This enables comparing genomes with a horizontal orientation.
Laptop and desktop screens are usually more wide than tall, so this allows more chromosomes to fit in view. You can now compare genomes involving an organism with many chromosomes -- e.g. dog -- at higher detail without scrolling.
More technically, this enables comparing whole genomes where the layout has a collinear geometry (chromosomes are lined end-to-end) and horizontal orientation (laid flat).
Also, options for orientation and chromosome scale have been made adjustable in the Orthologs example UI -- making it easy to experiment with layout and configure views as desired.
Compare positions of BRCA1 and MTOR genes in horizontal genomes for human and dog:
Coverage increased (+0.3%) to 90.728% when pulling 5de769bf7c0f5451c9fa06bd36197e822cda7591 on compare-horizontal-genomes into cd77ee0330ff7ab946d42d8fdb8f520d3cc33371 on master.
This enables comparing genomes with a horizontal orientation.
Laptop and desktop screens are usually more wide than tall, so this allows more chromosomes to fit in view. You can now compare genomes involving an organism with many chromosomes -- e.g. dog -- at higher detail without scrolling.
More technically, this enables comparing whole genomes where the layout has a collinear geometry (chromosomes are lined end-to-end) and horizontal orientation (laid flat).
Also, options for orientation and chromosome scale have been made adjustable in the Orthologs example UI -- making it easy to experiment with layout and configure views as desired.
Compare positions of BRCA1 and MTOR genes in horizontal genomes for human and dog: