TY - CHAP
T1 - Applying Synteny Networks (SynNet) to Study Genomic Arrangements of Protein-Coding Genes in Plants
AU - Gamboa-Tuz, Samuel David
AU - Pereira-Santana, Alejandro
AU - Zhao, Tao
AU - Schranz, Eric
PY - 2022/7
Y1 - 2022/7
N2 - In comparative genomics, the study of synteny can be a powerful method for exploring genome rearrangements, inferring genomic ancestry, defining orthology relationships, determining gene and genome duplications, and inferring gene positional conservation patterns across taxa. In this chapter, we present a step-by-step protocol for microsynteny network (SynNet) analysis, as an alternative to traditional methods of synteny comparison, where nodes in the network represent protein-coding genes and edges represent the pairwise syntenic relationships. The SynNet pipeline consists of six main steps: (1) pairwise genome comparisons between all the genomes being analyzed, (2) detection of inter- and intrasynteny blocks, (3) generation of an entire synteny database (i.e., edgelist), (4) network clustering, (5) phylogenomic profiling of the gene family of interest, and (6) evolutionary inference. The SynNet approach facilitates the rapid analysis and visualization of synteny relationships (from specific genes, specific gene families up to all genes) across a large number of genomes.
AB - In comparative genomics, the study of synteny can be a powerful method for exploring genome rearrangements, inferring genomic ancestry, defining orthology relationships, determining gene and genome duplications, and inferring gene positional conservation patterns across taxa. In this chapter, we present a step-by-step protocol for microsynteny network (SynNet) analysis, as an alternative to traditional methods of synteny comparison, where nodes in the network represent protein-coding genes and edges represent the pairwise syntenic relationships. The SynNet pipeline consists of six main steps: (1) pairwise genome comparisons between all the genomes being analyzed, (2) detection of inter- and intrasynteny blocks, (3) generation of an entire synteny database (i.e., edgelist), (4) network clustering, (5) phylogenomic profiling of the gene family of interest, and (6) evolutionary inference. The SynNet approach facilitates the rapid analysis and visualization of synteny relationships (from specific genes, specific gene families up to all genes) across a large number of genomes.
KW - Bax Inhibitor
KW - Comparative genomics
KW - Gene family
KW - Microsynteny
KW - Synteny network
KW - TMBIM
U2 - 10.1007/978-1-0716-2429-6_12
DO - 10.1007/978-1-0716-2429-6_12
M3 - Chapter
C2 - 35818007
AN - SCOPUS:85133739030
SN - 9781071624289
T3 - Methods in Molecular Biology
SP - 199
EP - 215
BT - Plant Comparative Genomics
A2 - Pereira-Santana, A.
A2 - Gamboa-Tuz, S.D.
A2 - Rodríguez-Zapata, L.C.
PB - Humana Press
CY - New York
ER -