2015
DOI: 10.1017/s1479262115000155
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Assessment of the variability of Senegalese landraces for phenology and sugar yield components to broaden the genetic pool of multi-purpose sorghum

Abstract: Sweet sorghum is highly coveted to contribute and take up food and energy challenges. A collection of 84 West Africa landraces mostly from Senegal and four control cultivars were screened to identify relevant accessions and trait combination for multi-purpose (sugar/grain/biomass). The implication of photoperiod sensitivity was particularly addressed. A total of 20 traits related to phenology, morphology, grain and sugar production were assessed in two sowing dates (July and August) at CNRA Bambey in Senegal. … Show more

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Cited by 4 publications
(2 citation statements)
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“…Sorghum is increasingly used as a biomass crop to meet societal expectations in terms of bioenergy [bioethanol of first (Ebrahimiaqda & Ogden, ) and second (Mitchell et al., ) generations, methane (Mahmood & Honermeier, ; Thomas et al., ), bio‐based materials (Chupin et al., ; Vo et al., ) and forage productions in many regions worldwide United States: (Rooney, Blumenthal, & Bean, ); Europe: (Tuck, Glendininga, Smith, Housec, & Wattenbach, ); China: (Fu, Meng, Molatudi, & Zhang, ); and West Africa: (Tovignan, Luquet, et al., )]. It is characterized by a high biomass yield potential (particularly stem) and a wide genetic diversity in terms of stem biochemical composition (lignocellulose, sugar) potentially ensuring the development of different value chains (Mathur, Umakanth, Tonapi, Sharma, & Sharma, ; de Oliveira et al., ; Trouche et al., ).…”
Section: Introductionmentioning
confidence: 99%
“…Sorghum is increasingly used as a biomass crop to meet societal expectations in terms of bioenergy [bioethanol of first (Ebrahimiaqda & Ogden, ) and second (Mitchell et al., ) generations, methane (Mahmood & Honermeier, ; Thomas et al., ), bio‐based materials (Chupin et al., ; Vo et al., ) and forage productions in many regions worldwide United States: (Rooney, Blumenthal, & Bean, ); Europe: (Tuck, Glendininga, Smith, Housec, & Wattenbach, ); China: (Fu, Meng, Molatudi, & Zhang, ); and West Africa: (Tovignan, Luquet, et al., )]. It is characterized by a high biomass yield potential (particularly stem) and a wide genetic diversity in terms of stem biochemical composition (lignocellulose, sugar) potentially ensuring the development of different value chains (Mathur, Umakanth, Tonapi, Sharma, & Sharma, ; de Oliveira et al., ; Trouche et al., ).…”
Section: Introductionmentioning
confidence: 99%
“…In a survey in Kenya Labeyrie et al (2015) revealed the diversity among farmers varieties. Genetic diversity was found sorghum germplasm from Senegal (Tovignan et al, 2015). In Burkina Faso, Barro-Kondombo (2010) found genetic diversity among sorghum accessions of three regions: Centre North, Centre West and Boucle du Mouhoun.…”
Section: Introductionmentioning
confidence: 99%