The interaction on the horticultural characteristics of economically important vegetables in simple nutrient addition production (SNAP) hydroponics and conventional production system

Paper Details

Research Paper 10/06/2024
Views (833)
current_issue_feature_image
publication_file

The interaction on the horticultural characteristics of economically important vegetables in simple nutrient addition production (SNAP) hydroponics and conventional production system

Maria Danesa S. Rabia
Int. J. Biosci. 24(6), 138-146, June 2024.
Copyright Statement: Copyright 2024; The Author(s).
License: CC BY-NC 4.0

Abstract

The study was conducted to evaluate the performance of different vegetables grown in SNAP hydroponics and conventional production system. SNAP hydroponics production system the simple nutrient addition program. In this system any container with cover can be used as long as it can contain approximately 2 liters of solution. The benefits that can be derived from growing crops under this system include higher yields in a small space, environmental protection; efficient recycling of water and nutrients, healthier plants and faster crop maturity. Among of the four vegetables grown sweet pepper and lettuce performed well under the SNAP hydroponics system. The plants were taller, produced more leaves, matured earlier and had higher yield compared to those grown under the conventional production system. Both the broccoli and tomato did not perform well in SNAP hydroponics and conventional production system. Broccoli was succumbed by the attack of pest (Helecoverpa armegera) while tomato was lodged due to strong winds.

Anon. 2007. Benefits of Hydroponics Food Production. Retrieved from http://www.hydroponics.com.jack/index.html. Accessed March, 2007.

Asian Vegetable Research and Development Center (AVDRC), 1990. Vegetable Production Training Manual. Accessed on July 17, 2024 from https://books.google.com.ph/books/about/Vegetable_production_training_manual.html?id=nmQjAQAAMAAJ&redir_esc=y

Bradley P. 2000. Fast Food Relief. Practical Hydroponics and Greenhouses 51, 73-81.

Divinigracia CN. 1971. Tomato Production the Philippines: A Student Manual for Use in Vocational Agriculture.

Ikeda H. 2000. AVRDC Non-Circulating Hydroponic System. Hydroponic Society of America. Retrieved from www.hydroponics.comau/backissue.html. Accessed June 26, 2003.

Jefferson E. 1999. Thriving on a Survival Garden, Growing Edge, New Moon Publishing, Corvallis, OR10(6), 44-55.

Jensen MH. 1990. Hydroponic Culture for the Tropic: Opportunities and Alternatives. International Seminar on Hydroponic Culture of High Value Crops in the Tropics, 25-27 Nov. PPPL, UPM, Serdang Selangor, Malaysia.

Jensen MH, Collins WL. 2011. Hydroponics Vegetable Productions. In book: Horticulture Reviews. Volume 7. Accessed on July 17, 2024 from https://www.researchgate.net publication/230219468_Hydroponic_Vegetable_Production

Mohyuddin M, Younnus M. 1999. Overview of the Greenhouse Vegetable Industry in Alberta Canada. Proc. Int. Sym. Growing Media and Hydroponics Ed. AP Papadopoulos. Acta Hort 481. ISHS.

PCARRD. 1980. Standard Method of Soil Analysis for Plant Tissue, Water and Fertilizers. Farm Res. Div. Los Banos, Laguna, 187 pp.

Resh HM. 1989. Hydroponic Food Production: A Definite Guidebook of Soilless Food Growing Methods. Woodbridge Press Publishing Co, 426 pp.

Santos PJA, Ocampo ETM. 2002. Snap Hydroponics. Institute of Plant Breeding, College of Agriculture, UP Los Banos, College, Laguna.

Related Articles

Stabilization of cashew apple juice with chitosan: clarification and microbiological quality

Kokora Aya Philomène*, Coulibaly Adama, Cissé Mohamed, Coulibaly Bintou, Konan N’guessan Ysidor, Godi Henri Marius Biego, Int. J. Biosci. 29(2), 76-88, August 2026.

Implementation and evaluation of limited face to face classes: basis for adoption of health and safety manual

Christian Jude B. Calunsag*, Int. J. Biosci. 29(2), 65-75, August 2026.

Baseline characterization of farming systems in the province of Bassitenga in Burkina Faso

Boly Ismaël Ardho*, Traoré Mamadou, Hema Alain Sabiriba, Sory Lallé Daouda, Int. J. Biosci. 29(2), 54-64, August 2026.

Zootechnical performance and economic profitability of sasso broiler chickens reared under a semi-automatic production system in Burkina Faso

Bernadette Yougbaré*, Arnaud Stéphane Rayangnéwêndé Tapsoba, Fatogoman Téophile Sanou, Clément Kaboré, Amadou Traoré, Int. J. Biosci. 29(2), 35-44, August 2026.

Factors influencing the use of Mucuna pruriens as food in Benin, West Africa

Yves Boladé Djimba, Janvier Mêlégnonfan Kindossi*, Folachodé Ulrich Gildas Akogou, Ephraïm Olouwafemi Biao, Jacques Agangni, Kokou Mensah Adjangba, Ogouyôm Herbert Iko Afé, Franck Hongbété, Rodrigue V. Cao Diogo, Int. J. Biosci. 29(2), 19-34, August 2026.

Contribution to the inventorier and establishment of a collection of agricultural entomofauna from the Niayes area of Dakar

Mamecor Faye*, Amy Collé Guèye, Coumba Gning, Lamine Konaté, Mbacké Sembène, Int. J. Biosci. 29(2), 10-18, August 2026.

Assessment of the trophic ecology and variation in the natural diet of an anuran amphibian species (Afrixalus dorsalis) in the Wetlands of the Ehotilé Islands (Ivory Coast)

Beh Romaric Konate*, Amani Reine Élisabeth Kouadio, Louis César Agou, Enoutchy Fabrice Bouah, N'Guessan Ludovic Yao, Etilé Raphaël N’doua, Int. J. Biosci. 29(2), 1-9, August 2026.