Results 91 to 100 of about 48,230 (175)

Additional file 4 of Effects of Grain Shape Genes Editing on Appearance Quality of Erect-Panicle Geng/Japonica Rice

, 2021
Additional file 4: Supplemental Fig. 2. The gene structures, target sequences for editing genes and vector map.
Mao, Ting, Zhu, Mingdong, Sheng, Zhonghua, Shao, Gaoneng, Jiao, Guiai, Mawia, Amos Musyoki, Ahmad, Shakeel, Xie, Lihong, Tang, Shaoqing, Wei, Xiangjin, Hu, Shikai, Hu, Peisong   +11 more
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Characterization of dense and erect panicle 1 gene (tadep1) located on common wheat group 5 chromosomes and development of allele-specific markers

, 2013
Dense and erect panicle 1 (OsDep1) gene is an important QTL controlling yield associated traits such as panicle length, erect type, and grain density in rice.
He Zhonghu, Liu Ya-Nan, Xianchun Xia
core   +1 more source

A new high yielding proso millet variety (Panicum miliaceum L.): PMV 442

Electronic Journal of Plant Breeding, 2021
A high yielding short duration new proso millet variety GPUP 25 was developed at Project Coordinating Unit, AICRP on Small Millets, University of Agricultural Sciences, GKVK, Bengaluru for cultivation in Karnataka and other states in India during 2019 ...
C. Nandini*, Sujata Bhat , Prabhakar , Jayaramegowda, M. Krishnappa, S. Srinatha Reddy, Prabhu C. Ganiger, K. B. Palanna , T. S. Sukanya, B. Boraiah, Kiran, T. Lavanya Bai and N. Vinay
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Additional file 6 of Effects of Grain Shape Genes Editing on Appearance Quality of Erect-Panicle Geng/Japonica Rice

, 2021
Additional file 6: Supplemental Table 3. Primers used for Real-time PCR.
Mao, Ting, Zhu, Mingdong, Sheng, Zhonghua, Shao, Gaoneng, Jiao, Guiai, Mawia, Amos Musyoki, Ahmad, Shakeel, Xie, Lihong, Tang, Shaoqing, Wei, Xiangjin, Hu, Shikai, Hu, Peisong   +11 more
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DEP1 gene in wheat species with normal, compactoid and compact spikes

BMC Genetics, 2017
Background In rice, a variant of DEP1 gene results in erect panicle architecture, well-developed vascular bundles, an increase in the number of grains per panicle and a consequent increase in the grain yield.
Valeriya Vavilova, Irina Konopatskaia, Anastasia E. Kuznetsova, Alexandr Blinov, Nikolay P. Goncharov   +4 more
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Additional file 5 of Effects of Grain Shape Genes Editing on Appearance Quality of Erect-Panicle Geng/Japonica Rice

, 2021
Additional file 5: Supplemental Table 2. Primers used to analyze target sequences and identify vectors.
Mao, Ting, Zhu, Mingdong, Sheng, Zhonghua, Shao, Gaoneng, Jiao, Guiai, Mawia, Amos Musyoki, Ahmad, Shakeel, Xie, Lihong, Tang, Shaoqing, Wei, Xiangjin, Hu, Shikai, Hu, Peisong   +11 more
openaire   +1 more source

Qualitative Morphological Characterisation and Assessment of Genetic Diversity among Indigenous Landraces of Rice (Oryza sativa L.)

The present study evaluated morphological diversity among 254 rice accessions, comprising 250 indigenous landraces and four checks (IR 64, JR 206, Improved Jeerashankar, and Improved Chinnor), using qualitative DUS descriptors and the Shannon-Weaver ...
Chandrabhan Ahirwar, Vikash Sharma, Stuti Sharma, S. K. Singh, Yogendra Singh, Kanchan Bhan   +5 more
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Panicle Development

, 2013
Rice evolved a diversified determinate inflorescence (also called panicle), and rice panicle development includes high orderly and complex biological events including the formation of lateral branches and spikelet organs.
Dabing Zhang, J. Hu, Jianping Hu, L. Dreni, Gynheung An, D. Zhang, M.M. Kater, Z. Yuan, Zheng Yuan, G. An, Martin M. Kater, Ludovico Dreni   +11 more
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Paddy Rice Imagery Dataset for Panicle Segmentation

, 2021
Accurate panicle identification is a key step in rice-field phenotyping. Deep learning methods based on high-spatial-resolution images provide a high-throughput and accurate solution of panicle segmentation.
Yaxin Ren, Suxing Lyu, Hao Wang
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Reassessment of the four yield-related genes Gn1a, DEP1, GS3 and IPA1 in rice using a CRISPR/Cas9 system

Frontiers in Plant Science, 2016
Clustered Regularly Interspaced Short Palindromic Repeats (CRISPR)-associated (Cas) systems have been successfully used as efficient tools for genome editing in a variety of species. We used the CRISPR/Cas9 system to mutate the Gn1a (Os01g0197700), DEP1 (
Meiru eLi, Meiru eLi, Xiaoxia eLi, Zejiao eZhou, Pingzhi eWu, Pingzhi eWu, Maichun eFang, Maichun eFang, Xiaoping ePan, Xiaoping ePan, Qiupeng eLin, Wanbin eLuo, Guojiang eWu, Guojiang eWu, Hongqing eLi   +14 more
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