed management while maintaining agricultural productivity and ecosystem integrity. This review critically examines the ecological concepts underpinning sustainable weed management and highlights their significance in modern agriculture. The paper explores the principles of weed ecology, integrated weed management (IWM), weeds as ecological goods, weed community dynamics, non-chemical weed management, ecological approaches to weed control, and the influence of climate change on weed interference. Particular attention is given to the ecological interactions among weeds, crops, soil organisms, and environmental factors that determine weed population dynamics and management outcomes. The review demonstrates that sustainable weed management is most effective when multiple complementary approachesincluding cultural, mechanical, biological, physical, ecological, and precision-based technologiesare integrated to suppress weed populations below economically damaging thresholds rather than pursuing complete weed eradication. Furthermore, the review discusses the emerging roles of conservation agriculture, cover cropping, crop diversification, allelopathy, biological control, artificial intelligence, robotics, remote sensing, precision agriculture, and climate-smart farming in enhancing weed management efficiency while reducing dependence on chemical herbicides. The paper also examines the major challenges limiting the adoption of ecological weed management, including high labour requirements, limited technical knowledge, inadequate extension services, financial constraints, herbicide resistance, and the increasing impacts of climate change. Despite these constraints, significant opportunities exist through advances in agroecology, biotechnology, digital agriculture, policy support, and interdisciplinary research, which collectively provide promising pathways for improving weed management under diverse production systems. The review concludes that ecological weed management represents a resilient, environmentally sound, and economically viable strategy for achieving sustainable agricultural intensification and long-term food security. Future efforts should focus on strengthening research, innovation, farmer education, policy implementation, and the integration of ecological principles with emerging technologies to develop adaptive weed management systems capable of addressing evolving agricultural and environmental challenges. The findings of this review provide a comprehensive scientific foundation for researchers, students, extension personnel, policymakers, and agricultural practitioners seeking to promote sustainable weed management in the face of global environmental change.

I. S. Osu, A. Ibrahim, A. Mijinyawa et al. · 0 citations
Open access Jul 2026

Evaluation of Selected Rice (Oryza Sativa L.) Genotypes for Ratooning Potential and Yield Stability Across Different Environments

Ratoon rice production offers an opportunity to increase rice productivity by utilizing the regrowth of harvested plants, thereby reducing production costs and shortening the cropping cycle. This study evaluated the ratooning potential and yield stability of five rice (Oryza sativa L.) genotypes across two environments in Niger State, Nigeria. Field experiments were conducted during the wet season at Badeggi and Edozhigi using a randomized complete block design with three replications. The genotypes evaluated were FARO 44, FARO 67, MADU YANKPA, WALUYE, and YANDA GWASHE. Data were collected on phenological, growth, and yield-related traits for both the main and ratoon crops and analyzed using analysis of variance, while treatment means were separated using Fisher's Least Significant Difference (LSD) test at the 5% probability level. Significant (P ≤ 0.05) genotypic differences were observed for most of the measured traits, indicating substantial genetic variability among the evaluated genotypes. Grain yield was consistently lower in the ratoon crop than in the main crop; however, the genotypes differed significantly in their ability to sustain productivity after harvest. FARO 67 produced the highest grain yield in both the main crop (3,207.20 kg ha⁻¹) and ratoon crop (822.25 kg ha⁻¹) and exhibited the greatest yield stability across environments. MADU YANKPA was the earliest flowering genotype, indicating its suitability for short-duration production systems. The significant genotype × environment interaction for grain yield demonstrated differential genotype responses across locations. Overall, FARO 67 combined superior grain yield, ratooning ability, and yield stability, making it a promising genotype for cultivation and for use in breeding programmed aimed at improving ratoon rice productivity.

H. G. Yusuf, M. Dangana, S. Audu et al. · 0 citations

We use cookies to run the site and, with your consent, for analytics and to show ads. See our Cookie Policy.