Details for: HRIGRU 7125, Daucus carota L., DELTA A CUORE ROSSO

Summary Data

Taxonomy:

Daucus carota L.

Top Name:

DELTA A CUORE ROSSO

Origin:

Donated – Italy

Maintained:

UK Vegetable Genebank

Received by UKVGB:

1987

DOI:

10.18730/1V943B

Improvement Status:

Cultivar

Reproductive Uniformity:

Population

Form Received:

Seed-Long-term storage MCPD code 13

Availability

This accession is not available. If you are particularly interested in this accession please contact SLS.Genebank@warwick.ac.uk for more information about its status.

UK Vegetable Genebank

Images (1 total. Click on image for more.)

Core Passport Data

Taxonomy:

Daucus carota L.

Top Name:

DELTA A CUORE ROSSO

Origin:

Donated – Italy

Maintained:

UK Vegetable Genebank

Received by UKVGB:

1987

DOI:

10.18730/1V943B

Improvement Status:

Cultivar

Reproductive Uniformity:

Population

Form Received:

Seed-Long-term storage MCPD code 13

Source History

Donated

Italy
Habitat: Seed company

Donor(s):

CLAUSE

Accession Names and Identifiers

DELTA A CUORE ROSSO

Type: Accession name

CLAUSE-E LESPRIT

Type: Other or unclassified name

CARROT-NANTES

Type: Common name

HRIGRU 7125 0

Type: Inventory

HRIGRU 7125 1987

Type: Inventory

Narrative

Daucus carota L.

Genus:

Daucus

Section:

Daucus

Family:

Apiaceae (alt. Umbelliferae)

Subfamily:

Apioideae

Tribe:

Scandiceae

Subtribe:

Daucinae

Nomen number:

300172

Place of publication:

Sp. pl. 1:242. 1753

Protologue link:

https://biodiversitylibrary.org/page/358261

Typification:

View in Linnean Typification Project

Verified:

08/30/2010 by ARS Systematic Botanists.

Other conspecific taxa

Daucus carota L. subsp. azoricus Franco (1 active accession[s])
Daucus carota L. subsp. cantabricus A. Pujadas (0 active accession[s])
Daucus carota L. subsp. capillifolius (Gilli) Arbizu (1 active accession[s])
Daucus carota L. subsp. carota (0 active accession[s])
Daucus carota L. subsp. commutatus (Paol.) Thell. (2 active accession[s])
Daucus carota L. subsp. drepanensis (Arcang.) Heywood (0 active accession[s])
Daucus carota L. subsp. fontanesii Thell. (0 active accession[s])
Daucus carota L. subsp. gadecaei (Rouy & E. G. Camus) Heywood (1 active accession[s])
Daucus carota L. subsp. gummifer (Syme) Hook. f. (9 active accession[s])
Daucus carota L. subsp. halophilus (Brot.) A. Pujadas (0 active accession[s])
Daucus carota L. subsp. hispanicus (Gouan) Thell. (2 active accession[s])
Daucus carota L. subsp. major (Vis.) Arcang. (1 active accession[s])
Daucus carota L. subsp. majoricus A. Pujadas (0 active accession[s])
Daucus carota L. subsp. maritimus (Lam.) Batt. (4 active accession[s])
Daucus carota L. subsp. maximus (Desf.) Ball (2 active accession[s])
Daucus carota L. subsp. parviflorus (Desf.) Thell. (0 active accession[s])
Daucus carota L. subsp. rupestris (Guss.) Heywood (0 active accession[s])
Daucus carota L. subsp. sativus (Hoffm.) Schübl. & G. Martens (0 active accession[s])
Daucus carota L. subsp. sativus (Hoffm.) Schübl. & G. Martens var. atrorubens Alef. (0 active accession[s])
Daucus carota L. subsp. sativus (Hoffm.) Schübl. & G. Martens var. sativus Hoffm. (12 active accession[s])
Daucus carota L. var. carota (66 active accession[s])
Daucus carota subsp. gummifer x gadeceai (1 active accession[s])

Autonyms (not in current use), synonyms and invalid designations

Heterotypic Synonym(s)
Daucus abyssinicus C. A. Mey.
Daucus aegyptiacus Hornem.
Daucus gingidium L.
Daucus gingidium L. subsp. gingidium

Common names

Language	Name	note	seq	Citation
English	carrot		1	Botanical Society of the British Isles. BSBI taxon database (on-line resource).
English (Canada)	wild carrot	Agriculture & Agri-Food Canada official name	2	Darbyshire, S. J. 2003. Inventory of Canadian Agricultural Weeds Agriculture and Agri-Food Canada. 189.
French (Canada)	carotte sauvage	Agriculture & Agroalimentaire Canada nom officiel	2	Darbyshire, S. J. 2003. Inventory of Canadian Agricultural Weeds Agriculture and Agri-Food Canada. 189.

Annotations

Observations

Phenotype Data

Category	Descriptor	Description	Value	Sample Size	Study	Availability
CHEMICAL	Borneol (BORN)-leaf	Borneol volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	0		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Borneol (BORN)-roots	Borneol volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	95.39		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Bornyl acetate (BORNAc)-leaf	Bornyl acetate volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	15.59		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Bornyl acetate (BORNAc)-roots	Bornyl acetate volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	5285.85		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Caryophyllene oxide-roots	Caryophyllene oxide volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	7.37		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Geranyl acetone (GERA)-roots	Geranyl acetone volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	42.06		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Germacrene D (GERM)-leaf	Germacrene D volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	81.5		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Limonene (LIMO)-leaf	Limonene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	118.5		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Limonene (LIMO)-roots	Limonene volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	529.19		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Linalool (LINA)-leaf	Linalool volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	0		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Linalyl isovalerate-roots	Linalyl isovalerate volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	85.01		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Ocimene (OCIM)-leaf	Ocimene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	11.16		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Ocimene (OCIM)-roots	Ocimene volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	28.33		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	o-cymene (oCYME)-leaf	o-cymene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	6.73		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	o-cymene (oCYME)-roots	o-cymene volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	212.82		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Sabinene (SABI)-leaf	Sabinene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	7.43		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Sabinene (SABI)-roots	Sabinene volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	25.14		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Terpinen-4-ol (TERPol)-leaf	Terpinen-4-ol volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	0		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Terpinen-4-ol (TERPol)-roots	Terpinen-4-ol volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	0		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Terpinolene (TERP)-leaf	Terpinolene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	0		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Terpinolene (TERP)-roots	Terpinolene volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	5869.72		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	α-bisabolene (aBISA)-leaf	α-bisabolene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	0		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	α-bisabolol (aBISol)-leaf	α-bisabolol volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	0		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	α-caryophyllene (aCARY)-leaf	α-caryophyllene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	214.81		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	α-cubebene (aCUBE)-leaf	α-cubebene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	16.77		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	α-farnesene (aFARN)-leaf	α-farnesene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	36.34		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	α-longipinene (aLONG)-leaf	α-longipinene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	6.83		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	α-phellandrene (aPHEL)-leaf	α-phellandrene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	0		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	α-phellandrene (aPHEL)-roots	α-phellandrene volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	59.31		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	α-pinene (aPINE)-leaf	α-pinene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	92.73		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	α-pinene (aPINE)-roots	α-pinene volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	555.81		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	α-terpineol (aTERP)-leaf	α-terpineol volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	0		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	α-thujene (aTHUJ)-leaf	α-thujene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	0		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	β-bisabolene (bBISA)-roots	β-bisabolene volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	142.14		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	β-caryophyllene (bCARY)-leaf	β-caryophyllene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	491.7		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	β-caryophyllene (bCARY)-roots	β-caryophyllene volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	1946.51		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	β-cyclocitral (bCYCL)-leaf	β-cyclocitral volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	16.18		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	β-cyclocitral (bCYCL)-roots	β-cyclocitral volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	10.87		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	β-farnesene (bFARN)-roots	β-farnesene volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	388.09		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	β-myrcene (bMYRC)-leaf	β-myrcene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	1472.53		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	β-myrcene (bMYRC)-roots	β-myrcene volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	355.34		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	β-pinene (bPINE)-leaf	β-pinene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	11.64		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	β-pinene (bPINE)-roots	β-pinene volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	118.95		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	γ-terpinene (gTERP)-leaf	γ-terpinene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	0		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	γ-terpinene (gTERP)-roots	γ-terpinene volatile compound, semi-quantified by HS-SPME-GC-FID in plant roots. Units: Relative concentration (peak area in counts)	827.73		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	δ-elemene (dELEM)-leaf	δ-elemene volatile compound, semi-quantified by HS-SPME-GC-FID in plant leaf. Units: Relative concentration (peak area in counts)	21.78		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Terpenoids in carrot leaves	Sum of Semiquantitation of terpenoids in carrot leaves, data are given as the mean of two technical replications. Units:	2622.22		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Terpenoids in carrot roots	Sum of Semiquantitation of terpenoids in carrot roots, data are given as the mean of two technical replications. Units:	16585.6		Keilwagen, 2017.">Keilwagen, 2017	Not Available
CHEMICAL	Concentration of 2-Epilaserine	Concentration of 2-Epilaserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	2.01		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine	Concentration of 2-Epilaserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	2.17		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine	Concentration of 2-Epilaserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	3.47		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine	Concentration of 2-Epilaserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	3.56		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine	Concentration of 2-Epilaserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	5.86		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine	Concentration of 2-Epilaserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	7.04		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine	Concentration of 2-Epilaserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	7.56		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine	Concentration of 2-Epilaserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	9.22		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine	Concentration of 2-Epilaserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	9.51		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine oxide	Concentration of 2-Epilaserine oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.56		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine oxide	Concentration of 2-Epilaserine oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.69		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine oxide	Concentration of 2-Epilaserine oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.95		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine oxide	Concentration of 2-Epilaserine oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	1.01		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine oxide	Concentration of 2-Epilaserine oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	1.31		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine oxide	Concentration of 2-Epilaserine oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	1.6		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine oxide	Concentration of 2-Epilaserine oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	1.78		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine oxide	Concentration of 2-Epilaserine oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	2.02		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 2-Epilaserine oxide	Concentration of 2-Epilaserine oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	2.16		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-Methoxymellein	Concentration of 6-Methoxymellein measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-Methoxymellein	Concentration of 6-Methoxymellein measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.01		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-Methoxymellein	Concentration of 6-Methoxymellein measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.02		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-Methoxymellein	Concentration of 6-Methoxymellein measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.05		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-Methoxymellein	Concentration of 6-Methoxymellein measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.08		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-Methoxymellein	Concentration of 6-Methoxymellein measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.09		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-Methoxymellein	Concentration of 6-Methoxymellein measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.11		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-Methoxymellein	Concentration of 6-Methoxymellein measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.43		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	115.48		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	12.14		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	12.24		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	16.84		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	26.24		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	29.1		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	42.22		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	71.57		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-angeloyl-,8-O-tigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	91		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	1.62		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	1.7		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	10.6		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	10.63		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	14.67		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	2.15		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	3.68		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	3.83		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-O-tigloyl-,8-O-angeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	5.54		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.77		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.92		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	1.38		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	2.38		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	2.39		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	3.5		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	3.83		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	6.92		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6-,8-O-diangeloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	7.99		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	13.69		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	17.99		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	2.48		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	2.5		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	20.3		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	3.45		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	5.51		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	5.66		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene	Concentration of 6,8-O-ditigloyl-6β,8α,11-trihydroxygermacra-1(10)E,4E-diene measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	7.26		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol	Concentration of Falcarindiol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	26.26		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol	Concentration of Falcarindiol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	28.07		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol	Concentration of Falcarindiol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	30.35		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol	Concentration of Falcarindiol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	33.31		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol	Concentration of Falcarindiol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	38.36		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol	Concentration of Falcarindiol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	47.64		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol	Concentration of Falcarindiol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	62.15		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol	Concentration of Falcarindiol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	78.44		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol	Concentration of Falcarindiol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	95.63		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol-3-acetate	Concentration of Falcarindiol-3-acetate measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	14.13		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol-3-acetate	Concentration of Falcarindiol-3-acetate measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	14.9		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol-3-acetate	Concentration of Falcarindiol-3-acetate measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	16.62		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol-3-acetate	Concentration of Falcarindiol-3-acetate measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	17.7		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol-3-acetate	Concentration of Falcarindiol-3-acetate measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	18.88		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol-3-acetate	Concentration of Falcarindiol-3-acetate measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	19.47		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol-3-acetate	Concentration of Falcarindiol-3-acetate measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	25.56		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol-3-acetate	Concentration of Falcarindiol-3-acetate measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	35.96		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarindiol-3-acetate	Concentration of Falcarindiol-3-acetate measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	36.39		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarinol	Concentration of Falcarinol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	101.18		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarinol	Concentration of Falcarinol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	122.76		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarinol	Concentration of Falcarinol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	217.37		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarinol	Concentration of Falcarinol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	26.91		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarinol	Concentration of Falcarinol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	29.71		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarinol	Concentration of Falcarinol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	410.19		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarinol	Concentration of Falcarinol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	736.77		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarinol	Concentration of Falcarinol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	77.12		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Falcarinol	Concentration of Falcarinol measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	94.53		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Isovaginatin	Concentration of Isovaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	23.07		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Isovaginatin	Concentration of Isovaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	24.86		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Isovaginatin	Concentration of Isovaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	41.64		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Isovaginatin	Concentration of Isovaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	48.79		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Isovaginatin	Concentration of Isovaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	49.27		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Isovaginatin	Concentration of Isovaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	56.25		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Isovaginatin	Concentration of Isovaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	58.89		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Isovaginatin	Concentration of Isovaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	80.15		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Isovaginatin	Concentration of Isovaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	83.78		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserin oxide	Concentration of Laserin oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.06		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserin oxide	Concentration of Laserin oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.07		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserin oxide	Concentration of Laserin oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.08		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserin oxide	Concentration of Laserin oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.09		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserin oxide	Concentration of Laserin oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.13		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserin oxide	Concentration of Laserin oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.17		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserin oxide	Concentration of Laserin oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.25		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserin oxide	Concentration of Laserin oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.3		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserin oxide	Concentration of Laserin oxide measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	0.32		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserine	Concentration of Laserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	10.19		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserine	Concentration of Laserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	10.94		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserine	Concentration of Laserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	13.03		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserine	Concentration of Laserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	13.57		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserine	Concentration of Laserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	2.99		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserine	Concentration of Laserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	3.86		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserine	Concentration of Laserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	4.53		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserine	Concentration of Laserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	5.81		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Laserine	Concentration of Laserine measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	8.24		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Vaginatin	Concentration of Vaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	104.23		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Vaginatin	Concentration of Vaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	105.38		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Vaginatin	Concentration of Vaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	171.14		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Vaginatin	Concentration of Vaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	196.78		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Vaginatin	Concentration of Vaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	203.82		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Vaginatin	Concentration of Vaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	206.44		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Vaginatin	Concentration of Vaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	303.36		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
CHEMICAL	Concentration of Vaginatin	Concentration of Vaginatin measured using high-throughput Ultra-High-Performance Liquid Chromatography-Mass Spectrometry. Units = µg/g.	387.1		Schmid, 2021; Influence of the Abiotic Stress Conditions, Waterlogging and Drought, on the Bitter Sensometabolome as Well as Agronomical Traits of Six Genotypes of Daucus carota. Accessions were measured in different fields under different treatment types: control, drought and water logging. ">Schmid, 2021	Not Available
GENDIV	He_Expected heterozygosity_SNP markers	Expected heterozygosity from genetic data obtained from 2354 SNP markers. Units:	0.27	5	Stelmach, 2021 ; Genetic diversity structure of western-type carrots.">Stelmach, 2021	Not Available
GENDIV	He_Expected heterozygosity_DcS-ILP markers	Expected heterozygosity from genetic data obtained from 93 DcS-ILP markers. Units:	0.213	5	Stelmach, 2021 ; Genetic diversity structure of western-type carrots.">Stelmach, 2021	Not Available
GENDIV	Na_Number of alleles_SNP markers	Number of alleles from genetic data obtained from 2354 SNP markers. Units:	1.733	5	Stelmach, 2021 ; Genetic diversity structure of western-type carrots.">Stelmach, 2021	Not Available
GENDIV	Na_Number of alleles_DcS-ILP markers	Number of alleles from genetic data obtained from 93 DcS-ILP markers. Units:	1.613	5	Stelmach, 2021 ; Genetic diversity structure of western-type carrots.">Stelmach, 2021	Not Available
GENDIV	Ne_Number of effective alleles_SNP markers	Number of effective alleles from genetic data obtained from 2354 SNP markers. Units:	1.466	5	Stelmach, 2021 ; Genetic diversity structure of western-type carrots.">Stelmach, 2021	Not Available
GENDIV	Ne_Number of effective alleles_DcS-ILP markers	Number of effective alleles from genetic data obtained from 93 DcS-ILP markers. Units:	1.361	5	Stelmach, 2021 ; Genetic diversity structure of western-type carrots.">Stelmach, 2021	Not Available
GENDIV	Ho_Observed heterozygosity_SNP markers	Observed heterozygosity from genetic data obtained from 2354 SNP markers. Units:	0.291	5	Stelmach, 2021 ; Genetic diversity structure of western-type carrots.">Stelmach, 2021	Not Available
GENDIV	Ho_Observed heterozygosity_DcSILP markers	Observed heterozygosity from genetic data obtained from 93 DcS-ILP markers. Units:	0.239	5	Stelmach, 2021 ; Genetic diversity structure of western-type carrots.">Stelmach, 2021	Not Available
GENDIV	Polymorphic loci_SNP markers	Percentage of polymorphic loci observed within analysed cultivars from genetic data obtained from 2354 SNP markers. Units: %	0.7328	5	Stelmach, 2021 ; Genetic diversity structure of western-type carrots.">Stelmach, 2021	Not Available
GENDIV	Polymorphic loci_DcS-ILP markers	Percentage of polymorphic loci observed within analysed cultivars from genetic data obtained from 93 DcS-ILP markers. Units: %	0.60215	5	Stelmach, 2021 ; Genetic diversity structure of western-type carrots.">Stelmach, 2021	Not Available
GENDIV	East or West genepool (DArT markers)	Assignment to the domestication from Eastern or Western gene pools based on the result of the Diversity Arrays Technology (DArT) markers (method used in the paper), E = Eastern, W = Western.	W - W = Western		Grzebelus, 2014 ; Diversity, genetic mapping, and signatures of domestication in the carrot (Daucus carota L.) genome, as revealed by Diversity Arrays Technology (DArT) markers.">Grzebelus, 2014	Not Available
GENDIV	East or West genepool (SRR markers)	Assignment to the Eastern (E) and the Western (W) gene pools was done previously based on polymorphisms of SSR loci (Baranski et al. 2012a); E = Eastern, W = Western, na – not assigned.	W - W = Western		Grzebelus, 2014 ; Diversity, genetic mapping, and signatures of domestication in the carrot (Daucus carota L.) genome, as revealed by Diversity Arrays Technology (DArT) markers.">Grzebelus, 2014	Not Available
MORPHOLOGY	Leaf colour - intensity of green	Leaf colour - intensity of green	4 - Light - medium		UKVGB.Carrots.Characterisation.ADB.XXXX	Not Available
ROOT	Root length	Root length	7 - Long (Berlikumer 2, Berlikumer 3)		UKVGB.Carrots.Characterisation.ADB.XXXX	Not Available
ROOT	Root diameter	Root diameter, recorded at the widest point of the root.	5 - Intermediate (Nantaise)		UKVGB.Carrots.Characterisation.ADB.XXXX	Not Available
ROOT	Root shape longitudinal	Root shape in longitudinal section.	3 - Obtriangular		UKVGB.Carrots.Characterisation.ADB.XXXX	Not Available
ROOT	Root shoulder shape	Root shoulder shape	3 - Rounded		UKVGB.Carrots.Characterisation.ADB.XXXX	Not Available
ROOT	Root skin colour	Root skin pigmentation/colour	3 - Orange		UKVGB.Carrots.Characterisation.ADB.XXXX	Not Available
ROOT	Root skin colour	Root skin pigmentation/colour	3 - Orange		Baranski, 2012; Genetic diversity of carrot (Daucus carota L.) cultivars revealed by analysis of SSR loci.">Baranski, 2012_a	Not Available
ROOT	Root skin colour	Root skin pigmentation/colour	3 - Orange		Grzebelus, 2014 ; Diversity, genetic mapping, and signatures of domestication in the carrot (Daucus carota L.) genome, as revealed by Diversity Arrays Technology (DArT) markers.">Grzebelus, 2014	Not Available
ROOT	Root skin colour	Root skin pigmentation/colour	3 - Orange		Keilwagen, 2017.">Keilwagen, 2017	Not Available
ROOT	Root cortex colour	Outer core pigmentation/colour	2 - Yellow		UKVGB.Carrots.Characterisation.ADB.XXXX	Not Available
ROOT	Root cortex colour	Outer core pigmentation/colour	3 - Orange		Baranski, 2012; Genetic diversity of carrot (Daucus carota L.) cultivars revealed by analysis of SSR loci.">Baranski, 2012_a	Not Available
ROOT	Root cortex colour	Outer core pigmentation/colour	3 - Orange		Grzebelus, 2014 ; Diversity, genetic mapping, and signatures of domestication in the carrot (Daucus carota L.) genome, as revealed by Diversity Arrays Technology (DArT) markers.">Grzebelus, 2014	Not Available
ROOT	Root cortex colour	Outer core pigmentation/colour	3 - Orange		Keilwagen, 2017.">Keilwagen, 2017	Not Available
ROOT	Root core colour	Inner core pigmentation/colour	3 - Orange		UKVGB.Carrots.Characterisation.ADB.XXXX	Not Available
ROOT	Root core colour	Inner core pigmentation/colour	3 - Orange		Keilwagen, 2017.">Keilwagen, 2017	Not Available
ROOT	Extent of Shoulder Green Colour	Extent of green colour of skin on shoulder.	3 - Low (Scarla)		UKVGB.Carrots.Characterisation.ADB.XXXX	Not Available
ROOT	Root Tip Shape	Root tip/end shape	3 - Pointed		UKVGB.Carrots.Characterisation.ADB.XXXX	Not Available
ROOT	Root type grouping	Root type grouping	Nantes - Nantes		UKVGB.Carrots.Characterisation.ADB.XXXX	Not Available
SUBSET	Carrots_type_subsets	Subsets of Carrots types	Carrots-Nantes - This accession is a member of the Carrots-Nantes type subset		UKVGB.General.Subsets.XXXX.1	Not Available
SUBSET	Carrots_Set	A flag to indicate that this accession is a member of the Carrots crop group which includes the species Daucus carota; Daucus carota var. atrorubens	Y - Yes the accession is part of this set.		UKVGB.General.CropGroup.XXXX.1	Not Available