Search claims · PlantClaims

Mechanismauthor interpretationoriginal resultpositivebasis n/a

Claim · model-written summary

The authors attribute the superior performance of the coating to a multi-tiered synergy of a physical barrier, enhanced antioxidant capacity, preserved cell wall integrity and induced defense.

Taxon: mangoMangifera indicae0
Material: Taimange0
Outcome: superior performancee2
Qualifier: multi-tiered synergy involving a robust physical barrier, enhanced antioxidant capacity, preserved cell wall integrity, and induced broad-spectrum defensee2

Verbatim

e0
“Taimang’ mango”
✓ located verbatim in the source · abstract, characters 117–131

e2
“The superior performance is attributed to a multi-tiered synergy involving a robust physical barrier, enhanced antioxidant capacity, preserved cell wall integrity, and induced broad-spectrum defense”
✓ located verbatim in the source · abstract, characters 931–1129

Title

Synergistic effects of a chitosan-pectate composite coating on postharvest preservation and Underlying mechanisms in mango Fruit

Zhiwei Wu; Baoli Zhang; Qinghua Qiao; et al. LWT 2026. doi:10.1016/j.lwt.2026.119000

Other claims from this paper (10)

Intervention effect The chitosan-pectate (CS-PA) composite coating showed synergistic effects on Taimang mango, significantly outperforming individual CS or PA treatments.
Intervention effect The CS-PA coating reduced decay incidence of Taimang mango by 38% compared with CS alone.
Intervention effect The CS-PA coating reduced weight loss of Taimang mango more effectively than the individual treatments.
Intervention effect The CS-PA coating delayed the respiratory climacteric peak of Taimang mango.
Intervention effect The CS-PA coating better maintained firmness and titratable acidity of Taimang mango.
Intervention effect The composite coating synergistically enhanced the activities of the antioxidant enzymes SOD and APX in mango.
Intervention effect The composite coating reduced oxidative damage (H2O2 and MDA) in mango.
Intervention effect The CS-PA coating most effectively suppressed the activities and gene expression of the cell wall-degrading enzymes PG and PME in mango.
Intervention effect The CS-PA coating activated the salicylic acid signaling pathway gene MiPR1 in mango.
Intervention effect The CS-PA coating activated the jasmonic acid signaling pathway gene MiLOX in mango.

Mechanismhypothesisoriginal resultbasis n/a

Claim · model-written summary

The authors suggest that nectar-secreted PR-1s might perform specialized, non-defensive functions distinct from canonical pathogen-related roles.

Taxon: Mucuna sempervirensMucuna sempervirenst0
Outcome: specialized, non-defensive functionse1
Qualifier: might performe1

Verbatim

t0
“Mucuna sempervirens”
✓ located verbatim in the source · title, characters 107–126

e1
“nectar-secreted PR-1s might perform specialized, non-defensive functions distinct from canonical pathogen-related roles”
✓ located verbatim in the source · abstract, characters 1944–2063

Title

The X-ray crystal structure and biochemical analysis of a native basic pathogenesis-related-1 protein from Mucuna sempervirens (Fabaceae) floral nectar

Hong-Guang Zha; Peng Cui; Ying Yu; et al. Annals of Botany 2026. doi:10.1093/aob/mcag015

Other claims from this paper (9)

Mechanismobservedreview summarypositivebasis n/a

Claim · model-written summary

PGPR improve plant health through mechanisms including nutrient solubilization, hormone production and induction of systemic resistance against pathogens.

Interactor: PGPRe0symbiont
Outcome: plant healthe0
Qualifier: nutrient solubilization, hormone production and induction of systemic resistance against pathogense0

Not reportedTaxon

Verbatim

e0
“PGPR improve plant health through various mechanisms, including nutrient solubilization, hormone production and induction of systemic resistance against pathogens”
✓ located verbatim in the source · abstract, characters 545–707

Title

Mechanistic insights into plant growth promoting rhizobacteria with focus on root soil interactions, functional attributes and agricultural sustainability

Anjali Pathak; Mir Sajad Rabani; Meenakshi Shrivastav; et al. Discover Biotechnology 2026. doi:10.1007/s44340-025-00046-7

Other claims from this paper (1)

Observation PGPR can alleviate biotic and abiotic stresses and help plants survive, grow and develop under adverse conditions.

Mechanismauthor interpretationreview summarybasis n/a

Claim · model-written summary

The review concludes that small signaling peptide signaling is an integral component of plant responses to abiotic and biotic stress.

Taxon: plante0
Gene: SSPe0
Outcome: responses to abiotic and biotic stresse0

Verbatim

e0
“SSP signaling constitutes an integral component of plant responses to abiotic and biotic stress”
✓ located verbatim in the source · abstract, characters 1333–1428

Title

Plant cell wall remodeling and peptide signaling under abiotic and biotic stress

Joy Debnath; Richard Noi Morton; Timo Engelsdorf; et al. Plant Communications 2026. doi:10.1016/j.xplc.2026.101741

Other claims from this paper (2)

Mechanismauthor interpretationreview summarybasis n/a

Claim · model-written summary

In apples carbohydrates perform essential roles in signalling, flower formation, floral metabolism, pollination, fruit set, fruit development, fruit metabolism and fruit quality.

Taxon: applesMalus domesticae0
Compound: carbohydratese1
Outcome: flower formation, floral metabolism, pollination, fruit set, fruit development, fruit metabolism, and fruit quality enhancemente1

Verbatim

e0
“A dual carbon transport system in apples ensures a more stable and efficient supply of sugars to the sinks”
✓ located verbatim in the source · abstract, characters 1054–1160

e1
“enables carbohydrates to perform essential roles in signalling, structural support during flower formation, floral metabolism, pollination, fruit set, fruit development, fruit metabolism, and fruit quality enhancement”
✓ located verbatim in the source · abstract, characters 1165–1382

Title

Role of non-structural carbohydrates in the sustainable production of apples (Malus domestica)

Reema Prakash; Oluyoye Idowu; Bruno Holzapfel; et al. Functional Plant Biology 2026. doi:10.1071/fp25232

Other claims from this paper (2)

Mechanismauthor interpretationreview summarybasis n/a

Claim · model-written summary

Flower bud differentiation is a crucial stage of flowering, governed by environmental and endogenous pathways including photoperiodic, vernalization, autonomous, gibberellin and age pathways.

Taxon: soybeanGlycine maxt0
Outcome: differentiation of flower budse0
Qualifier: photoperiodic, vernalization, autonomous, gibberellin, and age pathwayse0

Verbatim

t0
“soybean flowering”
✓ located verbatim in the source · title, characters 64–81

e0
“The differentiation of flower buds marks a crucial stage in the flowering process, governed by a complex interplay of environmental and endogenous pathways, including photoperiodic, vernalization, autonomous, gibberellin, and age pathways”
✓ located verbatim in the source · abstract, characters 313–551

Title

Integrative mechanisms of sucrose and gibberellin in regulating soybean flowering

Kejing Zhang; Kai Luo; Yiling Li; et al. Oil Crop Science 2026. doi:10.1016/j.ocsci.2026.01.002

Other claims from this paper (4)

Mechanismauthor interpretationreview summarybasis n/a

Claim · model-written summary

Through the age pathway, sucrose coordinates flowering-related genes and thereby influences the timing of soybean flowering.

Taxon: soybeanGlycine maxe0
Gene: flowering-related genese0
Compound: sucrosee0
Outcome: timing of soybean floweringe0
Qualifier: age pathwaye0

Verbatim

e0
“Through the age pathway, sucrose harmonizes various flowering-related genes, thereby influencing the timing of soybean flowering”
✓ located verbatim in the source · abstract, characters 892–1020

Title

Integrative mechanisms of sucrose and gibberellin in regulating soybean flowering

Kejing Zhang; Kai Luo; Yiling Li; et al. Oil Crop Science 2026. doi:10.1016/j.ocsci.2026.01.002

Other claims from this paper (4)

Mechanismauthor interpretationreview summarybasis n/a

Claim · model-written summary

Gibberellin modulates flowering through the gibberellin pathway, with DELLA proteins as key regulators of signal transduction.

Taxon: soybeanGlycine maxt0
Gene: DELLA proteinse0
Compound: Gibberelline0
Outcome: floweringe0
Qualifier: gibberellin pathwaye0

Verbatim

t0
“soybean flowering”
✓ located verbatim in the source · title, characters 64–81

e0
“Gibberellin, an essential hormone for plant growth and development, modulates flowering through the gibberellin pathway, with DELLA proteins acting as key regulators in the signal transduction cascade”
✓ located verbatim in the source · abstract, characters 1022–1222

Title

Integrative mechanisms of sucrose and gibberellin in regulating soybean flowering

Kejing Zhang; Kai Luo; Yiling Li; et al. Oil Crop Science 2026. doi:10.1016/j.ocsci.2026.01.002

Other claims from this paper (4)

Mechanismauthor interpretationreview summarybasis n/a

Claim · model-written summary

Sucrose and gibberellin act synergistically on gene expression through distinct signaling pathways, jointly orchestrating flower bud differentiation.

Taxon: soybeanGlycine maxt0
Compound: sucrose and gibberelline0
Outcome: flower bud differentiatione0
Qualifier: distinct signaling pathwayse0

Verbatim

t0
“soybean flowering”
✓ located verbatim in the source · title, characters 64–81

e0
“The synergistic interaction between sucrose and gibberellin on gene expression occurs via distinct signaling pathways, collectively orchestrating flower bud differentiation”
✓ located verbatim in the source · abstract, characters 1224–1396

Title

Integrative mechanisms of sucrose and gibberellin in regulating soybean flowering

Kejing Zhang; Kai Luo; Yiling Li; et al. Oil Crop Science 2026. doi:10.1016/j.ocsci.2026.01.002

Other claims from this paper (4)

Mechanismauthor interpretationoriginal resultbasis n/a

Claim · model-written summary

The authors suggest that Y37 drives a temporal partitioning from metabolic priming to architectural reinforcement in cherry by reallocating carbon and tuning hormone pathways.

Taxon: Cherryt0
Treatment: Y37e0
Outcome: temporal partitioning from metabolic priming to architectural reinforcemente0
Qualifier: reallocating carbon and tuning hormone pathwayse0

Verbatim

t0
“PGPR-Treated Cherry Plants”
✓ located verbatim in the source · title, characters 111–137

e0
“Y37 drives a temporal partitioning from metabolic priming to architectural reinforcement by reallocating carbon and tuning hormone pathways”
✓ located verbatim in the source · abstract, characters 1318–1457

Title

Multi-Omics Integration Reveals Temporal Partitioning Between Metabolic Priming and Proliferative Expansion in PGPR-Treated Cherry Plants

Zhaoqing Tong; Ze Tao; Fangdong Li; et al. International Journal of Molecular Sciences 2026. doi:10.3390/ijms27052297

Other claims from this paper (9)

Intervention effect All three PGPR strains enhanced plant growth, photosynthetic capacity and root architecture of inoculated Gisela 6 sweet cherry seedlings.
Intervention effect Strain Y37 gave superior biomass promotion in cherry seedlings compared with the other strains.
Intervention effect PGPR treatment consistently suppressed abscisic acid in cherry.
Intervention effect PGPR treatment caused an early elevation of gibberellin and auxin in cherry.
Intervention effect Cytokinin accumulated at a later stage after the early GA and auxin elevation in PGPR-treated cherry.
Intervention effect Strain Y37 uniquely enriched jasmonate intermediates in cherry.
Observation Comparative root transcriptomic analysis uncovered strain-specific trajectories in PGPR-treated cherry.
Observation Integrated co-expression analysis defined gene modules associated with early metabolism and later structural remodeling.
Observation Key hub genes were identified as involved in hormone regulation and cell wall synthesis.

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