Namaceae 130 claims

family · order Boraginales · 16 taxa · NCBI Taxonomy ↗

16 entries

Wigandia urens40 claims · 5 papers Eriodictyon capitatum21 claims · 5 papers Eriodictyon altissimum16 claims · 4 papers Wigandia ecuadorensis9 claims · 1 paper Eriodictyon8 claims · 2 papers Eriodictyon californicum8 claims · 2 papers Nama6 claims · 2 papers Eriodictyon crassifoliumalso E. crassifolium var. denudatum · also E. crassifolium var. nigrescens5 claims · 3 papers Eriodictyon sessilifolium4 claims · 1 paper Turricula parryi4 claims · 1 paper Nama arizonica3 claims · 1 paper Eriodictyon traskiae2 claims · 2 papers Namaceae2 claims · 2 papers Eriodictyon trichocalyx1 claim · 1 paper Nama lobbii1 claim · 1 paper Nama rothrockii1 claim · 1 paper

130 claims

Open in search (filters, sorting) →

Observationobservedoriginal resultmeasured

Claim · model-written summary

Preliminary screening indicated anthocyanin derivatives, flavonoids, condensed and hydrolysable tannins in the leaves

Taxon: Eriodictyon californicumEriodictyon californicumt0
Organ / stage: LEAVESt0
Outcome: presence of anthocyanins derivatives, flavonoids, condensed and hydrolysable tanninse1

Verbatim

t0
“CHEMICAL CONSTITUENTS FROM THE LEAVES OF Eriodictyon californicum”
✓ located verbatim in the source · title, characters 0–65

e1
“preliminary phytochemical screening indicated the presence of anthocyanins derivatives, flavonoids, condensed and hydrolysable tannins”
✓ located verbatim in the source · abstract, characters 414–548

Title

CHEMICAL CONSTITUENTS FROM THE LEAVES OF Eriodictyon californicum (Hook. & Arn.) Torr. (Boraginaceae)

Brenda K. M. Sousa; Talita L. N. Gonçalves; Lívia M. Dutra; et al. Química Nova 2025. doi:10.21577/0100-4042.20250140

Other claims from this paper (6)

Observationobservedoriginal resultmeasured

Claim · model-written summary

Sterubin, chrysoeriol and apigenin were identified in the leaves

Taxon: Eriodictyon californicumEriodictyon californicumt0
Organ / stage: LEAVESt0
Outcome: sterubin (1), chrysoeriol (2), apigenin (3)e2

Verbatim

t0
“CHEMICAL CONSTITUENTS FROM THE LEAVES OF Eriodictyon californicum”
✓ located verbatim in the source · title, characters 0–65

e2
“seven metabolites were identified: sterubin (1), chrysoeriol (2), apigenin (3), hydroxygenkwanin (4), 5,4’-dihydroxy-7,3’-dimethoxyflavanone (5), ethyl cinnamate (6) and 5-hydroxy7-methoxychromone (7)”
✓ located verbatim in the source · abstract, characters 1078–1278

Title

CHEMICAL CONSTITUENTS FROM THE LEAVES OF Eriodictyon californicum (Hook. & Arn.) Torr. (Boraginaceae)

Brenda K. M. Sousa; Talita L. N. Gonçalves; Lívia M. Dutra; et al. Química Nova 2025. doi:10.21577/0100-4042.20250140

Other claims from this paper (6)

Observationobservedoriginal resultmeasured

Claim · model-written summary

Hydroxygenkwanin, 5,4’-dihydroxy-7,3’-dimethoxyflavanone and ethyl cinnamate were identified in the leaves

Taxon: Eriodictyon californicumEriodictyon californicumt0
Organ / stage: LEAVESt0
Outcome: hydroxygenkwanin (4), 5,4’-dihydroxy-7,3’-dimethoxyflavanone (5), ethyl cinnamate (6)e2

Verbatim

t0
“CHEMICAL CONSTITUENTS FROM THE LEAVES OF Eriodictyon californicum”
✓ located verbatim in the source · title, characters 0–65

e2
“seven metabolites were identified: sterubin (1), chrysoeriol (2), apigenin (3), hydroxygenkwanin (4), 5,4’-dihydroxy-7,3’-dimethoxyflavanone (5), ethyl cinnamate (6) and 5-hydroxy7-methoxychromone (7)”
✓ located verbatim in the source · abstract, characters 1078–1278

Title

CHEMICAL CONSTITUENTS FROM THE LEAVES OF Eriodictyon californicum (Hook. & Arn.) Torr. (Boraginaceae)

Brenda K. M. Sousa; Talita L. N. Gonçalves; Lívia M. Dutra; et al. Química Nova 2025. doi:10.21577/0100-4042.20250140

Other claims from this paper (6)

Observationobservedoriginal resultmeasured

Claim · model-written summary

5-hydroxy7-methoxychromone was identified in the leaves

Taxon: Eriodictyon californicumEriodictyon californicumt0
Organ / stage: LEAVESt0
Outcome: 5-hydroxy7-methoxychromone (7)e2

Verbatim

t0
“CHEMICAL CONSTITUENTS FROM THE LEAVES OF Eriodictyon californicum”
✓ located verbatim in the source · title, characters 0–65

e2
“seven metabolites were identified: sterubin (1), chrysoeriol (2), apigenin (3), hydroxygenkwanin (4), 5,4’-dihydroxy-7,3’-dimethoxyflavanone (5), ethyl cinnamate (6) and 5-hydroxy7-methoxychromone (7)”
✓ located verbatim in the source · abstract, characters 1078–1278

Title

CHEMICAL CONSTITUENTS FROM THE LEAVES OF Eriodictyon californicum (Hook. & Arn.) Torr. (Boraginaceae)

Brenda K. M. Sousa; Talita L. N. Gonçalves; Lívia M. Dutra; et al. Química Nova 2025. doi:10.21577/0100-4042.20250140

Other claims from this paper (6)

Observationobservedcited backgroundmeasured

Claim · model-written summary

Compounds 1-5 had been identified previously in this species

Taxon: Eriodictyon californicumEriodictyon californicumt0
Outcome: previously identifiede3
Qualifier: compounds 1-5e3

Verbatim

t0
“CHEMICAL CONSTITUENTS FROM THE LEAVES OF Eriodictyon californicum”
✓ located verbatim in the source · title, characters 0–65

e3
“The compounds 1-5 were previously identified in this species”
✓ located verbatim in the source · abstract, characters 1280–1340

Title

CHEMICAL CONSTITUENTS FROM THE LEAVES OF Eriodictyon californicum (Hook. & Arn.) Torr. (Boraginaceae)

Brenda K. M. Sousa; Talita L. N. Gonçalves; Lívia M. Dutra; et al. Química Nova 2025. doi:10.21577/0100-4042.20250140

Other claims from this paper (6)

Observationobservedoriginal resultmeasured

Claim · model-written summary

Compounds 6 and 7 are reported for the first time in E. californicum and in the Boraginaceae family

Taxon: Eriodictyon californicumEriodictyon californicumt0
Outcome: reported for the first timee4
Qualifier: as well as in Boraginaceae familye4

Verbatim

t0
“CHEMICAL CONSTITUENTS FROM THE LEAVES OF Eriodictyon californicum”
✓ located verbatim in the source · title, characters 0–65

e4
“the compounds 6 and 7 are being reported for the first time in the species E. californicum, as well as in Boraginaceae family”
✓ located verbatim in the source · abstract, characters 1346–1471

Title

CHEMICAL CONSTITUENTS FROM THE LEAVES OF Eriodictyon californicum (Hook. & Arn.) Torr. (Boraginaceae)

Brenda K. M. Sousa; Talita L. N. Gonçalves; Lívia M. Dutra; et al. Química Nova 2025. doi:10.21577/0100-4042.20250140

Other claims from this paper (6)

Observationauthor interpretationoriginal resultmeasured

Claim · model-written summary

Eriodictyon californicum is an important source of secondary metabolites, mainly flavonoids

Taxon: E. californicumEriodictyon californicume5
Outcome: an important source of secondary metabolitese5
Qualifier: mainly flavonoidse5

Verbatim

e5
“These results revealed that E. californicum is an important source of secondary metabolites, mainly flavonoids with chemophenetic relationships with Boraginaceae family”
✓ located verbatim in the source · abstract, characters 1536–1704

Title

CHEMICAL CONSTITUENTS FROM THE LEAVES OF Eriodictyon californicum (Hook. & Arn.) Torr. (Boraginaceae)

Brenda K. M. Sousa; Talita L. N. Gonçalves; Lívia M. Dutra; et al. Química Nova 2025. doi:10.21577/0100-4042.20250140

Other claims from this paper (6)

Observationobservedreview summarybasis n/a

Claim · model-written summary

Namaceae contributes 1 edible species.

Taxon: NamaceaeNamaceaee2
Outcome: speciese2
Value: 1e2

Verbatim

e2
“The analysis includes taxonomic distribution, with the Boraginaceae family contributing the most species (50), followed by Cordiaceae (32), Hydrophyllaceae (10), Ehretiaceae (9), Heliotropiaceae (3), Lennoaceae (2), and Namaceae (1)”
✓ located verbatim in the source · abstract, characters 545–777

Title

Edible species of Boraginales

Hamid Nazari; Farrokh Ghahremaninejad Ethnobotany Research and Applications 2025. doi:10.32859/era.32.15.1-30

Other claims from this paper (11)

Observation The review identifies 107 edible species within Boraginales.
Observation Boraginaceae contributes the most edible species, with 50 species.
Observation Cordiaceae contributes 32 edible species.
Observation Hydrophyllaceae contributes 10 edible species.
Observation Ehretiaceae contributes 9 edible species.
Observation Heliotropiaceae contributes 3 edible species.
Observation Lennoaceae contributes 2 edible species.
Observation Temperate regions favour leafy herbaceous taxa for use as food.
Observation Seasonally dry and wet tropical regions emphasize fleshy fruits as food, especially within Cordia and Ehretia.
Observation Leafy parts are used as food in Europe, Turkey, Iran and North America.
Observation Fruit is used as food in Africa, the Neotropics, and South/Southeast Asia.

Mechanismauthor interpretationoriginal resultmeasured

Claim · model-written summary

Suboptimal thermal time varied most and may shape distribution.

Taxon: W. urensWigandia urense0
Outcome: distributione0
Qualifier: Suboptimal T t exhibited greater variation than the other parameterse0

Verbatim

e0
“Suboptimal T t exhibited greater variation than the other parameters, probably determining the W. urens distribution.”
✓ located verbatim in the source · abstract, characters 1351–1468

Title

Seed Thermal Response, and Morphological and Biochemical Plasticity in Wigandia urens as Indicators of Its Utility for Elevational and Latitudinal Assisted Migration

Ivonne Reyes‐Ortega; María E. Sánchez‐Coronado; Susana Orozco‐Segovia; et al. Ecology and Evolution 2025. doi:10.1002/ece3.72694

Other claims from this paper (18)

Association Temperature fell with elevation.
Association Germination capacity rose with temperature.
Association Lag time declined with temperature.
Association Seed mass declined with temperature.
Association Lipid content declined with temperature.
Observation All elevation populations had high germination across broad temperatures.
Observation Germination was thermophilic.
Observation Base germination temperature ranged from 9.81°C to 12.48°C.
Observation Ceiling germination temperature was about 34.74°C.
Observation Thermal-time variation exceeded variation in base and ceiling temperatures.
Association Elevation or seed percentile affected base temperature and thermal time.
Association Elevation affected ceiling temperature.
Observation Suboptimal and supraoptimal thermal times were lowest at 1660 m.
Observation Suboptimal and supraoptimal thermal times were highest at 2345 and 2500 m.
Observation Seeds germinated across 0 to −0.5 MPa in 2.4 days.
Observation Thirty-two percent of seeds germinated at −1 MPa.
Observation Unsaturated fatty-acid content peaked at 2500 m.
Recommendation The authors propose Wigandia as a facilitator for restoration or assisted migration.

Recommendationauthor interpretationoriginal resultpositivebasis n/a

Claim · model-written summary

The authors propose Wigandia as a facilitator for restoration or assisted migration.

Taxon: W. urensWigandia urense0
Outcome: beneficial for ecological restoration and/or assisted migration across elevational or latitudinal gradientse0

Verbatim

e0
“The phenotypic plasticity of W. urens , expressed in its germination and ecological distribution, suggests that it is a model pioneer tree useful as a facilitator species capable of facing temperature and precipitation predicted by climatic change and beneficial for ecological restoration and/or assisted migration across elevational or latitudinal gradients.”
✓ located verbatim in the source · abstract, characters 1710–2070

Title

Seed Thermal Response, and Morphological and Biochemical Plasticity in Wigandia urens as Indicators of Its Utility for Elevational and Latitudinal Assisted Migration

Ivonne Reyes‐Ortega; María E. Sánchez‐Coronado; Susana Orozco‐Segovia; et al. Ecology and Evolution 2025. doi:10.1002/ece3.72694

Other claims from this paper (18)

Association Temperature fell with elevation.
Association Germination capacity rose with temperature.
Association Lag time declined with temperature.
Association Seed mass declined with temperature.
Association Lipid content declined with temperature.
Observation All elevation populations had high germination across broad temperatures.
Observation Germination was thermophilic.
Observation Base germination temperature ranged from 9.81°C to 12.48°C.
Observation Ceiling germination temperature was about 34.74°C.
Observation Thermal-time variation exceeded variation in base and ceiling temperatures.
Association Elevation or seed percentile affected base temperature and thermal time.
Association Elevation affected ceiling temperature.
Observation Suboptimal and supraoptimal thermal times were lowest at 1660 m.
Observation Suboptimal and supraoptimal thermal times were highest at 2345 and 2500 m.
Mechanism Suboptimal thermal time varied most and may shape distribution.
Observation Seeds germinated across 0 to −0.5 MPa in 2.4 days.
Observation Thirty-two percent of seeds germinated at −1 MPa.
Observation Unsaturated fatty-acid content peaked at 2500 m.