Soil-borne diseases are considered as a significant constraint to crop production. Soil borne plant pathogens such as Rhizoctonia sp., Fusarium sp., Verticillium sp., Sclerotinia sp., Pythium sp., and Phytophthora sp. can result in 50-75% yield loss of many crops such as rice, wheat, cotton, maize, vegetables, fruit and ornamentals (Panth et al., 2020). They often survive for longer periods as resistant structures like microsclerotia, sclerotia, chlamydospore or oospores in soil organic matter, host plant debris or free-living organisms. Accurate diagnosis of a particular disease is difficult due to the similarity in symptoms such as root blackening, root rot, seedling damping-off, stunting, wilting, yellowing, bark cracking and twig or branch dieback which in turn makes the disease harder to manage. To control these disease outbreaks, conventional synthetic chemical fungicides need to be applied at regular intervals throughout the growing season of the crop. The use of synthetic fungicides poses serious concerns, including environmental pollution and human health risks. They also negatively affect aquatic ecosystems and beneficial soil microorganisms. In response, disease management is shifting toward sustainable and biological based approaches. Eco-friendly practices such as crop rotation and soil solarization are gaining importance. Methods like anaerobic soil disinfestation, steam sterilization, and bio-fumigation are also effective. Additionally, resistant varieties and biocontrol products support environmentally safe management of soil-borne diseases. Modern approaches to effective soil borne disease management The following emerging trends highlight modern approaches for effective soil borne disease management. Microbial-Based Approaches - The use of beneficial microorganisms such as Trichoderma sp., Bacillus sp., Pseudomonas sp., Actinomycetes sp. has gained significant attention. These agents suppress pathogens through mechanisms like antibiosis, competition, mycoparasitism, and induction of systemic resistance in plants. Microbial consortia are increasingly preferred over single strains due to their enhanced and stable performance. Endophytes and Plant Microbiome Engineering - Endophytic microbes colonize internal plant tissues and provide long-term protection against soil-borne pathogens. They promote plant growth, enhance nutrient uptake, and improve tolerance to biotic and abiotic stresses. Manipulating the plant microbiome using beneficial endophytes is emerging as a promising strategy for sustainable disease suppression. Resistant Varieties and Genetic Approaches - Breeding for disease-resistant cultivars remains one of the most economical and environmentally safe approaches. Advances in molecular breeding, marker-assisted selection, and genome editing technologies such as CRISPR/Cas9 have accelerated the development of crops resistant to soil-borne pathogens. Host-induced gene silencing (HIGS) is also being explored to target pathogen virulence genes. Soil Health Management and Cultural Practices - Improving soil health through crop rotation, intercropping, organic amendments, and green manuring reduces pathogen buildup in soil. Practices such as soil solarization, anaerobic soil disinfestation (ASD), bio fumigation with Brassica residues, and soil steaming are effective non-chemical methods to suppress soil-borne pathogens. Disease suppressive soils have led to the development and adoption of new approaches and to a better understanding of soil microbial community responses (Gurel et al., 2019). These advances show that active management of soil microbial communities could be an active method to develop natural suppression of soil borne plant pathogens. Omics and Molecular Diagnostics - Advances in genomics, transcriptomics, proteomics, and metabolomics have enhanced understanding of plant–pathogen–microbe interactions. These tools help identify virulence factors, resistance genes, and beneficial microbial functions. Rapid molecular diagnostics, including PCR-based and biosensor technologies, enable early and accurate detection of soil-borne pathogens. Precision Agriculture and Digital Technologies - Precision farming tools such as remote sensing, GIS, IoT-based soil sensors, and decision support systems allow site-specific disease monitoring and targeted interventions. These technologies minimize unnecessary chemical inputs and improve disease management efficiency. Reduced risk of chemicals using botanicals - New-generation fungicides with lower toxicity, along with plant-based products such as essential oils, plant extracts, and natural metabolites, are being developed as safer alternatives to conventional chemicals. These compounds often have multiple modes of action, reducing the risk of resistance development. Modern chemical methods - Emerging chemical management emphasizes reduced-dose and target-specific fungicides to minimize environmental contamination while maintaining efficacy against soil-borne pathogens. New-generation soil fumigants such as dimethyl disulfide (DMDS) are being promoted as safer alternatives to conventional broad-spectrum fumigants. Nano-formulated fungicides and nematicides improve stability, slow release, and targeted delivery of active ingredients in the soil. Controlled release and encapsulated chemicals ensure prolonged protection of the rhizosphere with lower application frequency. Chemical seed treatments using systemic fungicides protect seedlings from early root and collar infections caused by soil-borne fungi. Resistance-inducing chemicals like chitosan and salicylic acid analogues activate plant defense mechanisms rather than directly killing pathogens. Bio fumigation using plant-derived chemicals (isothiocyanates from Brassica residues) is emerging as a semi-chemical approach to suppress soil pathogens. Combination products integrating fungicides with nematicides or biological agents are being developed for broader soil pathogen control. Precision agriculture tools enable site-specific chemical application, reducing chemical load and non-target effects in soil ecosystems. Pulsed electric field (PEF) technology - Pulsed electric field (PEF) technology, distinguished by its environmentally friendly and non-polluting characteristics, is widely applied in fields such as food material sterilization, tumor ablation, sludge treatment and compound degradation. As an emerging non-thermal sterilization method, PEF effectively inactivates microorganisms by briefly altering their electrophysiological and biochemical states, causing cell membrane rupture and internal structural damage (Wang et al., 2018). Integrated Disease Management (IDM) - The most effective emerging trend is the integration of biological, cultural, genetic, and technological approaches. IDM combines resistant varieties, beneficial microbes, soil health practices, and precision tools to achieve long-term, sustainable management of soil-borne diseases. Applications of emerging trends in soil-borne disease management in plants Beneficial bacteria and fungi are the indicative of suppressive composts represent a promising starting point for predicting disease suppression by composts (Logo et al., 2025). The change from antagonism to coexistence between Bacillus and Trichoderma not only enhances the biomass of both microbes but also induces CAZyme family gene expression. This induction boosts the immune responses of tomato plants and establishes a potential defensive environment, thereby preventing the invasion of Fusarium oxysporum f. sp. lycopersici was reported by Li et al., 2024. Metal CuO nanoparticles (NPs) was found to be effective against R. pseudosolanacearum under both in vitro and in vivo conditions (Saini et al., 2025). By binding effectively to GHF5 protein of nematode, 2,4-Di-tert-butylphenol could inhibit the protein’s function, by disrupting the nematode’s ability to degrade plant cell walls. Hence, 2,4-Di-tert-butylphenol can be a promising candidate for nematode control in agricultural systems was reported by Meena et al., 2024. In green houses, to manage soil borne pathogens the optimal combination for soil sterilization is an electric field strength of 8.2 kVcm−1, a pulse width of 15 μs, and 306 pulses. Based on that, pulsed electric field treatment yielded the most effective sterilization efficacy of 76.16 % for soil samples with a moisture content of 16.2 % and a bulk density of 1.31 gcm−3 (Chen et al., 2024). The effectiveness of a chitosan based double-layer seed coating strategy employing fungicide, bioagent- T. harzianum Th4d and nutrient mobilizer- Bradyrhizobium sp. in providing robust protection against various biotic and abiotic stresses was reported by Vijaykumar et al., 2024. Conclusion Emerging trends in soil-borne disease management emphasize sustainability, precision, and biological integration through the combined use of advanced diagnostics, host resistance, and ecological approaches to protect plant health and soil ecosystems. Although challenges such as field-level consistency, scalability, and regulatory constraints remain, a holistic, multidisciplinary approach supported by continued research, farmer adoption, and policy support will enhance disease control efficacy, restore soil health, and ensure sustainable crop production and global food security. References Chen, J., Sun, Y., Cui, Q., Hao, X., Liu, Z and Li, G. 2024. effects of pulsed electric fields on the elimination of Fusarium oxysporum in greenhouse soil. Agriculture. 14 (12): 2158. Gurel, B. F., Kabir, N., Liyanapathiranage, P. 2019. Effect of organic inputs and solarization for the suppression of Rhizoctonia solani in woody ornamental plant production. Plants. 8: 138. Li, T., Shi, X., Wang, J., Zhou, Y., Wang, T., Xu, Y., Xu, Z., Raza, W., Liu, D and Shen, Q. 2025. Turning antagonists into allies: Bacterial-fungal interactions enhance the efficacy of controlling Fusarium wilt disease. Science Advances. 11 (7): 5089. Logo, A., Boppre, B., Fuchs, J., Maurhofer, M., Oberhansli, T., Thurig, B., Widmer, F., Mayerhofer, J and Flury, P. 2025. Analyses of 37 composts revealed microbial taxa associated with disease suppressiveness. Applied and Environmental Microbiology. 91 (11): 0110025. Meena, K.S., Themuhi, M., Ishwarya, G., Manju, P and Prasad, M.S. 2024. Nematicidal evaluation of secondary metabolites from Bacillus aryabhattai against reniform nematode (Rotylenchulus reniformis) using in vitro and in silico approaches. Indian Journal of Nematology. 54 (2): 227-241. Panth, M., Hassler, S.C and Gurel, B. F. 2020. Methods for management of soilborne diseases in crop production. Agriculture. 10 (1): 16. Saini, M., Gupta, M., Sagar, V., Chauhan, A., Saini, R and Kumar, G. 2025. Molecular identification and management of Ralstonia pseudosolanacearum (Phylotype I) causing bacterial wilt of tomato using copper oxide nanoparticles in Himachal Pradesh, India. Crop Protection. 191. 107152. Vijaykumar, S., Rajeswari, B., Kavya, M., Chandrika, K.P., Prasad, R.D., Prasanna, S.L and Yadav, S.K. 2024. Programmable chitosan-based double layer seed coating for biotic and abiotic-stress tolerance in groundnut. International Journal of Biological Macromolecules. 275. 133586. Wang, M., Wang, L.H., Bekhit, A.E.A., Yang, J., Hou, Z.P., Wang, Y.Z., Dai, Q.Z., Zeng, X.A. A review of sublethal effects of pulsed electric field on cells in food processing. Journal of Food Engineering. 2018. 223: 32–41. Content contributors Sk. Menaaz Fathima, Department of Plant Pathology, College of Agriculture, Rajendranagar, Professor Jayashankar Telangana Agricultural University, Hyderabad, Telangana, India. V. Ramya, Department of Plant Pathology, Regional Agricultural Research Station, Warangal, Telangana, India. K. Sankari Meena, Indian Institute of Oilseeds Research, Hyderabad, Telangana, India.