Released 11/2021 | SnapGene 6.0 Detailed Release Notes
SnapGene 6.0 provides greater flexibility for working with cloning simulations, features, and agarose gels. Highlights include new tools for silently adding or removing restriction sites, support for custom feature types, sharable agarose gel files, and improved options for fragments chosen for cloning simulations.
Watch an overview of new features in SnapGene 6.0
Agarose gel simulations can now be saved as .gel files, allowing gels to be viewed and edited later or shared with others.
Editable features are now fully supported in both pairwise and multiple sequence alignments, with the ability to add, edit, and search from either the Alignment view or the new Features view.
Released 5/2021 | SnapGene 5.3 Detailed Release Notes
SnapGene 5.3 adds a number of visualization enhancements, including features within multiple sequence alignments as well as new viewing options for histories, primers, sequences, and chromatogram files. Data management is also improved with more flexible file organization in Collections, improved Geneious format conversion, and support for RNA sequence files.
Watch for an overview of the new features in SnapGene 5.3
Features in the input sequences are carried through to the alignment, allowing you to visualize aligned regions in context.
History view now supports both the traditional Maps format and a new Text format.
The new .rna file format allows you to create, view, and edit RNA sequences.
Organize all of your DNA, RNA, and protein files within a single list or folder tree in a Collection, and add new folders across the different areas in a single step.
New layout options allow sequences to be displayed with gaps every 3rd or 10th base.
Overlap two oligos, and then convert to double-stranded DNA in a single step by filling in the overhangs.
A DNA sequence can now be annotated with primers that anneal at the 5’ end but not the 3’ end.
Display and print a chromatogram in multi-line format to view the trace more efficiently.
Individual .geneious protein and nucleotide sequences, including features, primers, and alignments, are now imported more reliably with richer information.
Released 10/2020 | SnapGene 5.2 Detailed Release Notes
SnapGene 5.2 provides visualization and performance enhancements. Highlights include GC content visualization, support for finding similar DNA sequences, simulation of supercoiled DNA migration in agarose gels, support for ssDNA sequences, and Sequencher file import.
Watch for an overview of the new features in SnapGene 5.2
A GC content color or line plot can now be displayed in Map view, and bases can be colored by GC or AT in Sequence view.
When searching for DNA sequences, imperfect matches containing gaps or mismatched bases can be found, and search performance has been optimized.
A single-stranded DNA (ssDNA) sequence can now be created or imported, with support for feature annotation and sequence manipulations.
When editing sequences, the history is compressed to allow efficient storage as well as Undo for large sequences.
The set of supported protein feature types has been extended, including support for the misc_feature type.
Sequencher files can now be imported into a SnapGene collection.
Released 4/2020 | SnapGene 5.1 Detailed Release Notes
SnapGene 5.1 provides enhanced flexibility for displaying and annotating sequences. Highlights include an improved layout for linear maps, an optional split view for sequence windows, more versatile controls for enzyme visibility, and links between related folders in different areas of a SnapGene collection.
Enzyme sites and other annotations in a linear map are now allowed to overlap, thereby reducing map height while preserving legibility.
A DNA or protein sequence window can be split to show two different views, or two versions of the same view.
Like features and primers, individual enzymes can now be shown or hidden using check boxes.
When a SnapGene collection stores related files in the DNA Files, Protein Files, and Miscellaneous Files areas.
When adding references to the Description Panel, a variety of reference types are now available.
When importing features from another SnapGene file or detecting common features, the match threshold can be adjusted between 80-100%.
In a sequence trace file, the “A” trace can be displayed with stripes to support researchers with color vision disabilities.
Type IIS enzymes, which are used for Golden Gate assembly, can be displayed using a pre-defined enzyme set.
Released 9/2019 | SnapGene 5.0 Detailed Release Notes
SnapGene 5.0 adds new capabilities and display options including pairwise alignment, import from the Ensembl database, support for directional TOPO cloning, and improved tools for alignment to a reference DNA sequence.
Pairs of DNA or protein sequences can be analyzed by local, global, or semi-global alignment.
Gene or transcript data from the Ensembl genome browser can now be imported directly into SnapGene.
A new interface simulates directional TOPO® cloning into topoisomerase-activated vectors.
The interface for aligning to a reference DNA sequence has been enhanced. Controls for various display options are more intuitive, and alignment can be restricted to a designated strand or region of the reference sequence.
For a sequence that has been partially aligned to a reference DNA sequence, the nonaligned end portions can now be dragged out and visualized.
The Anza™ enzyme system from Thermo Fisher (Invitrogen) has been incorporated into SnapGene’s enzyme database.
The background color for the SnapGene interface can be changed.
Features can be shown or hidden based on feature type.
Amino acids in a translated feature can be set to lowercase, and a stretch of amino acids can be copied in 3-letter format.
A codon frequencies table can be generated for one or more translated features.
A selected region of a DNA alignment can be translated to generate the corresponding protein alignment.
When a cDNA is aligned to a reference genomic DNA sequence, the cDNA can be used to create a feature in which gaps are annotated as introns.
Selections are now marked with extended lines, which clarify the selection endpoints and also enhance visibility for small selections.