Claim · model-written summary
Authors proposed reduced stomatal conductance as an explanation for lower carbonyl uptake at excess CO2.
Not reportedMaterialGeneCompoundOrgan / stageInteractorInteractor roleSecond interactorSecond interactor roleComparatorSettingDirectionValue
Verbatim
t0“Selected Houseplants”
e0“the excessive CO2 concentration decreased the stomatal conductance which limited the carbonyl uptake from the stomata”
e1“the C1–C5 aldehyde removal rates of Schefflera octophylla (Lour.) Harms and Chamaedorea elegans (Lour.) Harms ranged from 0.311 μmol/m2/h for valeraldehyde to 0.677 μmol/m2/h for formaldehyde, and 0.526 μmol/m2/h for propionaldehyde to 1.440 μmol/m2/h for formaldehyde, respectively”
Title
Jian Li; Chun-Juan Xie; Jing Cai; et al. Atmosphere 2016. doi:10.3390/atmos7110144
Other claims from this paper (7)
- Observation Schefflera aldehyde removal ranged from 0.311 for valeraldehyde to 0.677 μmol/m2/h for formaldehyde.
- Observation Schefflera formaldehyde removal reached 0.677 μmol/m2/h.
- Observation Chamaedorea propionaldehyde removal was 0.526 μmol/m2/h.
- Observation Chamaedorea formaldehyde removal reached 1.440 μmol/m2/h.
- Association Aldehyde removal rate was significantly correlated with light intensity over 0 to 600 lx.
- Intervention effect Increasing CO2 from 350 to 1400 ppmv decreased Schefflera total aldehyde removal by 32.0%.
- Intervention effect Increasing CO2 from 350 to 1400 ppmv decreased Chamaedorea total aldehyde removal by 43.2%.