Search claims · PlantClaims

Associationobservedoriginal resultmeasured

Claim · model-written summary

Plastidial glycolysis was more relevant to lipid synthesis than cytosolic glycolysis.

Taxon: pecanCarya illinoinensist0
Outcome: lipid synthesise0
Direction: more relevante0
Comparator: cytosolic glycolysise0

Verbatim

e0
“Plastidial glycolysis is more relevant to lipid synthesis than cytosolic glycolysis”
✓ located verbatim in the source · abstract, characters 1424–1507

t0
“Pecan”
✓ located verbatim in the source · title, characters 91–96

Title

Transcriptome Analysis of Genes Involved in Lipid Biosynthesis in the Developing Embryo of Pecan (Carya illinoinensis)

Ruimin Huang; Youjun Huang; Zhichao Sun; et al. Journal of Agricultural and Food Chemistry 2017. doi:10.1021/acs.jafc.7b00922

Other claims from this paper (12)

Observation Mature pecan embryos contained more than 80% oil.
Observation Unsaturated fatty acids comprised 90% of mature pecan embryo oil.
Observation Oleic acid was abundant in mature pecan embryo oil.
Method / resource Pecan embryo RNA sequencing generated 84,643 unigenes.
Observation The study identified 153 lipid-biosynthesis-associated unigenes.
Observation Fatty acid synthesis genes were most abundantly expressed at 120 DAF.
Observation Pecan embryo crude fat rose from 16.61 to 74.45% by 165 DAF.
Observation SAD, FAD2, FAD6, FAD7 and FAD8 unigenes were identified for unsaturated-fatty-acid biosynthesis.
Observation FAD3 homologues were not detected.
Mechanism The authors inferred FAD7 and FAD8 in plastids generate embryo linolenic acid.
Observation Different unigenes were expressed in plastidial and cytosolic glycolysis during embryo development.
Method / resource qPCR results agreed with transcriptomic expression analysis.

Observationobservedreview summarybasis n/a

Claim · model-written summary

Plant glycolysis is regulated from the bottom up.

Taxon: PLANTt0
Outcome: glycolysise0
Direction: bottom upe0

Verbatim

t0
“PLANT GLYCOLYSIS”
✓ located verbatim in the source · title, characters 35–51

e0
“Plant and nonplant glycolysis are regulated from the "bottom up" and "top down," respectively”
✓ located verbatim in the source · abstract, characters 815–908

Title

THE ORGANIZATION AND REGULATION OF PLANT GLYCOLYSIS

William C. Plaxton Annual Review of Plant Physiology and Plant Molecular Biology 1996. doi:10.1146/annurev.arplant.47.1.185

Other claims from this paper (2)

Mechanismauthor interpretationreview summarymeasured

Claim · model-written summary

High glycolysis-related protein expression implies active glycolysis and starch depletion in infected wheat grains.

Taxon: wheatTriticum aestivume0
Gene: glycolysis-related proteinse0
Outcome: starch contente0
Direction: depletione0
Qualifier: glycolysis is very activee0

Verbatim

e0
“glycolysis-related proteins also show high expression levels in grains from infected wheat, which implies that glycolysis is very active and further results in the depletion of starch content”
✓ located verbatim in the source · abstract, characters 830–1021

Title

Impacts of Wheat Powdery Mildew on Grain Yield & Quality and Its Prevention and Control Methods

Hongyun Gao American Journal of Agriculture and Forestry 2018. doi:10.11648/j.ajaf.20180605.14

Other claims from this paper (9)

Observationobservedoriginal resultno effectmeasured

Claim · model-written summary

PPi-dependent pyruvate accumulation has the same reactant requirements and sensitivity to glycolysis inhibitors as ATP-dependent glycolysis.

Taxon: pea seedsLathyrus oleraceuse0
Treatment: sodium fluoride, and iodoacetamidee2
Outcome: reactant requirements and sensitivity to glycolysis inhibitorse2
Direction: the samee2
Comparator: ATP-dependent glycolysise2

Verbatim

e0
“using extracts from pea seeds (Pisum sativum L. cv Alaska)”
✓ located verbatim in the source · abstract, characters 108–166

e2
“The PPi-dependent pyruvate accumulation had the same reactant requirements and sensitivity to glycolysis inhibitors, sodium fluoride, and iodoacetamide, as the well-established ATP-dependent glycolysis”
✓ located verbatim in the source · abstract, characters 470–671

Title

Pyrophosphate and Fructose 2,6-Bisphosphate Effects on Glycolysis in Pea Seed Extracts

Douglas A. Smyth; Min-Xian Wu; Clanton C. Black PLANT PHYSIOLOGY 1984. doi:10.1104/pp.76.2.316

Other claims from this paper (4)

Mechanismauthor interpretationoriginal resultmeasured

Claim · model-written summary

The authors infer that glycolysis-related glycoproteins are activated under flooding.

Taxon: soybeanGlycine maxt0
Outcome: glycoproteins involved in glycolysise0
Direction: activatede0
Qualifier: glycolysise0

Verbatim

e0
“glycoproteins involved in glycolysis are activated”
✓ located verbatim in the source · abstract, characters 1506–1556

t0
“soybean”
✓ located verbatim in the source · title, characters 69–76

Title

Quantitative proteomics reveals the role of protein glycosylation in soybean root under flooding stress

Ghazala Mustafa; Xiaojian Yin; Myeong-Won Oh; et al. 2014. doi:10.14889/jhupo.2014.0.94.0

Other claims from this paper (9)

Intervention effect Total glycoprotein accumulation decreased after two days of flooding.
Intervention effect The number of identified glycoproteins was 111 without flooding and 69 after two days of flooding.
Intervention effect Protein-degradation, cell-wall, and glycolysis-related glycoproteins increased under flooding.
Intervention effect Stress-related glycoproteins decreased under flooding.
Intervention effect Secretory-pathway glycoproteins decreased under flooding.
Intervention effect Peroxidases decreased after two days of flooding.
Intervention effect Glycosyl hydrolases decreased after two days of flooding.
Intervention effect Transcripts for endoplasmic-reticulum and N-glycosylation-related proteins were downregulated by flooding.
Mechanism The authors infer flooding may impair N-glycosylation of stress- and degradation-related proteins.

Observationobservedreview summarybasis n/a

Claim · model-written summary

Plant glycolysis occurs in the cytosol and plastid with distinct nuclear encoded isozymes.

Taxon: PLANTt0
Outcome: glycolysis exists both in the cytosol and plastide0

Verbatim

t0
“PLANT GLYCOLYSIS”
✓ located verbatim in the source · title, characters 35–51

e0
“Plant glycolysis exists both in the cytosol and plastid, and the parallel reactions are catalyzed by distinct nuclear-encoded isozymes”
✓ located verbatim in the source · abstract, characters 148–282

Title

THE ORGANIZATION AND REGULATION OF PLANT GLYCOLYSIS

William C. Plaxton Annual Review of Plant Physiology and Plant Molecular Biology 1996. doi:10.1146/annurev.arplant.47.1.185

Other claims from this paper (2)

Mechanism Alternative cytosolic reactions increase ATP yield using pyrophosphate.
Observation Plant glycolysis is regulated from the bottom up.

Mechanismobservedoriginal resultnegativemeasured

Claim · model-written summary

Oxidative GAPDH inactivation inhibited glycolysis.

Taxon: PapaverPapavert0
Gene: GAPDHe0
Outcome: glycolysise0
Direction: inhibitse0

Verbatim

e0
“oxidative inactivation of GAPDH inhibits glycolysis”
✓ located verbatim in the source · abstract, characters 899–950

t0
“Papaver”
✓ located verbatim in the source · title, characters 0–7

Title

Papaver S-determinants trigger mitochondrially derived ROS production and disrupt energy metabolism in incompatible pollen tubes.

Wang, Ludi; Hsiao, An-Shan; Carli, José; et al. Apollo (University of Cambridge) 2026. doi:10.17863/cam.128211

Other claims from this paper (8)

Intervention effect Papaver PrpS expression in Arabidopsis recapitulated Papaver SI with cognate PrsS.
Mechanism Elevated cytosolic Ca2+ and acidification triggered mitochondrial H2O2 production.
Observation The SI response caused mitochondrial membrane depolarisation.
Observation The SI response decreased respiration rate.
Observation The SI response depleted ATP.
Mechanism Glycolysis inhibition decreased TCA cycle intermediates.
Observation SI rapidly arrested pollen tube growth before mitochondrial ROS production.
Mechanism RBOH-mediated superoxide production was inactivated in early SI.

Mechanismobservedoriginal resultnegativemeasured

Claim · model-written summary

Drought led to glycolysis disequilibrium and endogenous MG overaccumulation.

Taxon: maizeZea mayst0
Outcome: disequilibrium of glycolysis and overaccumulation of endogenous MGe0
Qualifier: glycolysise0

Verbatim

e0
“This led to disequilibrium of glycolysis and overaccumulation of endogenous MG.”
✓ located verbatim in the source · abstract, characters 785–864

t0
“maize”
✓ located verbatim in the source · title, characters 91–96

Title

Exogenous methylglyoxal alleviates drought-induced ‘plant diabetes’ and leaf senescence in maize

Yi-Hsuan Lin; Ya-Ning Zhou; Xiao-Gui Liang; et al. Journal of Experimental Botany 2023. doi:10.1093/jxb/erad503

Other claims from this paper (7)

Intervention effect Exogenous MG delayed leaf senescence and promoted photoassimilation under drought.
Intervention effect Exogenous MG reduced drought induced yield loss by 14%.
Mechanism Drought increased sugar accumulation in leaves through inhibited sugar transporters.
Intervention effect Exogenous MG upregulated glycolytic flux and the glyoxalase system.
Observation Drought promoted trehalose-6-phosphate anabolic gene expression and suppressed catabolic gene expression.
Intervention effect Exogenous MG reversed drought effects on trehalose-6-phosphate related genes.
Mechanism Exogenous MG activated phenylpropanoid biosynthesis and promoted lignin and phenolic compounds.

Observationobservedoriginal resultmeasured

Claim · model-written summary

Glycolysis rates were higher in the transformants.

Taxon: potatoSolanum tuberosumt0
Outcome: rates of glycolysise0
Direction: highere0

Verbatim

e0
“higher rates of glycolysis”
✓ located verbatim in the source · abstract, characters 1148–1174

t0
“potato tubers”
✓ located verbatim in the source · title, characters 101–114

Title

Altered metabolic fluxes result from shifts in metabolite levels in sucrose phosphorylase‐expressing potato tubers

A. R. Fernie; A. Tiessen; M. Stitt; et al. Plant Cell & Environment 2002. doi:10.1046/j.1365-3040.2002.00918.x

Other claims from this paper (17)

Observation Sucrose phosphorylase activity was less than one tenth of sucrose synthase activity.
Intervention effect Expression decreased starch synthesis enzyme activities relative to glycolytic enzymes and amylolytic activity.
Observation Transformants had twice the unidirectional sucrose breakdown rate.
Observation Sucrose resynthesis was strongly stimulated.
Observation Net sucrose breakdown changed little.
Observation Sucrose in the tubers was depleted.
Observation Amino acid pools were larger in the transformants.
Intervention effect Expression decreased tuber ATP/ADP ratio and energy charge.
Observation At least 30% of respiratory ATP was estimated to be consumed by accelerated sucrose cycling.
Observation Absolute starch synthesis rose in short-term disc labeling.
Observation Starch synthesis fell relative to other fluxes.
Observation Tuber starch content was lower than in wild type.
Intervention effect External amino acids inhibited glycolysis.
Intervention effect External amino acids did not restore allocation to starch.
Intervention effect Palatinose stimulated flux to starch in transformants.
Mechanism Lower sucrose and greater energy use during sucrose cycling explain poor tuber performance.
Mechanism Sucrose synthase degradation helps maintain the sucrose pool and limit ATP consumption.

Observationobservedreview summarybasis n/a

Claim · model-written summary

Sucrose starts glycolysis and ends gluconeogenesis in higher plants.

Taxon: higher plantsEmbryophytae0
Outcome: starting point of glycolysis and end point of gluconeogenesise0

Verbatim

e0
“Sucrose is the starting point of glycolysis and end point of gluconeogenesis in higher plants.”
✓ located verbatim in the source · abstract, characters 169–263

Title

A reassessment of glycolysis and gluconeogenesis in higher plants

Shi‐Jean S. Sung; Dian‐Peng Xu; Cynthia M. Galloway; et al. Physiologia Plantarum 1988. doi:10.1111/j.1399-3054.1988.tb09177.x

Other claims from this paper (4)

“glycolysis”

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