Smart glass for urban farming
Reversible Electrochromic Mirror devices (REMs) can demonstrate reversible changes in optical properties from a transparent state to a coloured state and finally to a mirror state which changes the optical transmittance property of the device. This adjustable property allows the control of incoming...
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Nanyang Technological University
2023
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sg-ntu-dr.10356-1662722023-04-29T16:45:52Z Smart glass for urban farming Lock, Brandon Shun Kiat Lee Pooi See School of Materials Science and Engineering PSLee@ntu.edu.sg Engineering::Materials::Composite materials Science::Chemistry::Organic chemistry::Polymers Reversible Electrochromic Mirror devices (REMs) can demonstrate reversible changes in optical properties from a transparent state to a coloured state and finally to a mirror state which changes the optical transmittance property of the device. This adjustable property allows the control of incoming solar radiation and light intensity and can be utilized in various applications such as energy-saving architectural structures, automobiles, dynamic windows, and optically tuneable materials. This study aims to utilize REMs to optimize lighting efficiency for the growth of plants in an indoor farming environment. REMs were used in conjunction with a hydroponics grower to observe the growth cycle of the Komatsuna, a Japanese mustard spinach. 2 sets of 4 samples were used, one under the influence of the REM device, while the other was grown under the regular hydroponics lighting conditions. The plants were observed over a 22-day period and results showed that plants under the influence of the REM had better plant yield in terms of leaf area and growth rates. It also concluded that by regulating the state of the REM device to -2.5V for 60s and resting for 29mins allowed the plants to reach optimal growth rates that produced leaves ranging from an increase in leaf area of up to 109% as compared to the largest non-REM influenced plant. Bachelor of Engineering (Materials Engineering) 2023-04-24T07:41:56Z 2023-04-24T07:41:56Z 2023 Final Year Project (FYP) Lock, B. S. K. (2023). Smart glass for urban farming. Final Year Project (FYP), Nanyang Technological University, Singapore. https://hdl.handle.net/10356/166272 https://hdl.handle.net/10356/166272 en application/pdf Nanyang Technological University |
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Reversible Electrochromic Mirror devices (REMs) can demonstrate reversible changes in optical properties from a transparent state to a coloured state and finally to a mirror state which changes the optical transmittance property of the device. This adjustable property allows the control of incoming solar radiation and light intensity and can be utilized in various applications such as energy-saving architectural structures, automobiles, dynamic windows, and optically tuneable materials. This study aims to utilize REMs to optimize lighting efficiency for the growth of plants in an indoor farming environment. REMs were used in conjunction with a hydroponics grower to observe the growth cycle of the Komatsuna, a Japanese mustard spinach. 2 sets of 4 samples were used, one under the influence of the REM device, while the other was grown under the regular hydroponics lighting conditions. The plants were observed over a 22-day period and results showed that plants under the influence of the REM had better plant yield in terms of leaf area and growth rates. It also concluded that by regulating the state of the REM device to -2.5V for 60s and resting for 29mins allowed the plants to reach optimal growth rates that produced leaves ranging from an increase in leaf area of up to 109% as compared to the largest non-REM influenced plant. |
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Lee Pooi See |
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Lee Pooi See Lock, Brandon Shun Kiat |
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Final Year Project |
author |
Lock, Brandon Shun Kiat |
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Lock, Brandon Shun Kiat |
title |
Smart glass for urban farming |
title_short |
Smart glass for urban farming |
title_full |
Smart glass for urban farming |
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Smart glass for urban farming |
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Smart glass for urban farming |
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smart glass for urban farming |
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Nanyang Technological University |
publishDate |
2023 |
url |
https://hdl.handle.net/10356/166272 |
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1765213857180024832 |