Production of Speed Potato (Solanum tuberosum L.) under the Recycling Capillary Culture System using Controlled Release Fertilizers

Kang, Bong Kyoon; Han, Sang Heon

doi:10.2503/jjshs.74.295

Cited by 6 publications

(5 citation statements)

References 8 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…CRFs have been used on agronomic crops (Shoji et al, 2001;Wen et al, 2001) and perennial fruit crops (Hanson and Retamales, 1992;Obreza and Rouse, 2006). Improved growth and yields with CRF compared with soluble fertilizers have been documented on potato (Solanum tuberosum) (Hutchinson et al, 2003;Kang and Han, 2005;Pack et al, 2006;Zvomuya et al, 2003) and onion (Allium cepa) (Drost et al, 2002). Effects included greater total and marketable yields.…”

Section: Strategies For Use Of Srf and Crfmentioning

confidence: 99%

Release Mechanisms for Slow- and Controlled-release Fertilizers and Strategies for Their Use in Vegetable Production

Morgan

Cushman

Sato

2009

hortte

View full text Add to dashboard Cite

Fertilizer material costs, particularly nitrogen (N), have increased substantially over the past 5 years. Increased costs, along with increased awareness of the impact of fertilizer leaching on the environment in humid regions, have increased interest in use of slow-release fertilizer (SRF) or controlled-release fertilizer (CRF) materials. The goals of SRF and CRF use are that no nutrient should be limiting for crop uptake, there should be improved nutrient uptake efficiency, and nutrient-leaching potential should be reduced. These considerations are particularly important for crops grown on sandy soils with relatively low nutrient and water holding capacities. Release rates of biodegradable, or slow-release materials, such urea formaldehyde, isobutylidene diurea, and methylene urea are proportional to soil microbial activity and are therefore soil temperature dependent. These materials are N sources and depend on soil biological activity, thus, soil temperature during specific crop growth phenology must be considered and release may be delayed by soil fumigation. Whereas CRFs depend on diffusion through coatings and not biodegradation, both are soil moisture and temperature dependent. Examples of coated materials are sulfur-coated urea, polymer-coated urea, and polymer/sulfur-coated urea. The advantage of these materials is that leachable fertilizer elements other than N can be incorporated within the coating. However, this comes at an increased cost. The use of any single or combination of these materials depends on time of year, the length of crop cycle and crop nutrient demand patterns, and the use of soil fumigants.

show abstract

Section: Strategies For Use Of Srf and Crfmentioning

confidence: 99%

Release Mechanisms for Slow- and Controlled-release Fertilizers and Strategies for Their Use in Vegetable Production

Morgan

Cushman

Sato

2009

hortte

View full text Add to dashboard Cite

show abstract

“…To date, cultivation tests with CRFs have been conducted on a variety of horticultural and food crops, such as rice [5], strawberries [6], melons [7], peppers [8,9], tomatoes [10], onions [11], citruses [12], and potatoes [13][14][15]. In most plants, the use of CRF was determined to be superior to that of short-acting fertilizer.…”

Section: Introductionmentioning

confidence: 99%

Growth effects of the application of new controlled-release fertilizers on Phalaenopsis spp.

Kim

et al. 2018

Appl Biol Chem

View full text Add to dashboard Cite

To develop a controlled-release fertilizer (CRF) suitable for nutrient absorption characteristics of Phalaenopsis, four kinds of new controlled-release fertilizer (NCRF 1-4) with different dissolution rates were developed and studied to determine the concentration and amount suitable for growth of Phalaenopsis. To make NCRF, new acryl-based polymers were developed and used as fertilizer coating solutions. In addition, a fluidized bed coater for coating fertilizer was developed and used in this study. To test the growth of Phalaenopsis, 10-monthold Phalaenopsis seedlings were planted in plastic pots (diameter 10 cm) filled with 100% Sphagnum moss and cultivated for approximately 100 days from May 29, 2015, to September 11, 2015. NCRF 1, NCRF 2, and Osmocote, an imported fertilizer, consistently exhibited release patterns of fertilizer nutrients in a directly proportional form; however, NCRF 3 and NCRF 4 displayed a sigmoid-like tendency of fertilizer nutrient release with a slower initial dissolution rate. Furthermore, leaf length, leaf width, fresh weigh, and root weight of Phalaenopsis were the highest when growing in 1.5 g/pot of NCRF 3 fertilizer, and the pH and electrical conductivity (EC) of the soil were stable at this concentration of NCRF 3. Based on our results, we suggest that 1.5 g/pot of NCRF 3 fertilizer is the ideal concentration and fertilizer for growing Phalaenopsis.

show abstract

“…Hassanpanah et al (2022) results use of sulphonated silicon nutrient solution with elemental sulfur S8 on potato cultivars, increases tuber yield and water use efficiency. More number of mini-tuber using suitable nutrient solution was also reported by Gunasena and Harris (1968), Balamani et al (1986), Kang and Han (2005), Brianna (2006), Hassanpanah (2014aHassanpanah ( , 2014bHassanpanah ( , 2022.…”

Section: Resultsmentioning

confidence: 71%

“…Balamani et al (1986) concluded the use of calcium can increase the ability of nutrition in the tips of stolons to start tuber formation. Kang and Han (2005) reported that the use of nitrogen in the nutrient solution increases the growth of potato crops. Also, results that the use of a nutrient solution including total nitrogen, phosphorus, potassium and magnesium increased the tuber yield by 13% per square meter.…”

Section: Introductionmentioning

confidence: 99%

“…Silicon increases tuber yield (Kaya et al, 2006;Shahabifar, 2006;Ansuriet al, 2014;Golmoradi Marani et al, 2017;Gerami & Torabipoor, 2021;Hassanpanah et al, 2022). Hassanpanah et al (2022) by examining the effect of sulphonated silicon nutrient solution with elemental sulfur S8 on potato cultivars, they concluded the use of sulfonated silicon nutrient solution with elemental sulfur S-8 in two forms of foliar spraying at a rate of 3 per thousand and use of 2 kg of solution in 200 liters of water increased tuber yield and water use efficiency.More number of mini-tubers per plant can be produced by repeating one or more harvests during the season (Lommen & Struik, 1992a, 1992b, 1992cLommen, 1995), dense planting in a greenhouse bed (Jones, 1988), hydroponic (Muro et al, 1997;Rolot & Seutin, 1999), aeroponics (Rolot & Seutin, 1999;Nugaliyadde et al, 2005;Kang & Han, 2005;Farran & Mingo-Castel, 2006;Hassanpanah, 2014) and nutrient solution (Gunasena & Harris, 1968;Balamani et al, 1986;Kang & Han, 2005;Brianna, 2006;Hassanpanah, 2014aHassanpanah, , 2014b. This research aims to increase the mini-tuber number and weight per unit areaby using sulphonated silicon nutrient solution with elemental sulfur S8 in potato cultivars and transferring experience and knowledge and new technologies to potato mini-tubers producers for Ardabil province, Iran was implemented during 2022.…”

Section: Introductionmentioning

confidence: 99%

See 1 more Smart Citation

Introduction of Nutrient Solution of Silicon Sulfonated With Elemental Sulfur S8 for the Mini-tuber Production of Potato Cultivars from in vitro Micro-tuber

Hassanpanah¹,

Anzabi²,

Giglou³

et al. 2022

JAS

View full text Add to dashboard Cite

This study with aims to investigate the effect of nutrient solution sulfonated silicon with elemental sulfur S8 in the mini-tuber production of potato cultivars in the greenhouse of Potato Research Station of Ardabil Province, Iran was done during April till August of 2022. This experiment was carried out based on the factorial experimental design in two factors and three repetitions. The first factor with two levels including: 1. foliar spraying with nutrient solution sulfonated silicon with elemental sulfur S8 and 2. Control (without nutrient solution sulfonated silicon with elemental sulfur S8) and the second factor consists of micro-tubers of five cultivars in the name of Agria, Jelli, Anosha, T297 and Sheida. The foliar spraying with S-8 nutrient solution was done in five stages of vegetative growth, plant growth and development, tuberization, flowering and tuber development and tuber bulking. The results of analysis of variance showed that there was a significant difference between the levels of nutrient solution, cultivars and the interaction between nutrient solution and cultivars in terms of mini-tuber number and weight per square meter, mini-tuber number per plant and plant height. Anosha cultivar had the highest values in terms of mini-tuber number and weight per square meter and tuber number per plant traits by using nutrient solution and was placed in the group A. The Agria, Jelli, Sheida and T297 cultivars were placed in the group B and had the highest amount by using nutrient solution in terms of these characteristics. The Agria, Jelli and Anosh cultivars had the highest plant height by using nutrient solution. Based on the results, using sulfonated silicon nutrient solution with elemental sulfur S8 causing an increase mini-tuber number per square meter (515 numbers), mini-tuber number per plant (5 numbers), mini-tuber weight per square meter (47 kg) and plant height (92 cm) became.

show abstract

Production of Speed Potato (Solanum tuberosum L.) under the Recycling Capillary Culture System using Controlled Release Fertilizers

Cited by 6 publications

References 8 publications

Release Mechanisms for Slow- and Controlled-release Fertilizers and Strategies for Their Use in Vegetable Production

Release Mechanisms for Slow- and Controlled-release Fertilizers and Strategies for Their Use in Vegetable Production

Growth effects of the application of new controlled-release fertilizers on Phalaenopsis spp.

Introduction of Nutrient Solution of Silicon Sulfonated With Elemental Sulfur S8 for the Mini-tuber Production of Potato Cultivars from in vitro Micro-tuber

Contact Info

Product

Resources

About