Improvement of Bio-mass Production, Energy Efficiency, and Carbon Dioxide Absorption in Microalgae Buildings and Urban Landscape with Prediction Algorithms
M Borna, M Yeganeh
Case Studies in Thermal Engineering
https://doi.org/10.1016/j.csite.2024.104825
Abstract
This research aims to identify and classify the types of microalgae and investigate their growth and control conditions and their optimal use for construction purposes and urban landscapes. How to use types of microalgae in climates, types of buildings, and geographical directions and fronts of buildings requires comprehensive knowledge of microalgae. Different microalgae can be more beneficial for different purposes, including, shading on buildings and translucent surfaces, insulation used, and biomass production. Also, estimating the intensity of light radiation to different levels and climates is necessary to provide better growth conditions and higher efficiency. With a comprehensive review and analysis of these conditions, this article has presented two innovative methods to match the required characteristics of each microalga with the existing conditions of the urban landscape and buildings so that it can be determined in different parts of the building. Moreover, which microalgae are most effective for urban landscapes in different climates, on surfaces with different slopes and angles, and for different purposes. Finally, a new perspective and vision for research and further applications of microalgae at the scale of the building and urban landscapes have been presented.
Analysis of the Impact of Growing Green Walls based on the Reduction of PM2.5 Particles in the Resilient Central Urban Fabric
M Borna, M Yeganeh
Frontiers in Sustainable Cities
Abstract
This research aims to identify and classify the types of microalgae and investigate their growth and control conditions and their optimal use for construction purposes and urban landscapes. How to use types of microalgae in climates, types of buildings, and geographical directions and fronts of buildings requires comprehensive knowledge of microalgae. Different microalgae can be more beneficial for different purposes, including, shading on buildings and translucent surfaces, insulation used, and biomass production. Also, estimating the intensity of light radiation to different levels and climates is necessary to provide better growth conditions and higher efficiency. With a comprehensive review and analysis of these conditions, this article has presented two innovative methods to match the required characteristics of each microalga with the existing conditions of the urban landscape and buildings so that it can be determined in different parts of the building. Moreover, which microalgae are most effective for urban landscapes in different climates, on surfaces with different slopes and angles, and for different purposes. Finally, a new perspective and vision for research and further applications of microalgae at the scale of the building and urban landscapes have been presented.
Comprehensive Evaluation and Optimization of Urban Morphologies: Assessing CO2 Emissions, Solar Access, Embodied Carbon, Energy Efficiency, and Walkability
M Borna, M Yeganeh
This article explores the urban morphologies of twelve distinct metropolitan areas, including Paris, New York, and Rome. Utilizing advanced simulation software, the study conducts a comprehensive analysis of various critical factors such as sunlight exposure, walkability, bikeability, and embodied carbon within these urban landscapes. By comparing these diverse morphologies, the research aims to uncover insights into how urban design influences environmental and social outcomes.
