Claim · model-written summary
PBZ trees had the highest chlorophyll content.
- Taxon
- mango
Mangifera indicat0 - Treatment
- PBZe0
- Outcome
- chlorophyll contente0
- Direction
- higheste0
Not reportedMaterialGeneCompoundOrgan / stageInteractorInteractor roleSecond interactorSecond interactor roleComparatorSettingValueQualifier
Organisms pictured · Representative pictures of the matched species, not figures from the paper.
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Verbatim
e0“PBZ trees had the highest chlorophyll content during the study”
t0“mango (cv. Kensington Pride)”
Title
Alonso González; S. J. Blaikie Australian Journal of Agricultural Research 2003. doi:10.1071/ar02139
Other claims from this paper (15)
- Intervention effect MFT promoted earlier or more intense mango flowering than control.
- Intervention effect PBZ promoted earlier or more intense mango flowering than control.
- Observation The flowering benefit from annual PBZ persisted in successive years.
- Observation The single MFT application had no evident effect in the second season.
- Observation MFT severely reduced carbon assimilation, stomatal conductance and transpiration for up to four months.
- Intervention effect PBZ mango trees generally had higher leaf gas exchange than MFT trees.
- Intervention effect PBZ mango trees had gas exchange similar to controls.
- Observation Dry-season carbon assimilation was similar across MFT, control and PBZ trees.
- Intervention effect MFT reduced chlorophyll content in its application year.
- Observation MFT and control trees had similar chlorophyll content in year two.
- Intervention effect PBZ commercial fruit yield was two to three times control or MFT yield.
- Observation Mean mango carbon assimilation was 9.05 µmol/m2.s in the wet season.
- Observation Mean mango carbon assimilation was 4.2 µmol/m2.s in the dry season.
- Association Leaf vapor pressure deficit explained 82% of mango stomatal conductance variation.
- Association Leaf vapor pressure deficit explained 76% of mango carbon assimilation variation.