Development of Biofertiliser Based on Agricultural Waste for Sustainable Agriculture

Authors

  • Marningot Situmorang Universitas Sahid
  • Boy Angga Universitas Andalas

DOI:

https://doi.org/10.70076/apj.v1i4.37

Keywords:

Biofertiliser, Agricultural Waste, Sustainable Agriculture

Abstract

Based on data from the Central Statistics Agency (BPS), the use of chemical fertilisers in Indonesia has increased by 50% in the last two decades, contributing to the decline of soil fertility and groundwater pollution (Rosadi, 2023). Research by the Indonesian Institute of Sciences (LIPI) found that the use of biofertilisers from agricultural waste can reduce the need for chemical fertilisers by up to 40%, while improving soil fertility in a sustainable manner. This research will focus on the development of agricultural waste-based biofertiliser formulations, with trials of their application in various crop types and land conditions in Indonesia. This research uses an experimental method with a quantitative approach, which aims to develop and test the effectiveness of agricultural waste-based biofertilisers. Table 1. The Bima variety (a1) has a larger number of plants than the Mentes variety (a2). Nutrient management also has a major impact on plant growth. Application of one dose of recommended NPK together with 100 kg/ha of pearl NPK (b3) and one dose of recommended NPK together with organic fertiliser and biofertiliser (b4) resulted in the highest plant growth at 8 weeks of age (Table 1). In the experiment, intensive pest control was carried out in the field. As a result, onion caterpillar (Spodoptera exigua hubn) populations per clump were low and fusarium wilt (Fusarium oxysporum hanz) infestation levels were generally low in both variety and nutrient management treatments. There was no evidence that varietal treatments or nutrient management had a significant impact. The application of agricultural waste-based biofertilisers not only improves crop yields, but also supports the sustainability of the agricultural ecosystem by minimising the use of synthetic chemicals and optimising the use of available resources.

References

Ariani, M., Kartikawati, R., & Setyanto. (2009). Nitrous Oxide Emission on Cropland Management System in Rainfed Rice Field. https://media.neliti.com/media/publications/134324-ID-none.pdf

Arsyad. (2024, June 13). N2O Greenhouse Gas Emissions to Rise 40% in 40 Years. Katadata.co.id. https://green.katadata.co.id/berita/666a92a16bb2a/emisi-gas-rumah-kaca-n2o-naik-40-dalam-40-tahun

Bagaskara. (2023, April 4). Agricultural Waste: Definition, Types, Examples, and Impacts. Mutu International. https://mutucertification.com/jenis-limbah-pertanian-contoh-dampaknya/

Cahyadi, D., & Widodo, W. D. (2017). Effectiveness of Biofertilisers on the Growth and Yield of Caisin (Brassica Chinensis L.). Agrohorti Bulletin, 5(3). https://doi.org/10.29244/agrob.v5i3.16466

Department of Environment. (2024). Getting to Know the Greenhouse Effect and Its Impact on Life. Semarangkota.go.id. https://dlh.semarangkota.go.id/mengenal-efek-rumah-kaca-dan-dampaknya-bagi-kehidupan/

Faculty of Agriculture, University of Medan Area. (2023, August 18). Bacterial Innovation in Indonesian Agriculture: Unlocking New Opportunities for Sustainable Growth - Faculty of Agriculture, Medan Area University. Faculty of Agriculture, University of Medan Area. https://pertanian.uma.ac.id/inovasi-bakteri-dalam-pertanian-indonesia-membuka-peluang-baru-untuk-pertumbuhan-yang-berkelanjutan/

Institut Teknologi Sepuluh Nopember. (2019, August 20). ITS Student Innovation Reduces Water Pollution from Agricultural Irrigation. ITS News. https://www.its.ac.id/news/2019/08/20/inovasi-mahasiswa-its-mereduksi-pencemaran-air-dari-irigasi-pertanian/

Iqbal, M. (2022, July 26). 10+ Causes of Land Degradation in Indonesia. Lindungihutan.com. https://lindungihutan.com/blog/penyebab-degradasi-lahan/

Isma, S. (2021, August 6). Biogenic Nanosilica Innovation from Agricultural Waste with Environmentally Friendly Production Principles - Kompasiana.com. KOMPASIANA; Kompasiana.com. https://www.kompasiana.com/saniaisma/610ce37806310e14eb25b304/inovasi-biogenik-nanosilika-dari-limbah-pertanian-dengan-prinsip-produksi-ramah-lingkungan

Nugroho, A. (2020, September 25). Indonesia Faces 14 Million Hectares of Critical Land - Universitas Gadjah Mada. Universitas Gajah Mada. https://ugm.ac.id/id/berita/20119-indonesia-hadapi-14-juta-ha-lahan-kritis/

Panda.id. (2023, September 8). Agricultural Waste and Rural Water Pollution. Panda. https://www.panda.id/limbah-pertanian-dan-polusi-air-di-desa/

Rosadi. (2023, June 21). Water and Soil Pollution Environmental Issues in West Kalimantan. Indonesia. https://prcfindonesia.org/pencemaran-air-dan-tanah-persoalan-lingkungan-hidup-di-kalimantan-barat/

Simanungkalit, R., Suriadikarta, D., Saraswati, R., Setyorini, D., & Hartatik, W. (2006). Organic Fertilizer And Biofertilizer. https://www.kikp-pertanian.id/pustaka/uploaded_files/temporary/DigitalCollection/MzM3MzczNzgwOGFhZWMzNWFhODBjM2ExZWRhMWRhODg4N2U3ZjQ3YQ==.pdf

Susilo, E., Novita, D., Warman, I., & Parwito. (2021). Utilisation of Agricultural Waste to Make Organic Fertiliser in Sumber Agung Village, Arma Jaya District, North Bengkulu Regency. Pakdemas Journal of Community Service, 1(1), 7-12. https://doi.org/10.58222/pakdemas.v1i1.10

Wikipedia. (2020, August). Agricultural pollution. Wikipedia.org; Wikimedia Foundation, Inc. https://id.wikipedia.org/wiki/Polusi_pertanian

Downloads

Published

2024-11-30

How to Cite

Situmorang, M., & Angga, B. (2024). Development of Biofertiliser Based on Agricultural Waste for Sustainable Agriculture. Agricultural Power Journal, 1(4), 10–18. https://doi.org/10.70076/apj.v1i4.37