Studying the Residual Effect of Zeolite and Manure on Alfisols Cation Exchange Capacity and Green Bean Yield

Fudlel, Ahmad Yazid; Minardi, Slamet; Hartati, Sri; Syamsiyah, Jauhari

doi:10.20961/stjssa.v16i2.30190

Cited by 5 publications

(7 citation statements)

References 24 publications

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“…Ravali et al [ 54 ] observed around a 30% increase in CEC of a sandy loam after addition of 7.5 t/ha zeolite. Fudlel et al [ 55 ] reported the positive effect of 5 t/ha zeolite on CEC of an Alfisol. Chomczynska et al [ 56 ] observed around a 20% increase in CEC after 1%w/w zeolite addition to two degraded soils (edge of sand mine excavation and the fallow land).…”

Section: Resultsmentioning

confidence: 99%

Effect of Low Zeolite Doses on Plants and Soil Physicochemical Properties

et al. 2021

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Thousands of tons of zeolitic materials are used yearly as soil conditioners and components of slow-release fertilizers. A positive influence of application of zeolites on plant growth has been frequently observed. Because zeolites have extremely large cation exchange capacity, surface area, porosity and water holding capacity, a paradigm has aroused that increasing plant growth is caused by a long-lasting improvement of soil physicochemical properties by zeolites. In the first year of our field experiment performed on a poor soil with zeolite rates from 1 to 8 t/ha and N fertilization, an increase in spring wheat yield was observed. Any effect on soil cation exchange capacity (CEC), surface area (S), pH-dependent surface charge (Qv), mesoporosity, water holding capacity and plant available water (PAW) was noted. This positive effect of zeolite on plants could be due to extra nutrients supplied by the mineral (primarily potassium—1 ton of the studied zeolite contained around 15 kg of exchangeable potassium). In the second year of the experiment (NPK treatment on previously zeolitized soil), the zeolite presence did not impact plant yield. No long-term effect of the zeolite on plants was observed in the third year after soil zeolitization, when, as in the first year, only N fertilization was applied. That there were no significant changes in the above-mentioned physicochemical properties of the field soil after the addition of zeolite was most likely due to high dilution of the mineral in the soil (8 t/ha zeolite is only ~0.35% of the soil mass in the root zone). To determine how much zeolite is needed to improve soil physicochemical properties, much higher zeolite rates than those applied in the field were studied in the laboratory. The latter studies showed that CEC and S increased proportionally to the zeolite percentage in the soil. The Qv of the zeolite was lower than that of the soil, so a decrease in soil variable charge was observed due to zeolite addition. Surprisingly, a slight increase in PAW, even at the largest zeolite dose (from 9.5% for the control soil to 13% for a mixture of 40 g zeolite and 100 g soil), was observed. It resulted from small alterations of the soil macrostructure: although the input of small zeolite pores was seen in pore size distributions, the larger pores responsible for the storage of PAW were almost not affected by the zeolite addition.

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Section: Resultsmentioning

confidence: 99%

Effect of Low Zeolite Doses on Plants and Soil Physicochemical Properties

et al. 2021

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“…Zeolite media is good to use as a planting medium because it is stable and does not easily change or be damaged by water spray (Sangeetha and Baskar 2016). Zeolite is a mineral that can improve soil and plant productivity because it is alkaline, so that it can neutralize acidic soils, reduce the power of P fixation by soil colloids, increase CEC, and increase the activity of microorganisms in the soil (Jakkula and Wani, 2018;Kurniawan et al, 2019;Lajszner et al, 2018;Aainaa et al, 2018;Fudlel et al, 2019).…”

Section: Discussionmentioning

confidence: 99%

Effectiveness of organic culture media combination on propagation of Gigaspora sp. indigenous to Sorowako, Indonesia

Akib¹,

Nuddin²,

Prayudyaningsih³

2020

Int. J. Curr. Res. Biosci. Plant Biol.

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Utilization of arbuscular mycorrhizal spores carrier media which has heavyweight, not optimal utilization of organic material as arbuscular mycorrhiza inoculant carrier, and founded of arbuscular mycorrhizal spores which have wide adaptability and tolerance on land contaminated with heavy metals are the basis for implementation of this research. The aim of this research was to determine combination of organic culture media which is good for increasing the abundance and diameter of indigenous Gigaspora sp. This research was carried out at Universitas Muhammadiyah Parepare, and Balai Penelitian dan Pengembangan Lingkungan Hidup dan Kehutanan Makassar. The research was compiled using a completely randomized design. The combination treatment of organic culture media used was a combination of rice husk charcoal, sand, zeolite; rice husk charcoal, sand, sawdust; rice husk charcoal, sand, cocopeat; rice husk charcoal, sand, paddy soil; rice husk charcoal, sand, cold larva. The results showed that combination of rice husk charcoal, sand, cocopeat; and combination of rice husk charcoal, sand, paddy soil gives the best results on growth and development of Gigaspora spores. Combination of rice husk charcoal, sand, and cocopeat, can be recommended as media an effective, efficient, and inexpensive spore carrier medium, but should be used after decomposing into compost.

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“…Inhomogeneous materials hamper a mechanistic description of diffusion processes, as only overall diffusion rates for the bulk material are determined [54]. Pores filled with water enhance diffusion within the material, but important for mass transfer is not only the total porosity, but also the structure of the pore network e.g., dead ends and surface area [55], linkage between the pores [56]. A higher influence on such processes by the shape of pores than their sizes was found by Al-Raoush [57].…”

Section: Mass-transfer Processesmentioning

confidence: 99%

Measurement of the Environmental Impact of Materials

2023

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Throughout their life cycles-from production, usage, through to disposal-materials and products interact with the environment (water, soil, and air). At the same time, they are exposed to environmental influences and, through their emissions, have an impact on the environment, people, and health. Accelerated experimental testing processes can be used to predict the long-term environmental consequences of innovative products before these actually enter the environment.We are living in a material world. Building materials, geosynthetics, wooden toys, soil, nanomaterials, composites, wastes and more are research subjects examined by the authors of this book. The interactions of materials with the environment are manifold. Therefore, it is important to assess the environmental impact of these interactions. Some answers to how this task can be achieved are given in this Special Issue.

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Studying the Residual Effect of Zeolite and Manure on Alfisols Cation Exchange Capacity and Green Bean Yield

Cited by 5 publications

References 24 publications

Effect of Low Zeolite Doses on Plants and Soil Physicochemical Properties

Effect of Low Zeolite Doses on Plants and Soil Physicochemical Properties

Effectiveness of organic culture media combination on propagation of Gigaspora sp. indigenous to Sorowako, Indonesia

Measurement of the Environmental Impact of Materials

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