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ACCESSIONPLANT NAMETAXONOMYORIGINGENEBANKIMAGEAVAILABILITYRECEIVEDSOURCE TYPESOURCE DATECOLLECTION SITECOORDINATESELEVATIONHABITATIMPROVEMENT LEVELNARRATIVE
0BS 318(DMF6).001Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142377BS 318
1BS 319(DMF6).004Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142378BS 319
2BS 320(DMF6).006Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142379BS 320
3BS 321(DMF6).007Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142380BS 321
4BS 322(DMF6).008Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142381BS 322
5BS 323(DMF6).009Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142382BS 323
6BS 325(DMF6).016Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142383BS 325
7BS 327(DMF6).041Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142385BS 327
8BS 329(DMF6).059Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142386BS 329
9BS 330(DMF6).061Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142387BS 330
10BS 332(DMF6).067Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142389BS 332
11BS 333(DMF6).069Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142390BS 333
12BS 335(DMF6).073Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142391BS 335
13BS 336(DMF6).083Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142392BS 336
14BS 338(DMF6).088Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142393BS 338
15BS 339(DMF6).092Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142394BS 339
16BS 340(DMF6).095Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142395BS 340
17BS 341(DMF6).098Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142396BS 341
18BS 342(DMF6).102Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142397BS 342
19BS 343(DMF6).103Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142398BS 343
20BS 344(DMF6).105Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142399BS 344
21BS 345(DMF6).110Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142400BS 345
22BS 346(DMF6).111BSolanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142401BS 346
23BS 347(DMF6).115Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142402BS 347
24BS 348(DMF6).125Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142403BS 348
25BS 349(DMF6).125CSolanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142404BS 349
26BS 350(DMF6).125HSolanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142405BS 350
27BS 351(DMF6).127Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142406BS 351
28BS 352(DMF6).129Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142407BS 352
29BS 353(DMF6).135Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142408BS 353
30BS 354(DMF6).140Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142409BS 354
31BS 355(DMF6).143Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142410BS 355
32BS 356(DMF6).145Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142411BS 356
33BS 357(DMF6).149Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142412BS 357
34BS 358(DMF6).155Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142413BS 358
35BS 359(DMF6).156Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142414BS 359
36BS 360(DMF6).159Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142415BS 360
37BS 361(DMF6).159BSolanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142416BS 361
38BS 362(DMF6).159HSolanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142417BS 362
39BS 364(DMF6).162Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142418BS 364
40BS 365(DMF6).163ASolanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142419BS 365
41BS 366(DMF6).165Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142420BS 366
42BS 367(DMF6).167Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142421BS 367
43BS 368(DMF6).168Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142422BS 368
44BS 369(DMF6).169Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142423BS 369
45BS 370(DMF6).172Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142424BS 370
46BS 371(DMF6).174Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142425BS 371
47BS 372(DMF6).178Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142426BS 372
48BS 373(DMF6).187Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142427BS 373
49BS 374(DMF6).202Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142428BS 374
50BS 375(DMF6).203Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142429BS 375
51BS 376(DMF6).206Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142430BS 376
52BS 377(DMF6).207Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142431BS 377
53BS 378(DMF6).210Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142432BS 378
54BS 379(DMF6).211Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142433BS 379
55BS 380(DMF6).212Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142434BS 380
56BS 381(DMF6).213Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142435BS 381
57BS 382(DMF6).214Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142436BS 382
58BS 383(DMF6).216Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142437BS 383
59BS 384(DMF6).224Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142438BS 384
60BS 385(DMF6).225Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142439BS 385
61BS 386(DMF6).227Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142440BS 386
62BS 387(DMF6).229Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142441BS 387
63BS 388(DMF6).239Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142442BS 388
64BS 389(DMF6).244Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142443BS 389
65BS 391(DMF6).248Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142444BS 391
66BS 392(DMF6).249Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142445BS 392
67BS 398(DMF5).060Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142446BS 398
68BS 399(DMF5).063Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142447BS 399
69BS 400(DMF5).065Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142448BS 400
70BS 401(DMF5).107Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142449BS 401
71BS 402(DMF5).108Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142450BS 402
72BS 403(DMF5).119Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142451BS 403
73BS 404(DMF5).137Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142452BS 404
74BS 407(DMF4).038Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142453BS 407
75BS 408(DMF4).046Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142454BS 408
76BS 409(DMF4).047Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142455BS 409
77BS 410(DMF4).055Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142456BS 410
78BS 411(DMF4).134Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142457BS 411
79BS 412(DMF4).158Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142458BS 412
80BS 414(DMF4).218Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142459BS 414
81BS 415(DMF4).220Solanum tuberosum L. Wisconsin, United StatesNR62020DEVELOPED2020Breeding materialRecombinant inbred line (RIL) populations are powerful mapping tools in many crops but have not yet been created using cultivated potato germplasm. We crossed the doubled monoploid cultivated clone DM 1–3 with the self-compatible diploid inbred wild clone M6 to create a diploid F1 hybrid. One F1 plant was self- pollinated to generate a phenotypically diverse F2 population, which was selfed to create 87 RILs.2142460BS 415