Lime pelleting inoculated serradella (Ornithopus spp.) increases nodulation and yield

Hartley, E.; Gemell, L.G.; Herridge, D. F.

doi:10.1016/j.soilbio.2004.04.010

Cited by 7 publications

(9 citation statements)

References 13 publications

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“…Overall, it includes, seeds inside a container (e.g., rotating drum, cement mixer), where a binder (e.g., adhesive compound), a filler (bulking agent) if needed, and active ingredients (e.g., nutrients, protectants, and PBM) are mixed (Scott, 1989; Accinelli et al, 2016; Padhi and Pattanayak, 2018). Fillers can be single or mixed components, and the most commonly applied are peat (Georgakopoulos et al, 2002; Hartley et al, 2004; Hameeda et al, 2010), talc (Mukherjee and Sen, 1998; Sabaratnam and Traquair, 2002; Berninger et al, 2016), and lime (Brockwell and Phillips, 1970; Gault and Brockwell, 1980; Padhi and Pattanayak, 2018). These components can function as microbial carriers and modify seed size, shape, and weight.…”

Section: Seed Coating With Beneficial Microbesmentioning

confidence: 99%

“…Recently, biochar and chitosan have been also considered as fillers/carriers for microbial seed coating (Głodowska et al, 2016; Głodowska et al, 2017; Ruiz-de-la-Cruz et al, 2017). Binders, natural or synthetic polymers such as methyl cellulose (Hartley et al, 2004; Haikal, 2008; Swaminathan et al, 2016; Amutha, 2017; Lopisso et al, 2017), carboxymethyl cellulose (Sharma et al, 2003; Roesti et al, 2006; Nawar, 2007; Zhou et al, 2017), gum arabic (Kyei-Boahen et al, 2001; Ehteshamul-Haque et al, 2007; Dawar et al, 2008; Singh et al, 2014), or polysaccharide Pelgel (Jensen et al, 2000; Li et al, 2002; Ugoji et al, 2006) are generally added during or toward the end of the coating process in order to bind the exogenous materials and reduce the amount of dust in the final product (Pedrini et al, 2017). Some adhesives (e.g., gum arabic and xanthan gum) can also be used to extend the survival of PBM applied to seeds (Jambhulkar et al, 2016).…”

Section: Seed Coating With Beneficial Microbesmentioning

confidence: 99%

“…The classification of seed coating types is usually based on the weight, size, and grouping properties of the coated seeds. Most studies do not specify the type of coating used, yet when reported, the most frequent are seed dressing, film coating, and pelleting (Hartley et al, 2004; Shaharoona et al, 2008; Domaradzki et al, 2012; Accinelli et al, 2016; Celly et al, 2016; Jacob et al, 2016; Shahzad et al, 2017; Accinelli et al, 2018b; Rocha et al, 2019a). Moreover, other terms such as slurry coating can also be found in the literature related to microbial seed coating (Pill et al, 2009; Hartley et al, 2013; Rozier et al, 2017; Rehman et al, 2018).…”

Section: Seed Coating With Beneficial Microbesmentioning

confidence: 99%

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Seed Coating: A Tool for Delivering Beneficial Microbes to Agricultural Crops

et al. 2019

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Plant beneficial microbes (PBMs), such as plant growth-promoting bacteria, rhizobia, arbuscular mycorrhizal fungi, and Trichoderma, can reduce the use of agrochemicals and increase plant yield, nutrition, and tolerance to biotic–abiotic stresses. Yet, large-scale applications of PBM have been hampered by the high amounts of inoculum per plant or per cultivation area needed for successful colonization and consequently the economic feasibility. Seed coating, a process that consists in covering seeds with low amounts of exogenous materials, is gaining attention as an efficient delivery system for PBM. Microbial seed coating comprises the use of a binder, in some cases a filler, mixed with inocula, and can be done using simple mixing equipment (e.g., cement mixer) or more specialized/sophisticated apparatus (e.g., fluidized bed). Binders/fillers can be used to extend microbial survival. The most reported types of seed coating are seed dressing, film coating, and pelleting. Tested in more than 50 plant species with seeds of different dimensions, forms, textures, and germination types (e.g., cereals, vegetables, fruits, pulses, and other legumes), seed coating has been studied using various species of plant growth-promoting bacteria, rhizobia, Trichoderma, and to a lesser extent mycorrhizal fungi. Most of the studies regarding PBM applied via seed coating are aimed at promoting crop growth, yield, and crop protection against pathogens. Studies have shown that coating seeds with PBM can assist crops in improving seedling establishment and germination or achieving high yields and food quality, under reduced chemical fertilization. The right combination of biological control agents applied via seed coating can be a powerful tool against a wide number of diseases and pathogens. Less frequently, studies report seed coating being used for adaptation and protection of crops under abiotic stresses. Notwithstanding the promising results, there are still challenges mainly related with the scaling up from the laboratory to the field and proper formulation, including efficient microbial combinations and coating materials that can result in extended shelf-life of both seeds and coated PBM. These limitations need to be addressed and overcome in order to allow a wider use of seed coating as a cost-effective delivery method for PBM in sustainable agricultural systems.

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Section: Seed Coating With Beneficial Microbesmentioning

confidence: 99%

Section: Seed Coating With Beneficial Microbesmentioning

confidence: 99%

Section: Seed Coating With Beneficial Microbesmentioning

confidence: 99%

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Seed Coating: A Tool for Delivering Beneficial Microbes to Agricultural Crops

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“…Sebelum ditanam biji kedelai permukaannya disterilkan dengan etanol 70% dan dibilas dengan air suling steril [25]. Inokulasi dilakukan sesuai perlakuan modifikasi Hartley [26] dengan memberi 0,3 g inokulan untuk 4 g biji yang dicampur air steril. Penanaman dilakukan dengan cara membuat lubang tanam sedalam 3 -5 cm, setelah itu biji kedelai sebanyak 4 biji dimasukkan langsung pada lubang tanam dan ditimbun dengan tanah.…”

Section: Metodologiunclassified

PERBAIKAN KUALITAS BAHAN PEMBAWA Rhizobium dan FUNGI PELARUT FOSFAT MELALUI STERILISASI SINAR GAMMA Co-60 DAN PENGARUHNYA TERHADAP PERTUMBUHAN DAN PRODUKSI KEDELAI (Glycine max L.)

Bachtiar¹,

Anas²,

Sutandi³

et al. 2019

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ABSTRAKPERBAIKAN KUALITAS BAHAN PEMBAWA RHIZOBIUM dan FUNGI PELARUT FOSFAT MELALUI STERILISASI SINAR GAMMA Co-60 DAN PENGARUHNYA TERHADAP PERTUMBUHAN DAN PRODUKSI KEDELAI. Varietas unggul kedelai yang dihasilkan dari teknik mutasi radiasi harus didukung oleh teknologi pertanian seperti penggunaan pupuk hayati. Penelitian ini dilakukan untuk mempelajari pengaruh iradiasi gamma Co-60 terhadap 1) sifat kimia bahan pembawa, 2) viabilitas mikrob dalam bahan pembawa, 3) pertumbuhan dan produksi kedelai varietas Mutiara 3. Komposisi bahan pembawa yang diuji meliputi b0= 100% gambut (%w/w), b1= 50% gambut + 50% biochar (% w/w), b2=50% gambut + 50% fosfat alam (% w/w), b3=50% gambut + 25 % biochar + 25 % fosfat alam (% w/w), b4=100% biochar (% w/w). Metode sterilisasi yang digunakan yaitu dengan iradiasi sinar gamma Co-60 (r) dan autoclave (a). Hasil menunjukkan komposisi bahan pembawa dan sterilisasi sinar gamma berpengaruh terhadap sifat kimia bahan pembawa yaitu pH, NO3, dan P tersedia. Viabilitas Rhizobium R35 dan fungi pelarut fosfat FPF4 dengan jumlah populasi tertinggi diperoleh pada bahan pembawa biochar dengan sterilisasi iradiasi sinar gamma. Penggunaan pupuk hayati dengan bahan pembawa biochar yang disterilisasi dengan iradiasi sinar gamma Co-60 berpengaruh nyata dalam meningkatkan serapan N dan serapan P pada biji, dan hasil tanaman kedelai varietas Mutiara 3.

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“…The value of pressmud as an organic manure has been well recognized for utilizing in agriculture, as it contains valuable plant nutrients in organic form besides being a very effective soil ameliorant. The soil amelioration, especially the cations was supposed to create favourable conditions for the survival and activity of symbiotic soil bacteria, for nodulation and for plant growth (Stanley, 2002;Brauer et al, 2002;Hartley et al, 2004). Hence, these soils would have a positive effect over the nitrogen fixation leading to an increase in the soil available nitrogen content.…”

Section: Soil Available Nutrientsmentioning

confidence: 99%

Influence of amendments on soil fertility status of sugarcane with poor quality irrigation water

2009

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Excess of cations such as sodium and anions like carbonate, bicarbonate and chloride present in irrigation water, increase soil pH, Electrical Conductivity (EC) and Exchangeable Sodium Percentage (ESP) affect the growth and yield of the crop. To realise these impacts two field experiments were conducted for poor quality irrigation water with different amendments. Field experiment (I) was conducted on sandy loam soil at Pandipalayam, TNPL, Tamil Nadu, India with treated paper mill effluent as irrigation source and experiment (II) was conducted on sandy clay loam soil at Vatamalaipalayam, Thudialur, Tamil Nadu, India with saline groundwater as irrigation source, in a split plot design, with three replications. Among the different amendment applications, pressmud @ 15 t ha -1 along with 50 % (Gypsum) the soil pH (the reduction of 1.33 % was observed under treated paper mill effluent irrigation and 1.25 % was observed under saline groundwater irrigation), registered low EC, soil organic carbon and available nutrients (N, P, and K) were also improved under poor quality irrigation water.

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Lime pelleting inoculated serradella (Ornithopus spp.) increases nodulation and yield

Cited by 7 publications

References 13 publications

Seed Coating: A Tool for Delivering Beneficial Microbes to Agricultural Crops

Seed Coating: A Tool for Delivering Beneficial Microbes to Agricultural Crops

PERBAIKAN KUALITAS BAHAN PEMBAWA Rhizobium dan FUNGI PELARUT FOSFAT MELALUI STERILISASI SINAR GAMMA Co-60 DAN PENGARUHNYA TERHADAP PERTUMBUHAN DAN PRODUKSI KEDELAI (Glycine max L.)

Influence of amendments on soil fertility status of sugarcane with poor quality irrigation water

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