Literature DB >> 27898770

The Amaranth Genome: Genome, Transcriptome, and Physical Map Assembly.

J W Clouse, D Adhikary, J T Page, T Ramaraj, M K Deyholos, J A Udall, D J Fairbanks, E N Jellen, P J Maughan.   

Abstract

Amaranth ( L.) is an emerging pseudocereal native to the New World that has garnered increased attention in recent years because of its nutritional quality, in particular its seed protein and more specifically its high levels of the essential amino acid lysine. It belongs to the Amaranthaceae family, is an ancient paleopolyploid that shows disomic inheritance (2 = 32), and has an estimated genome size of 466 Mb. Here we present a high-quality draft genome sequence of the grain amaranth. The genome assembly consisted of 377 Mb in 3518 scaffolds with an N of 371 kb. Repetitive element analysis predicted that 48% of the genome is comprised of repeat sequences, of which -like elements were the most commonly classified retrotransposon. A de novo transcriptome consisting of 66,370 contigs was assembled from eight different amaranth tissue and abiotic stress libraries. Annotation of the genome identified 23,059 protein-coding genes. Seven grain amaranths (, , and ) and their putative progenitor () were resequenced. A single nucleotide polymorphism (SNP) phylogeny supported the classification of as the progenitor species of the grain amaranths. Lastly, we generated a de novo physical map for using the BioNano Genomics' Genome Mapping platform. The physical map spanned 340 Mb and a hybrid assembly using the BioNano physical maps nearly doubled the N of the assembly to 697 kb. Moreover, we analyzed synteny between amaranth and sugar beet ( L.) and estimated, using analysis, the age of the most recent polyploidization event in amaranth.
Copyright © 2016 Crop Science Society of America.

Entities:  

Mesh:

Year:  2016        PMID: 27898770     DOI: 10.3835/plantgenome2015.07.0062

Source DB:  PubMed          Journal:  Plant Genome        ISSN: 1940-3372            Impact factor:   4.089


  23 in total

1.  Amaranthus hypochondriacus seeds as a rich source of cysteine rich bioactive peptides.

Authors:  Tessa B Moyer; Wyatt J Schug; Leslie M Hicks
Journal:  Food Chem       Date:  2021-12-29       Impact factor: 7.514

2.  Genome-wide microsatellites in amaranth: development, characterization, and cross-species transferability.

Authors:  Kapil K Tiwari; Nevya J Thakkar; Darshan T Dharajiya; Hetal L Bhilocha; Parita P Barvaliya; Bhemji P Galvadiya; N N Prajapati; M P Patel; S D Solanki
Journal:  3 Biotech       Date:  2021-08-04       Impact factor: 2.893

3.  De novo assembly and transcriptome of Pfaffia glomerata uncovers the role of photoautotrophy and the P450 family genes in 20-hydroxyecdysone production.

Authors:  Diego Silva Batista; Andréa Dias Koehler; Elisson Romanel; Vinícius Cairus de Souza; Tatiane Dulcineia Silva; Maíra Carolina Almeida; Talles Elisson F Maciel; Perácio Rafael Bueno Ferreira; Sérgio Heitor Sousa Felipe; Cleber Witt Saldanha; Joseila Maldaner; Leonardo Lucas Carnevalli Dias; Reginaldo Alves Festucci-Buselli; Wagner Campos Otoni
Journal:  Protoplasma       Date:  2018-10-25       Impact factor: 3.356

4.  AhDGR2, an amaranth abiotic stress-induced DUF642 protein gene, modifies cell wall structure and composition and causes salt and ABA hyper-sensibility in transgenic Arabidopsis.

Authors:  Paola A Palmeros-Suárez; Julio A Massange-Sánchez; Lino Sánchez-Segura; Norma A Martínez-Gallardo; Eduardo Espitia Rangel; Juan F Gómez-Leyva; John P Délano-Frier
Journal:  Planta       Date:  2016-12-17       Impact factor: 4.116

5.  Chromosome-Level Genome Assembly of the American Cranberry (Vaccinium macrocarpon Ait.) and Its Wild Relative Vaccinium microcarpum.

Authors:  Luis Diaz-Garcia; Luis Fernando Garcia-Ortega; Maria González-Rodríguez; Luis Delaye; Massimo Iorizzo; Juan Zalapa
Journal:  Front Plant Sci       Date:  2021-02-10       Impact factor: 5.753

6.  A roadmap for breeding orphan leafy vegetable species: a case study of Gynandropsis gynandra (Cleomaceae).

Authors:  E O Deedi Sogbohossou; Enoch G Achigan-Dako; Patrick Maundu; Svein Solberg; Edgar M S Deguenon; Rita H Mumm; Iago Hale; Allen Van Deynze; M Eric Schranz
Journal:  Hortic Res       Date:  2018-01-10       Impact factor: 6.793

7.  Diversity in Grain Amaranths and Relatives Distinguished by Genotyping by Sequencing (GBS).

Authors:  Xingbo Wu; Matthew W Blair
Journal:  Front Plant Sci       Date:  2017-11-17       Impact factor: 5.753

Review 8.  From zero to hero: the past, present and future of grain amaranth breeding.

Authors:  Dinesh C Joshi; Salej Sood; Rajashekara Hosahatti; Lakshmi Kant; A Pattanayak; Anil Kumar; Dinesh Yadav; Markus G Stetter
Journal:  Theor Appl Genet       Date:  2018-07-10       Impact factor: 5.699

9.  Single-molecule sequencing and Hi-C-based proximity-guided assembly of amaranth (Amaranthus hypochondriacus) chromosomes provide insights into genome evolution.

Authors:  D J Lightfoot; D E Jarvis; T Ramaraj; R Lee; E N Jellen; P J Maughan
Journal:  BMC Biol       Date:  2017-08-31       Impact factor: 7.431

10.  The draft genome of Ruellia speciosa (Beautiful Wild Petunia: Acanthaceae).

Authors:  Yongbin Zhuang; Erin A Tripp
Journal:  DNA Res       Date:  2017-04-01       Impact factor: 4.458

View more

北京卡尤迪生物科技股份有限公司 © 2022-2023.