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- 01HFVS1C94VT4ZVQEEXK0GJ3QV classification C1.
- 01HFVS1C94VT4ZVQEEXK0GJ3QV date "2023".
- 01HFVS1C94VT4ZVQEEXK0GJ3QV language "eng".
- 01HFVS1C94VT4ZVQEEXK0GJ3QV type conference.
- 01HFVS1C94VT4ZVQEEXK0GJ3QV hasPart 01HFVS3EE7C26CNFFARJBZ0FDM.pdf.
- 01HFVS1C94VT4ZVQEEXK0GJ3QV subject "Biology and Life Sciences".
- 01HFVS1C94VT4ZVQEEXK0GJ3QV presentedAt urn:uuid:70fc77d8-5dd4-478f-be04-8e4bdc17b7f3.
- 01HFVS1C94VT4ZVQEEXK0GJ3QV abstract "Maintaining the ideal environmental conditions for plants is essential in vertical farms and greenhouses. Achieving this optimal climate can be achieved through the application of Computational Fluid Dynamics (CFD), allowing for the comparison of various ventilation techniques, among other benefits. Previously, plants were modeled as a porous zone, in which additional source terms are added to the energy or transpiration transport equation. In this study, a more realistic plant geometry is used to model the plants inside this enclosure. A single plant is being ventilated sideways using a uniform flow. This realistic plant geometry consists out of multiple leaves and is modeled after a basil plant. For the first time, the heat and mass transfer of the plant is accurately incorporated at the boundaries of the leaves. For each face of the leaf, the heat and mass balance is closed, giving a realistic representation of the temperatures and humidities through the canopy. A uniform velocity-inlet was used to ventilate the leaves. A left to right temperature gradient was witnessed during the night, when there was no radiation and a more constant leaf temperature when radiation was included. The heat and mass transfer exchange was clearly a function of the boundary layer of the leaves. This model can in the future be used to simulate other ventilation methods and to make assumptions on the VPD levels near and in the plant canopy.".
- 01HFVS1C94VT4ZVQEEXK0GJ3QV author 1663E23C-E363-11E2-A6ED-42CB10BDE39D.
- 01HFVS1C94VT4ZVQEEXK0GJ3QV author 395BE2B6-F0EE-11E1-A9DE-61C894A0A6B4.
- 01HFVS1C94VT4ZVQEEXK0GJ3QV author F4E40EEC-F0ED-11E1-A9DE-61C894A0A6B4.
- 01HFVS1C94VT4ZVQEEXK0GJ3QV dateCreated "2023-11-22T15:05:36Z".
- 01HFVS1C94VT4ZVQEEXK0GJ3QV dateModified "2024-10-29T18:34:51Z".
- 01HFVS1C94VT4ZVQEEXK0GJ3QV name "Analysing the local climate in a plant factory in CFD by simulating the heat and mass transfer of the plants using a realistic plant model".
- 01HFVS1C94VT4ZVQEEXK0GJ3QV pagination urn:uuid:620b3c1a-1e45-4481-bc07-4d97793e18ab.
- 01HFVS1C94VT4ZVQEEXK0GJ3QV sameAs LU-01HFVS1C94VT4ZVQEEXK0GJ3QV.
- 01HFVS1C94VT4ZVQEEXK0GJ3QV sourceOrganization urn:uuid:6ec83636-ffb9-4118-b023-a9757d1f8baf.
- 01HFVS1C94VT4ZVQEEXK0GJ3QV sourceOrganization urn:uuid:c56b94f5-eda7-46f1-a655-cf43d8ed3836.
- 01HFVS1C94VT4ZVQEEXK0GJ3QV type C1.