Fig S1:Determination of population sub-structure

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Fig S1:Determination of population sub-structure 2 4 6 8 -13000 -11000 -9000 Log likelihood k -num berofpopulations ln(PD ) 1 2 3 4 5 6 7 8 0 500 1500 2500 D elta log likelihood k -num berofpopulations delta(ln(P D )) 2 3 4 5 6 7 8 9 2000 2100 2200 2300 2400 AIC -P pd-D 1 k -num berofpopulations AIC 2 3 4 5 6 7 8 9 170 190 210 230 AIC -sub species k -num berofpopulations AIC I III II A D C B G F E BREAD WHEAT BREAD WHEAT

description

Fig S1:Determination of population sub-structure. BREAD WHEAT. I. II. III. BREAD WHEAT. A. B. C. D. E. F. G. Figure S2: Frequency based distance measures separated the bread wheat varieties from north western Europe from those originating in south eastern Europe. - PowerPoint PPT Presentation

Transcript of Fig S1:Determination of population sub-structure

Page 1: Fig S1:Determination of population sub-structure

Fig S1:Determination of population sub-structure

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Figure S2: Frequency based distance measures separated the bread wheat varieties from north western Europe from those originating in south eastern Europe

• Bread wheat is most closely related to members of sub-populations D & E (k=7), (shown in green and gold)

• While bread-wheat from south eastern and north-western fall into separate clades, their D-genomes share a common (monophyletic) origin

• Note: Sub populations k = 7 are designated by the following colours

– Population A: Red– Population B: Pale blue– Population C: Blue– Population D: Green– Population E: Gold– Population F: Orange– Population G: Magenta

Bread wheat

Sub pops D & E

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Figure S3: The geographic distribution of Ppd-D1 diversity

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Figure S4: Diurnal temperature range among sub-populations

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DTR all accessions

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DTR sub-populations D and E

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DTR sub-population II

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DTR sub-population III

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Figure S5: Rain frequency among sub-populations

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Rain frequency all accessions

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Rain frequency sub-populations D and E

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Rain frequency sub-population II

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Rain frequency sub-population III

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Figure S6: Sunshine hours among sub-populations

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Sunshine (hrs) sub-populations D and E

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Sunshine (hrs) sub-population II

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Sunshine (hrs) sub-population III

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Figure S7: Frost frequency among sub-populations

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Frost frequency all accessions

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Frost frequency sub-populations D and E

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Frost frequency sub-population II

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Frost frequency sub-population III

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Figure S8: Temperature among sub-populations

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Temperature all accessions

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Temperature sub-populations D and E

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Temperature sub-population II

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Temperature sub-population III

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Figure S9: Humidity among sub-populations

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Humidity all accessions

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Humidity sub-populations D and E

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Humidity sub-population II

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Figure S10: Windspeed among sub-populations

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Wind speed all accessions

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Wind speed sub-populations D and E

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Wind speed sub-population II

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Wind speed sub-population III

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Figure S11: Preciptation among sub-populations

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Precipitation all accessions

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Precipitation sub-populations D and E

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Precipitation sub-population II

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Precipitation sub-population III

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Figure S12: Potential evapo-transpiration among sub-populations

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PET all accessions

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PET sub-populations D and E

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PET sub-population II

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PET sub-population III

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Figure S13: Moisture deficit among sub-populations

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Moisture deficit sub-population III

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Figure S14: Minimum temperature among sub-populations

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Minimum temperature all accessions

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Minimum temperature sub-populations D and E

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Minimum temperature sub-population II

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Minimum temperature sub-population III

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Bread wheat

Sub-pop BSub-pop C

Sub-pop DSub-pop E

Sub-pop F

Sub-pop G

Figure S15: The Kullback-Leibler distances between sub-populations calculated by STRUCTURE

Sub population III (at k=3)

Sub population II (at k=3)

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Figure S16: PCO: diversity among 232 Ae. tauschii accessions revealed by SSR data, KASPar data and both data types used in combination. Accessions belonging to

Structure sub-population II are shown in red

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