Masterarbeit, 2020
100 Seiten, Note: 2.1
1. INTRODUCTION
1.1 Background
1.2 Importance of this study
1.3 Aim and objectives
1.4 Sample Methodology
2. LITERATURE REVIEW
2.1 Rainwater harvesting
2.1.1. Rainwater harvesting from the rooftops
2.1.2 Roofs in the research area
2.1.3 Frequency use of the system
2.2 Components of a rooftop rainwater harvesting system
2.3. Rainwater harvesting systems
2.3.1 Gravity Feed Systems
2.3.2 Pump Feed Systems
2.4. Rainwater harvesting system to be considered for Glasgow Avenues Project area
2.5. Summary
3 METHODOLOGY
3.1 Theoretical study
3.2 Glasgow Avenues Project as a Case Study
3.3 Computer programs
3.3.1 Google Earth
3.3.2 Microsoft Excel
4 RESULTS AND DISCUSSION
4.1 Water used by residents living in the study area
4.2 Water end-uses by residents in Glasgow
4.2.1 Based on Scottish Water emailed data
4.2.2 Based on the Scottish Government data
4.2.3 Total water end-uses
4.3 Rainfall data
4.3.1 Short-term analysis for 2010 (1 year)
4.3.2 Short-term analysis for 2011
4.3.3. Long-term analysis (10 years)
4.4 Rainfall catchment area
4.5 Potential potable water savings
4.5.1 Short-term potable water savings for 2010
4.5.2 Short-term potable water savings for 2011
4.5.3 Long-term potential (10 years)
4.5.4 Short- and long-term drinking water savings comparison
4.6 Potential operational carbon footprint reductions
4.6.1 Potential carbon footprint reductions in a short-term of 2010
4.6.2 Potential carbon footprint reductions in a short-term of 2011
4.6.3 Potential carbon footprint reductions in a long-term
4.6.4 Operational carbon footprint comparison
4.7 Discussion
5 CONCLUSIONS AND RECOMMENDATIONS
5.1 Summary of key findings
5.2 Recommendation for future research
5.3 Recommendation for future practice
This research aims to determine whether implementing rooftop rainwater harvesting in the Glasgow Avenues Project area can significantly save potable water and reduce the associated carbon footprint. The study investigates local water consumption and rainfall data to evaluate the feasibility of utilizing harvested rainwater for non-potable household needs, such as toilet flushing and outdoor use.
1.1 Background
Rainwater harvesting is known as collection, storage and use of the rainfall. Collection can be done before rain reaches the ground (rooftop collection), or from the surface runoff. It is an ancient concept utilized to provide water resources for potable and non-potable uses, as well as agriculture (Sisuru Sendanayake, 2016). Rainwater harvesting has been practised for thousands of years during seasonal rain events as a way of water preservation for future uses. Collected rainwater was usually stored in natural basins or man-made cisterns (Heather Kinkade-Levario, 2007).
The amount of rainwater available for harvested highly depends on the rainfall intensity within the area, catchment area size and surface type (Rani Devi et al., 2012). Additionally, surroundings of the catchment area, its location, temperature and evaporation rate are also important. Rainwater reuse seems to be appropriate for arid regions of the World, where water resources are scarce. Although, cooler places with higher rainfall can also benefit from this technology. Water savings as the main reason for rainwater harvesting can also lead to other benefits.
1. INTRODUCTION: This chapter introduces the historical context and importance of rainwater harvesting, defines the research aim and objectives, and outlines the applied methodology.
2. LITERATURE REVIEW: This chapter reviews the principles of rainwater harvesting, examines the components and types of systems, and discusses their applicability to the Glasgow Avenues Project.
3 METHODOLOGY: This chapter details the mixed-methods approach, including the use of software tools like Google Earth for surface surveying and Microsoft Excel for statistical analysis of water usage and rainfall.
4 RESULTS AND DISCUSSION: This chapter presents the quantitative analysis of collected data regarding water consumption, rainfall patterns, potential potable water savings, and the resulting impacts on carbon footprint.
5 CONCLUSIONS AND RECOMMENDATIONS: This chapter summarizes the key findings regarding the effectiveness of rainwater harvesting and provides recommendations for future research and practice in urban areas.
Rainwater harvesting, Glasgow Avenues Project, Potable water savings, Carbon footprint reduction, Rooftop catchment, Non-potable water, Water consumption, Rainfall analysis, Renewable energy, Sustainable drainage, Urban water management, Water scarcity, Energy efficiency, Runoff coefficient, Water end-use.
The dissertation examines the potential for rooftop rainwater harvesting in the Glasgow Avenues Project area to save potable water and reduce carbon emissions associated with water supply.
The work covers rainwater harvesting technology, analysis of local rainfall and water consumption data, system design, energy intensity of water supply, and environmental impact assessments.
The study asks whether rainwater harvesting within the Glasgow Avenues Project area can effectively lead to potable water savings and a reduction in the carbon footprint as a non-potable water resource.
The author used a mixed-methods approach, combining qualitative literature review with quantitative analysis using computer software (Google Earth for spatial data and Microsoft Excel for mathematical calculations).
The main sections cover literature review, research methodology, detailed results regarding water savings, an analysis of carbon footprint implications, and the identification of optimal system configurations.
Key terms include rainwater harvesting, Glasgow Avenues, potable water savings, carbon footprint, rooftop catchment, and sustainable water management.
The research compares short-term yearly data from 2010 (a dry year) and 2011 (a wet year) against a 10-year long-term analysis to demonstrate system reliability across different climate scenarios.
It was selected as the most efficient solution because it optimizes pump operation, using gravity for final delivery to households, thereby minimizing energy consumption and wear on the equipment.
The author concludes that while rainwater harvesting saves water, it is not necessarily carbon-neutral unless supplied by renewable energy, recommending the use of "Green Tariffs" to achieve environmental benefits.
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