We can't find the internet
Attempting to reconnect
Something went wrong!
Hang in there while we get back on track
An Assessment of Renewable Energies in a Seawater Desalination Plant with Reverse Osmosis Membranes
Summary
This engineering study evaluated whether integrating solar and wind energy into a seawater desalination plant could reduce its carbon footprint. Combining renewable energy with newer low-energy reverse osmosis membranes significantly reduced emissions compared to conventional fossil-fuel-powered desalination. This paper is focused on energy technology and is not directly related to microplastics.
The purpose of our study was to reduce the carbon footprint of seawater desalination plants that use reverse osmosis membranes by introducing on-site renewable energy sources. By using new-generation membranes with a low energy consumption and considering wind and photovoltaic energy sources, it is possible to greatly reduce the carbon footprint of reverse osmosis plants. The objective of this study was to add a renewable energy supply to a desalination plant that uses reverse osmosis technology. During the development of this research study, photovoltaic energy was discarded as a possible source of renewable energy due to the wind conditions in the area in which the reverse osmosis plant was located; hence, the installation of a wind turbine was considered to be the best option. As it was a large-capacity reverse osmosis plant, we decided to divide the entire desalination process into several stages for explanation purposes. The desalination process of the facility consists of several phases: First, the seawater capture process was performed by the intake tower. This water was then transported and stored, before going through a physical and chemical pre-treatment process, whereby the highest possible percentage of impurities and organic material was eliminated in order to prevent the plugging of the reverse osmosis modules. After carrying out the appraisals and calculating the amount of energy that the plant consumed, we determined that 15% of the plant's energy supply should be renewable, corresponding to 1194 MWh/year. As there was already a wind power installation in the area, we decided to use one of the wind turbines that had already been installed-specifically, an Ecotecnia turbine (20-150) that produced an energy of 1920 MWh /year. This meant that only a single wind turbine was required for this project.
Sign in to start a discussion.
More Papers Like This
Microplastic Pollution Threatens the Working Capacity of the Reverse Osmosis Plant Located Near the Sea Beach
Researchers documented how microplastic pollution from a nearby sea beach threatens the operational capacity of a reverse osmosis desalination plant, finding that plastic particle accumulation in intake systems compromises membrane performance and treatment efficiency.
Analysis of Renewable Energy Utilization Using Solar Power Technology in Eliminating Microplastic Emissions
Researchers investigated solar power-driven microbubble technology as a method for removing microplastics from water, conducting a literature review to evaluate the feasibility of using sunlight and microbubbles to continuously collect and remove plastic particles without chemical or biological reagents or filters. They found that solar-powered microbubble generation offers a promising reagent-free approach to microplastic removal, with solar energy addressing both treatment efficacy and the energy demands of the remediation process.
2024 roadmap on membrane desalination technology at the water-energy nexus
This roadmap review covers the latest advances in membrane technology for turning seawater and brackish water into drinking water. While the paper focuses on desalination engineering, it notes that membrane filtration is also being explored as a way to remove microplastics from water supplies, which is relevant to reducing human exposure through drinking water.
Advanced Water Production via Point of Use Super‐Ultralow‐Pressure Reverse Osmosis and Cellulose‐Polyamide Thin‐Film Nanocomposite Membranes
This study developed a new type of reverse osmosis membrane for home water purification that works at unusually low pressure, making it more energy-efficient than conventional systems. The membrane incorporates cellulose nanofibers to improve water flow, salt rejection, and resistance to fouling and chlorine. While the study focuses on membrane engineering rather than microplastics specifically, improved point-of-use filtration technology is relevant to reducing microplastic exposure from drinking water.
A case study on the environmental and economic impact of photovoltaic systems in wastewater treatment plants
Researchers evaluated a hybrid renewable energy system combining solar photovoltaic and wind turbines to power a membrane bioreactor wastewater treatment plant at a Moroccan university, finding it could cover approximately 72% of the plant's energy needs while reducing electricity costs.