Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Effect of Rainfall Regime on Rainwater Harvesting Tank Sizing for Greenhouse Irrigation Use

View through CrossRef
The use of rainwater harvesting tanks to supply human water needs is an old and sustainable practice. In the case of covering irrigation demand in greenhouse agriculture, the potential is huge. Still, the relative research worldwide is low, while it is nearly absent in Greece. In this study, the rainwater harvesting tank size for irrigation use of greenhouse tomato cultivation was investigated by applying a daily water balance model in three regions of Crete Island (Greece) with significant greenhouse areas. Daily rainfall data from three representative rainfall stations of the study areas characterized by different rainfall regime for a 12-year time series were used. Additionally, the daily irrigation water needs for a tomato crop during an 8-month cultivation period were used. The greenhouse roof was defined as catchment area of the rainwater harvesting system and greenhouse areas of 1000, 5000 and 10,000 m2 were studied. In all areas examined, a tank of 30–100 m3 per 1000 m2 of greenhouse area could reach approximately 80–90% reliability. Higher values of reliability (reaching 100%) could be achieved mainly with covered tanks. Tank size for 100% reliability in covered tanks, ranged from 200 m3 (per 1000 m2 of greenhouse area) in the study area with high mean annual rainfall depth (974.24 mm) and moderate mean longest dry period (87.67 days), to 276 m3 (per 1000 m2 of greenhouse area) in the study area with relatively low mean annual rainfall depth (524.12 mm) and high mean longest dry period (117.42 days). For uncovered tanks, a 100% reliability value could be reached only with a tank size of 520 m3 (per 1000 m2 of greenhouse area) in the study area with high mean annual rainfall depth and moderate mean longest dry period.
Title: Effect of Rainfall Regime on Rainwater Harvesting Tank Sizing for Greenhouse Irrigation Use
Description:
The use of rainwater harvesting tanks to supply human water needs is an old and sustainable practice.
In the case of covering irrigation demand in greenhouse agriculture, the potential is huge.
Still, the relative research worldwide is low, while it is nearly absent in Greece.
In this study, the rainwater harvesting tank size for irrigation use of greenhouse tomato cultivation was investigated by applying a daily water balance model in three regions of Crete Island (Greece) with significant greenhouse areas.
Daily rainfall data from three representative rainfall stations of the study areas characterized by different rainfall regime for a 12-year time series were used.
Additionally, the daily irrigation water needs for a tomato crop during an 8-month cultivation period were used.
The greenhouse roof was defined as catchment area of the rainwater harvesting system and greenhouse areas of 1000, 5000 and 10,000 m2 were studied.
In all areas examined, a tank of 30–100 m3 per 1000 m2 of greenhouse area could reach approximately 80–90% reliability.
Higher values of reliability (reaching 100%) could be achieved mainly with covered tanks.
Tank size for 100% reliability in covered tanks, ranged from 200 m3 (per 1000 m2 of greenhouse area) in the study area with high mean annual rainfall depth (974.
24 mm) and moderate mean longest dry period (87.
67 days), to 276 m3 (per 1000 m2 of greenhouse area) in the study area with relatively low mean annual rainfall depth (524.
12 mm) and high mean longest dry period (117.
42 days).
For uncovered tanks, a 100% reliability value could be reached only with a tank size of 520 m3 (per 1000 m2 of greenhouse area) in the study area with high mean annual rainfall depth and moderate mean longest dry period.

Related Results

Influence of Cumulative Rainfall on the Occurrence of Landslides in Korea
Influence of Cumulative Rainfall on the Occurrence of Landslides in Korea
This study presents the impact of cumulative rainfall on landslides, following the analysis of cumulative rainfall for 20 days before the landslide. For the 1520 landslides analyze...
Rainfall Analysis for Rainwater Harvesting in Politeknik Ungku Omar
Rainfall Analysis for Rainwater Harvesting in Politeknik Ungku Omar
Rainwater Harvesting System (RWHS) is a collection and storage of rainwater for future use and have many benefits related to the economy, environment, technology, and society. Mala...
COMPARISON OF GREENHOUSE CUCUMBER YIELD USING DRIP IRRIGATION AND SURFACE IRRIGATION IN INJIL DISTRICT OF HERAT PROVINCE
COMPARISON OF GREENHOUSE CUCUMBER YIELD USING DRIP IRRIGATION AND SURFACE IRRIGATION IN INJIL DISTRICT OF HERAT PROVINCE
This research was carried out in 2022in Injil District, Herat province in order to investigate the performance of greenhouse cucumbers using drip irrigation and surface irrigation....
Effects of irrigation and nitrogen fertilization on mitigating salt-induced Na+ toxicity and sustaining sea rice growth
Effects of irrigation and nitrogen fertilization on mitigating salt-induced Na+ toxicity and sustaining sea rice growth
Abstract This study investigated the effects of irrigation and nitrogen (N) fertilization on mitigating salt-induced Na+ toxicity and sustaining sea rice growth for ...
Rainwater Harvesting System in a Congested Residential Estate
Rainwater Harvesting System in a Congested Residential Estate
Occurrences of flash floods in urban areas have increased significantly and become an issue of concern to the public. However, physical development continues unabated due to urbani...
Monitoring Rainwater Properties and Outdoor Particulate Matter in a Former Steel Manufacturing City in Romania
Monitoring Rainwater Properties and Outdoor Particulate Matter in a Former Steel Manufacturing City in Romania
Wet deposition is influencing air quality because air pollutants are washed away from the surrounding air. Consequently, particulate matter and associated compounds are transported...

Back to Top