Analytical profile index in smart-vertical farming technique for greenhouse vegetable crops production

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Research Paper 15/07/2022
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Analytical profile index in smart-vertical farming technique for greenhouse vegetable crops production

Justin V. Dumale, Evaristo A. Abella, Chito F. Sace
J. Bio. Env. Sci.21( 1), 1-9, July 2022.
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Abstract

Analytical profile indexing was conducted in (CHAT), CLSU Hydroponics, Aquaponics Technologies Demonstration Farm and Experimentation Station, Central Luzon State University, to identify bacteria present in hydroponic production water system using a recirculating prototype module. Water samples were collected from different sampling points, in three collection periods with an interval of 20 days. Environmental factors such as temperature and relative humidity, water quality monitoring parameters like pH, total dissolved solids, water temperature, electrical conductivity and dissolved oxygen were monitored to attain a desirable ecosystem for optimal growth of living organism in the systems. Water samples taken from system of greenhouse hydroponic production were analyzed for total viable bacteria (CFU/ml) in the water. Microbial identification and comparison of bacterial isolates were done using biochemical identification of bacteria based on the methods of API Staph and API Coryne strip. A total of twenty-five (25) bacteria were isolated out of which fifteen (15) strains of microbes have relatively high growth in the medium were identified and described. Eleven (11) bacterial isolates belongs to genus Staphylococcus, namely S. capitis, S. lugdunensis, S. cohnii, S. sciuri,  S. auricularis, S. hominis, S. lentus, S. haemolyticus, S. hyicus, S. warneri  and, S. caprae one under each  genus Corynebacterium, Cellulomonas Leifsonia, and Kocuria were identified and characterized to determine the structure, arrangements, habitat, activity, and pathogenicity of bacteria present in the hydroponic production. The results reveal great diversity of organisms isolated including the presence of pathogenic microorganism, endophytic bacteria (rhizobacter) and commensally occurring bacteria.

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Abajo I, Floh EI, Ferrara F, Barbosa H. 2010. Diazotrophyc Rhizobacteria Isolated from Sugarcane Can Release Amino Acids In A Synthetic Culture Medium. Biol. Fertil. Soils. 2011 47, 957-962.

Ahmad F, Ahmad I, Khan MS. 2008. Screening of free-living rhizospheric bacteria fortheir multiple plant growth promoting activities. Microbiol Res 163(2), 173-181.

Alfano JR, Collmer A. 1996. Bacterial Pathogens in Plants: Life up against the wall. The Plant Cell 8, 1683-1698.

Arthur MI, Fierer N, Jackson RB. 2011. The diversity and biogeography of soil bacterial communities. Proc. Natl. Acad. USA 103, 626-632.

Bruce J, Drysdale EM. 1994. Trans-shell transmission. In:    Microbiology of the Avian Egg (eds R.G. Board and R. Fuller) pp. 63-91. Chapman and Hall, London.

Carruthers EA(ND). 2002. Principles of Plant Nutrition- 5th Edition. Fromhttps:// Books. Google. Com. Au/ Books?

Christopherson E, Reis Vm, Baldani JI, Döbereiner JT. 2013. Occurrence of the Endophytic Diazotrophs Herbaspirillum spp. In Roots, Stems, and Leaves, Predominantly of Gramineae. Biol. Fertil. Soils. 1996 21, 197-200.

Cook MI, Beissinger SR, Toranzos GA, Rodriguez RA, Arendt WJ. 2005. Microbial Infection Affects Egg Viability and Incubation Behavior In A Tropical Passerine. Behav. Ecol 16, 30-36.

Costa LE,  Queiroz MV,  Borges AC. 2012. Isolation And Characterization Of Endophytic Bacteria Isolated From The Leaves Of The Common Bean (Phaseolus vulgaris) Braz J Microbiol. 2012 Oct-Dec 43(4), 1562-1575.

Kaul S, Sharma T, Dhar MK. 2016. “Omics” Tools For Better Understanding The Plant Endophyte Interactions. Front. Plant Sci 7, 955. DOI: 10.3389/Fpls.2016. 00955

Magnani Gs, Didonet Cm, Cruz Lm, Picheth Cf, Pedrosa Fo, Souza Em. 2010. Diversity of Endophytic Bacteria In Brazilian Sugarcane. Genet. Mol. Res  9, 250-258.

Nithya A, Babu S.  2017. Prevalence Of Plant Beneficial And Human Pathogenic Bacteria Isolated From Salad Vegetables In India. Bmc Microbiol 17, 2017.

Paulitz TC, Belanger RR. 2001. Biological Control In Greenhouse Systems. Annu. Rev. Phytophatol 39, 33-103.

Phukon M, Sahu P, Angamuthu Nithya R. 2013. Unusual Occurrence of Staphylococcus warneri as Endophyte in Fresh Fruits Along with Usual Bacillus spp.

Sace CF, Estigoy PJr  Natividad. 2015. Economic Analysis of an Urban Vertical Garden For Hydroponic Production of Lettuce (Lactuta Sativa). International Journal of Contemporary Applied Sciences 2(7), 42-56

Sace CF, Fitzsimmons KM. 2013. Vegetable Production in Recirculating Aquaponic Syatem Using Nile Tilapia (Oreochromis niloticus) with and without Freswater Prawn (Macrobranchium rosenbergii). Academia Journal of Agricultural Research 1(12), 236-250

Sace CF, Estigoy JH. 2015. Lettuce Production in A Recirculating Hydroponic System. American Journal of Agricultural Science 2(5), 196-202.

Salve VB, Hiware CJ. 2008. Study on Water Quality Wanparakalpa Reservoir Nagpur, Near Paili Vaijnath, District   Beed. Merathwada Region. J. Aqua. Biol 21(2), 113-117.

Scattini NA, Maj SP. 2017. Aquaponic Integration And Automation- A Critical Evaluation. Published By Canadian Center of Science and Education   ISSN 1913-1844 E-ISSN 1913-1852

Song J, Sen A. 2002. Endophytes: A Rich Source Of Functional Metabolites. Nat Prod Rep 18, 448-459. The Internacional Potash Institute 324-341, Florence, Italy

Sturz J, Kimpinski AV. 2014. Endoroot Bacteria Derived From Marigolds (Tagetes Spp.) Can Decrease Soil Population Densities of Root-Lesion Nematodes In The Potato Root Zone. Education   ISSN 1913-1844 E-ISSN 1913-1852

Walsberg GE, Schmidt CA. 1992. Effects of Variable Humidity on Embryonic Development and Hatching Success of Mourning Doves. Auk 109, 309-314.