Difference between revisions of "Graham Reference Dataset Repository"
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[https://github.com/bbuchfink/diamond/wiki DIAMOND] is a sequence aligner for protein and translated DNA searches, designed for high performance analysis of big sequence data. It works in a similar manner than blast but it has some optimizations done both at the database level and at the software level. In SHARCNET we provide pre-formatted databases for DIAMOND v.2.0.9 built using the following: | [https://github.com/bbuchfink/diamond/wiki DIAMOND] is a sequence aligner for protein and translated DNA searches, designed for high performance analysis of big sequence data. It works in a similar manner than blast but it has some optimizations done both at the database level and at the software level. In SHARCNET we provide pre-formatted databases for DIAMOND v.2.0.9 built using the following: | ||
<pre> | |||
diamond makedb --in <(gunzip -c /datashare/BLAST_FASTA/nr.gz) -d nr --taxonmap <(gunzip -c /datashare/NCBI_taxonomy/prot.accession2taxid.FUL.gz) --taxonnodes /datashare/NCBI_taxonomy/nodes.dmp | diamond makedb --in <(gunzip -c /datashare/BLAST_FASTA/nr.gz) -d nr --taxonmap <(gunzip -c /datashare/NCBI_taxonomy/prot.accession2taxid.FUL.gz) --taxonnodes /datashare/NCBI_taxonomy/nodes.dmp | ||
diamond makedb --in <(gunzip -c /datashare/BLAST_FASTA/nt.gz) -d nt --taxonmap <(gunzip -c /datashare/NCBI_taxonomy/nucl_gb.accession2taxid.gz) --taxonnodes /datashare/NCBI_taxonomy/nodes.dmp | diamond makedb --in <(gunzip -c /datashare/BLAST_FASTA/nt.gz) -d nt --taxonmap <(gunzip -c /datashare/NCBI_taxonomy/nucl_gb.accession2taxid.gz) --taxonnodes /datashare/NCBI_taxonomy/nodes.dmp | ||
diamond makedb --in <(gunzip -c /datashare/BLAST_FASTA/pdbaa.gz) -d pdbaa --taxonmap <(gunzip -c /datashare/NCBI_taxonomy/pdb.accession2taxid.gz) --taxonnodes /datashare/NCBI_taxonomy/nodes.dmp | diamond makedb --in <(gunzip -c /datashare/BLAST_FASTA/pdbaa.gz) -d pdbaa --taxonmap <(gunzip -c /datashare/NCBI_taxonomy/pdb.accession2taxid.gz) --taxonnodes /datashare/NCBI_taxonomy/nodes.dmp | ||
diamond makedb --in <(gunzip -c /datashare/BLAST_FASTA/swissprot.gz) -d swissprot --taxonmap <(gunzip -c /datashare/NCBI_taxonomy/prot.accession2taxid.FULL.gz) --taxonnodes /datashare/NCBI_taxonomy/nodes.dmp | diamond makedb --in <(gunzip -c /datashare/BLAST_FASTA/swissprot.gz) -d swissprot --taxonmap <(gunzip -c /datashare/NCBI_taxonomy/prot.accession2taxid.FULL.gz) --taxonnodes /datashare/NCBI_taxonomy/nodes.dmp | ||
</pre> | |||
As can be seen 4 databases are distributed in the <code>/datashare/DIAMONDDB_2.0.9</code> directory representing blast's <code>nt</code>, <code>nr</code>, <code>pdbaa</code>, and <code>swissprot</code>. All of them contain taxonomic information. Since the source of these databases are the [[#BLAST_FASTA|BLAST_FASTA]], the updates of the databases will follow the same trimonthly schedule (Jan, Apr, Jul, Oct). | As can be seen 4 databases are distributed in the <code>/datashare/DIAMONDDB_2.0.9</code> directory representing blast's <code>nt</code>, <code>nr</code>, <code>pdbaa</code>, and <code>swissprot</code>. All of them contain taxonomic information. Since the source of these databases are the [[#BLAST_FASTA|BLAST_FASTA]], the updates of the databases will follow the same trimonthly schedule (Jan, Apr, Jul, Oct). |
Revision as of 10:00, 7 October 2021
Since May 2021 we have been testing a Network File System (NFS) data mount to provide our users with some commonly used datasets in Bioinformatics and AI. This data mount is provided in an effort to better serve our users and to lower the usage on their project accounts with commonly used datasets. These datasets are mounted on /datashare/
. You can explore the top directories by listing the mount:
[user@gra-login1 ~]$ ls -lL /datashare/
total 848
drwxrwxr-x 9 jshleap sn_staff 4096 Jul 6 11:14 1000genomes
drwxrwxr-x 9 jshleap sn_staff 141 Sep 28 01:58 alphafold
drwxrwxr-x 36 jshleap sn_staff 98304 Sep 30 10:49 BLASTDB
drwxrwxr-x 2 jshleap sn_staff 107 Jun 4 15:30 BLAST_FASTA
drwxrwxr-x 5 jshleap sn_staff 229 Jun 4 18:49 CIFAR-10
drwxrwxr-x 5 jshleap sn_staff 221 Jun 4 18:49 CIFAR-100
drwxrwxr-x 6 jshleap sn_staff 115 Apr 27 10:00 COCO
drwxrwxr-x 2 jshleap sn_staff 135 Jun 10 18:23 DIAMONDDB_2.0.9
drwxrwxr-x 6 jshleap sn_staff 299 Jul 26 15:39 EggNog
drwxr-xr-- 6 jshleap jshleap 143 Jul 28 15:45 GATK_resource_bundle
drwxrws--- 9 jshleap imagenet-optin 244 Jun 16 09:22 ImageNet
dr-xr-xr-x 20 jshleap sn_staff 4096 Sep 20 14:04 kraken2_dbs
drwxrwxr-x 2 jshleap sn_staff 191 Jun 4 18:49 MNIST
drwxr-xr-x 4 jshleap jshleap 50 Aug 24 13:40 modulefiles
drwxrwxr-x 2 jshleap sn_staff 50 Jun 4 18:51 MPI_SINTEL
drwxrwxr-x 9546 jshleap sn_staff 581632 Aug 7 13:10 NCBI_taxonomy
drwxrwxr-x 6 jshleap sn_staff 145 Feb 4 2021 PANTHER
drwxrwxr-x 11 jshleap sn_staff 214 Aug 10 09:28 PFAM
drwxrwxr-x 6 jshleap sn_staff 213 Aug 25 10:50 SILVA
drwxrwxr-x 6 jshleap sn_staff 257 Feb 4 2021 SVHN
drwxrwxr-x 4 jshleap sn_staff 189 Apr 19 17:59 UNIPROT
drwxrwx--- 5 jshleap voxceleb-optin 98 Apr 23 15:15 VoxCeleb
Below a detailed description of each dataset and how to access them.
Bioinformatics
Bioinformatics software often uses reference datasets (often referred to as databases) to work properly. In SHARCNET we are providing a set of these datasets for bioinformatics:
1000 Genomes
In human genetics, the 1000 genomes project (1KGP) was an effort to catalogue human genetic variation and has become a reference and a comparison point to many studies. We provide their data from their FTP site, and will be checked for updates twice a year (June and December).
Directory structure
1000 Genomes directory tree (up to level 2):
/datashare/1000genomes ├── CHANGELOG ├── data_collections │ ├── 1000G_2504_high_coverage │ ├── 1000G_2504_high_coverage_SV │ ├── 1000_genomes_project │ ├── gambian_genome_variation_project │ ├── gambian_genome_variation_project_GRCh37 │ ├── geuvadis │ ├── han_chinese_high_coverage │ ├── HGDP │ ├── HGSVC2 │ ├── hgsv_sv_discovery │ ├── HLA_types │ ├── illumina_platinum_pedigree │ ├── index.html │ ├── README_data_collections.md │ └── simons_diversity_data ├── historical_data │ ├── former_toplevel │ ├── index.html │ └── README_historical_data.md ├── index.html ├── phase1 │ ├── analysis_results │ ├── data │ ├── index.html │ ├── phase1.alignment.index │ ├── phase1.alignment.index.bas.gz │ ├── phase1.exome.alignment.index │ ├── phase1.exome.alignment.index.bas.gz │ ├── phase1.exome.alignment.index.HsMetrics.gz │ ├── phase1.exome.alignment.index.HsMetrics.stats │ ├── phase1.exome.alignment.index_stats.csv │ ├── README.phase1_alignment_data │ └── technical ├── phase3 │ ├── 20130502.phase3.analysis.sequence.index │ ├── 20130502.phase3.exome.alignment.index │ ├── 20130502.phase3.low_coverage.alignment.index │ ├── 20130502.phase3.sequence.index │ ├── 20130725.phase3.cg_sra.index │ ├── 20130820.phase3.cg_data_index │ ├── 20131219.populations.tsv │ ├── 20131219.superpopulations.tsv │ ├── data │ ├── index.html │ ├── integrated_sv_map │ ├── README_20150504_phase3_data │ └── README_20160404_where_are_the_phase3_variants ├── pilot_data │ ├── data │ ├── index.html │ ├── paper_data_sets │ ├── pilot_data.alignment.index │ ├── pilot_data.alignment.index.bas.gz │ ├── pilot_data.sequence.index │ ├── README.alignment.index │ ├── README.bas │ ├── README.sequence.index │ ├── release │ ├── SRP000031.sequence.index │ ├── SRP000032.sequence.index │ ├── SRP000033.sequence.index │ └── technical ├── PRIVACY-NOTICE.txt ├── README_ebi_aspera_info.md ├── README_file_formats_and_descriptions.md ├── README_ftp_site_structure.md ├── README_missing_files.md ├── README_populations.md ├── README_using_1000genomes_cram.md ├── release │ ├── 2008_12 │ ├── 2009_02 │ ├── 2009_04 │ ├── 2009_05 │ ├── 2009_08 │ ├── 20100804 │ ├── 2010_11 │ ├── 20101123 │ ├── 20110521 │ ├── 20130502 │ └── index.html └── technical ├── browser ├── index.html ├── method_development ├── ncbi_varpipe_data ├── other_exome_alignments ├── other_exome_alignments.alignment_indices ├── phase3_EX_or_LC_only_alignment ├── pilot2_high_cov_GRCh37_bams ├── pilot3_exon_targetted_GRCh37_bams ├── qc ├── README.reference ├── reference ├── retired_reference ├── simulations ├── supporting └── working
As per their README, the directory structure is:
changelog_details
This directory contains a series of files detailing the changes made to the FTP site over time.
data_collections
The data_collections directory contains directories for various collections of data, typically generated by different projects. Among the data collections is the 1000 Genomes Project data.
For each collection of data, within the directory for that collection, README and index files provide information on the collection. Under each collection directory, there is a data directory, under which files are organised by population and then sample. Further information can be found in/datashare/1000genomes/data_collections/README_data_collections.md.
historical_data
This directory was created during a rearrangement of the FTP site in September 2015. It houses README and index files that were formerly present at the toplevel of this site, including dedicated index directories. Further information is available in /datashare/1000genomes/historical_data/README_historical_data.md.
phase1
This directory contains data that supports the publications associated with phase 1 of the 1000 Genomes Project.
phase3
This directory contains data that supports the publications associated with phase 3 of the 1000 Genomes Project.
pilot_data
This directory contains data that supports the publications associated with the pilot phase of the 1000 Genomes Project.
release
The release directory contains dated directories which contain analysis results sets plus README files explaining how those data sets were produced.
Originally, the date in release subdirectory names was the date on which the given release was made. Thereafter, the release subdirectory dates were based on the date in the name of the corresponding YYYYMMDD.sequence.index file. In future, the date in the directory name will be chosen in a manner appropriate to the data and the nature of the release.
Examples of release subdirectories are: - /datashare/1000genomes/release/2008_12/
In cases where release directories are named based on the date of the YYYYMMDD.sequence.index, the SNP calls, indel calls, etc. in these directories are based on alignments produced from data listed in the YYYYMMDD.sequence.index file.
For example, the directory /datashare/1000genomes/release/20100804/ contains the release versions of SNP and indel calls based on the /datashare/1000genomes/historical_data/former_toplevel/sequence_indices/20100804.sequence.index file.
technical
The technical directory contains subdirectories for other data sets such as simulations, files for method development, interim data sets, reference genomes, etc..
An example of data stored under technical is /datashare/1000genomes/datashare/1000genomes/technical/simulations/.
WARNING: /datashare/1000genomes/technical/working/ The working directory under technical contains data that has experimental (non-public release) status and is suitable for internal project use only. Please use with caution.
AlphaFold
This space contains the data required by the AlphaFold sofware (more info here https://docs.computecanada.ca/wiki/AlphaFold). You can find more information about each dataset at https://github.com/deepmind/alphafold.
Directory structure
AlphaFold directory tree (up to level 2):
/datashare/alphafold ├── bfd │ ├── bfd_metaclust_clu_complete_id30_c90_final_seq.sorted_opt_a3m.ffdata │ ├── bfd_metaclust_clu_complete_id30_c90_final_seq.sorted_opt_a3m.ffindex │ ├── bfd_metaclust_clu_complete_id30_c90_final_seq.sorted_opt_cs219.ffdata │ ├── bfd_metaclust_clu_complete_id30_c90_final_seq.sorted_opt_cs219.ffindex │ ├── bfd_metaclust_clu_complete_id30_c90_final_seq.sorted_opt_hhm.ffdata │ └── bfd_metaclust_clu_complete_id30_c90_final_seq.sorted_opt_hhm.ffindex ├── mgnify │ └── mgy_clusters_2018_12.fa ├── params │ ├── LICENSE │ ├── params_model_1.npz │ ├── params_model_1_ptm.npz │ ├── params_model_2.npz │ ├── params_model_2_ptm.npz │ ├── params_model_3.npz │ ├── params_model_3_ptm.npz │ ├── params_model_4.npz │ ├── params_model_4_ptm.npz │ ├── params_model_5.npz │ └── params_model_5_ptm.npz ├── pdb70 │ ├── md5sum │ ├── pdb70_a3m.ffdata │ ├── pdb70_a3m.ffindex │ ├── pdb70_clu.tsv │ ├── pdb70_cs219.ffdata │ ├── pdb70_cs219.ffindex │ ├── pdb70_hhm.ffdata │ ├── pdb70_hhm.ffindex │ └── pdb_filter.dat ├── pdb_mmcif │ ├── mmcif_files │ └── obsolete.dat ├── uniclust30 │ └── uniclust30_2018_08 └── uniref90 └── uniref90.fasta 9 directories, 29 files
To use this following the instruction in https://docs.computecanada.ca/wiki/AlphaFold, set the DOWNLOAD_DIR
variable to /datashare/alphafold
.
BLASTDB
BLAST uses a standard set of BLAST databases for nucleotide, protein, and translated BLAST searches. These databases contain the sequence information deposited in the NCBI and are made available here as pre-formatted databases with the same structure as the /db directory of the BLAST ftp site.
The pre-formatted databases offer the following advantages:
- Pre-formatting removes the need to run makeblastdb
- Species-level taxonomy ids are included for each database entry
- Sequences in FASTA format can be generated from the pre-formatted databases by using the blastdbcmd utility
IMPORTANT: The BLAST databases found in this folder are version 5 (v5). Information on newly enabled features with the v5 databases can be find here.
All Pre-formatted databases available are located in Graham's /datashare/BLASTDB
and will be updated every 3 months (Jan, Apr, Jul, Oct).
Directory structure
/datashare/BLASTDB
contains all the pre-formatted without any subfolder. We include the Following:
Name | Type | Title |
---|---|---|
16S_ribosomal_RNA | DNA | 16S ribosomal RNA (Bacteria and Archaea type strains) |
18S_fungal_sequences | DNA | 18S ribosomal RNA sequences (SSU) from Fungi type and reference material |
28S_fungal_sequences | DNA | 28S ribosomal RNA sequences (LSU) from Fungi type and reference material |
Betacoronavirus | DNA | Betacoronavirus |
GCF_000001405.38_top_level | DNA | Homo sapiens GRCh38.p12 [GCF_000001405.38] chromosomes plus unplaced and unlocalized scaffolds |
GCF_000001635.26_top_level | DNA | Mus musculus GRCm38.p6 [GCF_000001635.26] chromosomes plus unplaced and unlocalized scaffolds |
ITS_RefSeq_Fungi | DNA | Internal transcribed spacer region (ITS) from Fungi type and reference material |
ITS_eukaryote_sequences | DNA | ITS eukaryote BLAST |
env_nt | DNA | environmental samples |
nt | DNA | Nucleotide collection (nt) |
patnt | DNA | Nucleotide sequences derived from the Patent division of GenBank |
pdbnt | DNA | PDB nucleotide database |
ref_euk_rep_genomes | DNA | RefSeq Eukaryotic Representative Genome Database |
ref_prok_rep_genomes | DNA | Refseq prokaryote representative genomes (contains refseq assembly) |
ref_viroids_rep_genomes | DNA | Refseq viroids representative genomes |
ref_viruses_rep_genomes | DNA | Refseq viruses representative genomes |
refseq_rna | DNA | NCBI Transcript Reference Sequences |
refseq_select_rna | DNA | RefSeq Select RNA sequences |
env_nr | Protein | Proteins from WGS metagenomic projects (env_nr) |
landmark | Protein | Landmark database for SmartBLAST |
nr | Protein | All non-redundant GenBank CDS translations+PDB+SwissProt+PIR+PRF excluding environmental samples from WGS projects |
pdbaa | Protein | PDB protein database |
pataa | Protein | Protein sequences derived from the Patent division of GenBank |
refseq_protein | Protein | NCBI Protein Reference Sequences |
refseq_select_prot | Protein | RefSeq Select proteins |
swissprot | Protein | Non-redundant UniProtKB/SwissProt sequences |
split-cdd | Protein | CDD split into 32 volumes |
tsa_nr | Protein | Transcriptome Shotgun Assembly (TSA) sequences |
Usage
The most efficient way to use these databases is to copy the specific database to $SLURM_TMPDIR
at the begining of your sbatch script. This will add between 5 to 30 minutes (depending on the database you are moving), so use it only when you know that your blast run will take longer than one hour. For example, your sbatch script can look something like this:
#!/bin/bash #SBATCH --time=02:00:00 #SBATCH --mem=32G #SBATCH --cpus-per-task=8 #SBATCH --account=def-someuser module load StdEnv/2020 gcc/9.3.0 blast+/2.11.0 # load blast and dependencies tar cf - /datashare/BLASTDB/nr | (cd ${SLURM_TMPDIR}; tar xvf -) && # copy the required database (in this case nr) to $SLURM_TMPDIR blastp -db ${SLURM_TMPDIR}/nr -num_threads ${SLURM_CPUS_PER_TASK} -query myquery.fasta
Note that the example above assumes that you have launched the job from the same directory where myquery.fasta is located, that myquery.fasta is a set of protein sequences, and that nr is required as database.
You can also use /datashare/BLASTDB/nr
(as per example), but it might be slower than having the databases in the local disk.
Other Compute Canada Sources
Blast databases can also be found in all cluster through a CVMFS repository (see https://docs.computecanada.ca/wiki/Genomics_data) unfortunately, these databases are based on the cloud ftp from NCBI which is out of date.
BLAST_FASTA
This directory contains the raw sequences located in the blast/db/FASTA/
of their directory of the NCBI FTP repository in compressed (by gzip) format:
134M Apr 10 15:36 swissprot.gz 96G Apr 10 22:11 nr.gz 108G Apr 12 07:55 nt.gz 32M Jun 4 15:30 pdbaa.gz
Similar to the pre-formatted databases (located in /datashare/BLASTDB
), these fasta files can be found at /datashare/BLAST_FASTA
and will be updated every 3 months (Jan, Apr, Jul, Oct).
DIAMONDDB_2.0.9
DIAMOND is a sequence aligner for protein and translated DNA searches, designed for high performance analysis of big sequence data. It works in a similar manner than blast but it has some optimizations done both at the database level and at the software level. In SHARCNET we provide pre-formatted databases for DIAMOND v.2.0.9 built using the following:
diamond makedb --in <(gunzip -c /datashare/BLAST_FASTA/nr.gz) -d nr --taxonmap <(gunzip -c /datashare/NCBI_taxonomy/prot.accession2taxid.FUL.gz) --taxonnodes /datashare/NCBI_taxonomy/nodes.dmp diamond makedb --in <(gunzip -c /datashare/BLAST_FASTA/nt.gz) -d nt --taxonmap <(gunzip -c /datashare/NCBI_taxonomy/nucl_gb.accession2taxid.gz) --taxonnodes /datashare/NCBI_taxonomy/nodes.dmp diamond makedb --in <(gunzip -c /datashare/BLAST_FASTA/pdbaa.gz) -d pdbaa --taxonmap <(gunzip -c /datashare/NCBI_taxonomy/pdb.accession2taxid.gz) --taxonnodes /datashare/NCBI_taxonomy/nodes.dmp diamond makedb --in <(gunzip -c /datashare/BLAST_FASTA/swissprot.gz) -d swissprot --taxonmap <(gunzip -c /datashare/NCBI_taxonomy/prot.accession2taxid.FULL.gz) --taxonnodes /datashare/NCBI_taxonomy/nodes.dmp
As can be seen 4 databases are distributed in the /datashare/DIAMONDDB_2.0.9
directory representing blast's nt
, nr
, pdbaa
, and swissprot
. All of them contain taxonomic information. Since the source of these databases are the BLAST_FASTA, the updates of the databases will follow the same trimonthly schedule (Jan, Apr, Jul, Oct).
Consideration when using these databases
The Diamond program uses a lot of memory and temporary disk space, especially when dealing with big databases (like the ones we have here) and large query sequences (both in length and number). Should the program fail due to running out of either one, you need to set a lower value for the block size parameter -b.
Usage
The most efficient way to use these databases is to copy the specific database to $SLURM_TMPDIR
at the begining of your sbatch script, just like with BLASTDB. This will add between 5 to 30 minutes (depending on the database you are moving), so use it only when you know that your blast run will take longer than one hour. In this case, different than with BLASTDB, only one file needs to be move, which means that cp
is more efficient than tar
moving the file. For example, your sbatch script can look something like this:
#!/bin/bash #SBATCH --time=02:00:00 #SBATCH --mem=32G #SBATCH --cpus-per-task=8 #SBATCH --account=def-someuser module load StdEnv/2020 diamond/2.0.9 # load blast and dependencies cp /datashare/DIAMONDDB_2.0.9/nr.dmnd ${SLURM_TMPDIR} # copy the required database (in this case nr) to $SLURM_TMPDIR diamond blastp -d /datashare/DIAMONDDB_2.0.9/nr -q YOURREADS.fasta -o AN_OUTPUT.tsv
Note that the example above assumes that you have launched the job from the same directory where YOURREADS.fasta is located, that YOURREADS.fasta is a set of protein sequences, and that nr is required as database.
You can also use /datashare/DIAMONDDB_2.0.9/nr
(as per example), but it might be slower than having the databases in the local disk.
EggNog
The EggNOG database is a database of biological information hosted by the EMBL. It is based on the original idea of COGs and expands that idea to non-supervised orthologous groups constructed from numerous organisms.
This data mount contains a copy of latest EggNogg databases
Directory structure
EggNOG directory tree (up to level 2):
/datashare/EggNog ├── e5.level_info.tar.gz ├── e5.og_annotations.tsv ├── e5.proteomes.faa ├── e5.sequence_aliases.tsv ├── e5.taxid_info.tsv ├── e5.viruses.faa ├── gbff │ ├── eutils_wgs_calledGenes │ └── eutils_wgs_calledGenes_2 ├── id_mappings │ └── uniprot ├── per_tax_level │ ├── 1 │ ├── 10 │ ├── 1016 │ ├── 10239 │ ├── 1028384 │ ├── 10404 │ ├── 104264 │ ├── 10474 │ ├── 10477 │ ├── 1060 │ ├── 10656 │ ├── 10662 │ ├── 10699 │ ├── 10744 │ ├── 10841 │ ├── 10860 │ ├── 1090 │ ├── 1100069 │ ├── 110618 │ ├── 11157 │ ├── 1117 │ ├── 112252 │ ├── 1129 │ ├── 1142 │ ├── 1150 │ ├── 1161 │ ├── 11632 │ ├── 1164882 │ ├── 117743 │ ├── 117747 │ ├── 118882 │ ├── 118884 │ ├── 1189 │ ├── 118969 │ ├── 119043 │ ├── 119045 │ ├── 119060 │ ├── 119065 │ ├── 119066 │ ├── 119069 │ ├── 119089 │ ├── 119603 │ ├── 11989 │ ├── 121069 │ ├── 1212 │ ├── 122277 │ ├── 1224 │ ├── 1236 │ ├── 1239 │ ├── 1268 │ ├── 1283313 │ ├── 129337 │ ├── 1297 │ ├── 1303 │ ├── 1305 │ ├── 1307 │ ├── 1313 │ ├── 135613 │ ├── 135614 │ ├── 135618 │ ├── 135619 │ ├── 135623 │ ├── 135624 │ ├── 135625 │ ├── 1357 │ ├── 136841 │ ├── 136843 │ ├── 136845 │ ├── 136846 │ ├── 136849 │ ├── 1386 │ ├── 142182 │ ├── 145357 │ ├── 147541 │ ├── 147545 │ ├── 147548 │ ├── 147550 │ ├── 150247 │ ├── 1506553 │ ├── 1511857 │ ├── 155619 │ ├── 1570339 │ ├── 157897 │ ├── 1653 │ ├── 167375 │ ├── 171550 │ ├── 171551 │ ├── 1762 │ ├── 178469 │ ├── 182709 │ ├── 183925 │ ├── 183939 │ ├── 183963 │ ├── 183967 │ ├── 183968 │ ├── 183980 │ ├── 186801 │ ├── 186804 │ ├── 186806 │ ├── 186807 │ ├── 186813 │ ├── 186818 │ ├── 186820 │ ├── 186821 │ ├── 186822 │ ├── 186823 │ ├── 186824 │ ├── 186827 │ ├── 186828 │ ├── 186928 │ ├── 189330 │ ├── 189775 │ ├── 191028 │ ├── 191675 │ ├── 2 │ ├── 200643 │ ├── 200783 │ ├── 200795 │ ├── 200918 │ ├── 200930 │ ├── 200940 │ ├── 201174 │ ├── 203494 │ ├── 203682 │ ├── 203691 │ ├── 204037 │ ├── 204428 │ ├── 204432 │ ├── 204441 │ ├── 204457 │ ├── 204458 │ ├── 2063 │ ├── 206350 │ ├── 206351 │ ├── 206389 │ ├── 213113 │ ├── 213115 │ ├── 213118 │ ├── 213462 │ ├── 213481 │ ├── 2157 │ ├── 216572 │ ├── 224756 │ ├── 225057 │ ├── 228398 │ ├── 2323 │ ├── 237 │ ├── 2433 │ ├── 244698 │ ├── 245186 │ ├── 246874 │ ├── 252301 │ ├── 252356 │ ├── 255475 │ ├── 256005 │ ├── 265 │ ├── 265975 │ ├── 267888 │ ├── 267889 │ ├── 267890 │ ├── 267893 │ ├── 267894 │ ├── 2759 │ ├── 28037 │ ├── 28211 │ ├── 28216 │ ├── 28221 │ ├── 2836 │ ├── 283735 │ ├── 285107 │ ├── 28883 │ ├── 28889 │ ├── 28890 │ ├── 289201 │ ├── 29 │ ├── 29000 │ ├── 290174 │ ├── 29258 │ ├── 29547 │ ├── 301297 │ ├── 302485 │ ├── 3041 │ ├── 308865 │ ├── 311790 │ ├── 314146 │ ├── 314294 │ ├── 31979 │ ├── 31993 │ ├── 32003 │ ├── 32061 │ ├── 32066 │ ├── 32199 │ ├── 326319 │ ├── 326457 │ ├── 33090 │ ├── 33154 │ ├── 33183 │ ├── 33208 │ ├── 33213 │ ├── 33342 │ ├── 33554 │ ├── 335928 │ ├── 33867 │ ├── 33958 │ ├── 34008 │ ├── 34037 │ ├── 34383 │ ├── 34384 │ ├── 34397 │ ├── 35237 │ ├── 35268 │ ├── 35278 │ ├── 35301 │ ├── 35325 │ ├── 35493 │ ├── 355688 │ ├── 35718 │ ├── 358033 │ ├── 363408 │ ├── 3699 │ ├── 38820 │ ├── 39782 │ ├── 400634 │ ├── 40117 │ ├── 40674 │ ├── 41294 │ ├── 414999 │ ├── 422676 │ ├── 423358 │ ├── 439488 │ ├── 43988 │ ├── 4447 │ ├── 451866 │ ├── 451867 │ ├── 451870 │ ├── 452284 │ ├── 45401 │ ├── 45404 │ ├── 45667 │ ├── 46205 │ ├── 464095 │ ├── 468 │ ├── 4751 │ ├── 4776 │ ├── 4890 │ ├── 4891 │ ├── 4893 │ ├── 5042 │ ├── 50557 │ ├── 506 │ ├── 508458 │ ├── 5125 │ ├── 5129 │ ├── 5139 │ ├── 5148 │ ├── 5151 │ ├── 52018 │ ├── 5204 │ ├── 5234 │ ├── 52604 │ ├── 526524 │ ├── 52959 │ ├── 53335 │ ├── 5338 │ ├── 53433 │ ├── 538999 │ ├── 539002 │ ├── 541000 │ ├── 544 │ ├── 544448 │ ├── 547 │ ├── 548681 │ ├── 551 │ ├── 554915 │ ├── 558415 │ ├── 561 │ ├── 5653 │ ├── 572511 │ ├── 57723 │ ├── 5794 │ ├── 5796 │ ├── 5809 │ ├── 5819 │ ├── 583 │ ├── 586 │ ├── 5863 │ ├── 5878 │ ├── 58840 │ ├── 590 │ ├── 59732 │ ├── 60136 │ ├── 613 │ ├── 61432 │ ├── 622450 │ ├── 6231 │ ├── 6236 │ ├── 629 │ ├── 629295 │ ├── 639021 │ ├── 651137 │ ├── 6656 │ ├── 671232 │ ├── 675063 │ ├── 68295 │ ├── 68298 │ ├── 68525 │ ├── 68892 │ ├── 69277 │ ├── 69541 │ ├── 69657 │ ├── 7088 │ ├── 71274 │ ├── 713636 │ ├── 7147 │ ├── 7148 │ ├── 7214 │ ├── 72273 │ ├── 72275 │ ├── 7399 │ ├── 74030 │ ├── 74201 │ ├── 74385 │ ├── 75682 │ ├── 766 │ ├── 766764 │ ├── 76804 │ ├── 76831 │ ├── 768503 │ ├── 7711 │ ├── 772 │ ├── 7742 │ ├── 7898 │ ├── 80864 │ ├── 815 │ ├── 81850 │ ├── 81852 │ ├── 82115 │ ├── 82117 │ ├── 82986 │ ├── 830 │ ├── 83612 │ ├── 84406 │ ├── 8459 │ ├── 84992 │ ├── 84995 │ ├── 84998 │ ├── 85004 │ ├── 85005 │ ├── 85008 │ ├── 85009 │ ├── 85010 │ ├── 85012 │ ├── 85013 │ ├── 85014 │ ├── 85016 │ ├── 85017 │ ├── 85018 │ ├── 85019 │ ├── 85020 │ ├── 85021 │ ├── 85023 │ ├── 85025 │ ├── 85026 │ ├── 8782 │ ├── 90964 │ ├── 909932 │ ├── 91061 │ ├── 91561 │ ├── 91835 │ ├── 9263 │ ├── 92860 │ ├── 93682 │ ├── 9397 │ ├── 9443 │ ├── 9604 │ ├── 97050 │ ├── 976 │ ├── 995019 │ └── 9989 └── raw_data ├── e5.best_hit_homology_matrix.tsv.gz └── speciation_events.tsv.gz 386 directories, 8 files
The top level directory includes the e5 release of the proteomes and its annotations. The gbff
folder contain annotation in genebank format. The folder id_mappings
contain the taxonomic information and the mappings with EggNog's taxids. In the per_tax_level
contains a series of folders, labeled by taconomic ID. In each one of them, you can find *_annotations.tsv.gz *_hmms.tar *_hmms.tar.gz *_members.tsv.gz *_raw_algs.tar *_stats.tsv *_trees.tsv.gz *_trimmed_algs.tar
with the Hidden Markov models alignments, annotations, profiles, and phylogenetic trees. Finally, the folder raw_data
contains the homology/speciation events used in EggNog's clustering.
kraken2_dbs
Kraken 2 is the newest version of Kraken, a taxonomic classification system using exact k-mer matches to achieve high accuracy and fast classification speeds. This classifier matches each k-mer within a query sequence to the lowest common ancestor (LCA) of all genomes containing the given k-mer. The k-mer assignments inform the classification algorithm (kraken2). In SHARCNET, we provide some extra databases with expanded taxonomy for our users. These databases are Kraken2 ONLY, that means that it uses a compact hash table. With this structure, it has a <1% chance of returning the incorrect LCA or returning an LCA for a non-inserted minimizer. Users can compensate for this possibility by using Kraken's confidence scoring thresholds.
Directory structure
Kraken 2 is provided in the following structure:
/datashare/kraken2_dbs ├── 16S_Greengenes_k2db ├── 16S_RDP_k2db ├── 16S_SILVA132_k2db ├── 16S_SILVA138_k2db ├── archaea ├── bacteria ├── dl_log ├── eukaryota ├── fungi ├── human ├── is_my_taxa_there ├── krakendb_100G ├── midikraken_100GB ├── minikraken_8GB_20200312 ├── minikraken_8GB_20200312_genomes.txt ├── minikraken_8GB_202003.tgz ├── plant ├── protozoa ├── UniVec_Core └── viral
Usage
By providing the path to the database you are able to query the specific database of your choosing:
kraken2 --db /datashare/kraken2_dbs/eukaryota test.fa
For your convenience, we provide a simple script to query if your specific taxa is available in the database:
$ /datashare/kraken2_dbs/is_my_taxa_there -h Usage: /datashare/kraken2_dbs/is_my_taxa_there [-t <taxa to look for>|[-d <database>|-h] -h print usage and exit -t desired taxa -d Database to check in (full path) NOTE: THE TAXA IS CASE SENSITIVE, for example, if you require arabidopsis genus in the plant database it returns nothing, but Arabidopsis will return the hits
For example, let's say that you want to check if the genus `Carcharodon` is included in the eukaryota
database, then you do:
$ /datashare/kraken2_dbs/is_my_taxa_there -t Carcharodon -d /datashare/kraken2_dbs/eukaryota Checking if Carcharodon is present in /datashare/kraken2_dbs/eukaryota 0.03 569792 0 G 13396 Carcharodon 0.03 569792 569792 S 13397 Carcharodon carcharias
The output of this script is in line with the inspect format. You can check out the Kraken2 Manual for more information.
NCBI_taxonomy
This dataset contains the NCBI taxonomy ftp. Is intended to work with multiple software (seqkit, kraken, blast, diamond, etc) as well as with direct search of accession numbers, taxonomic IDs and related information. It will be updated with the blast databases.
Directory structure
NCBI_taxonomy directory tree (up to level 2):
/datashare/NCBI_taxonomy ├── accession2taxid │ ├── dead_nucl.accession2taxid.gz │ ├── dead_nucl.accession2taxid.gz.md5 │ ├── dead_prot.accession2taxid.gz │ ├── dead_prot.accession2taxid.gz.md5 │ ├── dead_wgs.accession2taxid.gz │ ├── dead_wgs.accession2taxid.gz.md5 │ ├── index.html │ ├── nucl_gb.accession2taxid.gz │ ├── nucl_gb.accession2taxid.gz.md5 │ ├── nucl_wgs.accession2taxid.gz │ ├── nucl_wgs.accession2taxid.gz.md5 │ ├── pdb.accession2taxid.gz │ ├── pdb.accession2taxid.gz.md5 │ ├── prot.accession2taxid.FULL.gz │ ├── prot.accession2taxid.FULL.gz.md5 │ ├── prot.accession2taxid.gz │ ├── prot.accession2taxid.gz.md5 │ └── README ├── biocollections │ ├── Collection_codes.txt │ ├── index.html │ ├── Institution_codes.txt │ └── Unique_institution_codes.txt ├── categories.dmp ├── Ccode_dump.txt ├── citations.dmp ├── coll_dump.txt ├── Cowner_dump.txt ├── delnodes.dmp ├── division.dmp ├── gc.prt ├── gencode.dmp ├── Icode_dump.txt ├── index.html ├── merged.dmp ├── names.dmp ├── ncbi_taxonomy_genussp.txt ├── new_taxdump │ ├── index.html │ ├── new_taxdump.tar.gz │ ├── new_taxdump.tar.gz.md5 │ └── taxdump_readme.txt ├── nodes.dmp ├── README ├── readme.txt ├── taxcat_readme.txt ├── taxcat.tar.gz ├── taxcat.tar.gz.md5 ├── taxdump_archive │ └── index.html ├── taxdump_readme.txt ├── taxdump.tar.gz └── taxdump.tar.gz.md5 4 directories, 50 files
Usage with TaxonKit
In Compute Canada, we have a taxonomic manipulation software called [ TaxonKit]. You can load it by module load StdEnv/2020 taxonkit
. It requires to have the NCBI taxonomy in a particular location. To set it up with this datashare, simply add a simbolic link to the .taxonkit folder:
mkdir -p ~/.taxonkit ln -s /datashare/NCBI_taxonomy/*.dmp ~/.taxonkit/
Then you can use taxonkit directly
PANTHER
The PANTHER (protein analysis through evolutionary relationships) classification system is a large curated biological database of gene/protein families and their functionally related subfamilies that can be used to classify and identify the function of gene products. It is part of the Gene Ontology Reference Genome Project designed to classify proteins and their genes for high-throughput analysis.
In our data mount, we provide users with some of the relevant data found in the pantherdb ftp, namely: hmm_classifications, panther_library, pathway, and sequence_classifications.
Directory structure
PANTHER directory tree (up to level 2):
/datashare/PANTHER/ ├── hmm_classifications │ ├── LICENSE │ ├── PANTHER15.0_HMM_classifications │ ├── PANTHER16.0_HMM_classifications │ └── README ├── panther_library │ ├── ascii │ ├── hmmscoring │ ├── PANTHER15.0_ascii.tgz │ ├── PANTHER15.0_fasta │ ├── PANTHER15.0_fasta.tgz │ ├── PANTHER15.0_hmmscoring.tgz │ ├── PANTHER16.0_ascii.tgz │ ├── PANTHER16.0_binary.tgz │ ├── PANTHER16.0_fasta │ ├── PANTHER16.0_fasta.tgz │ ├── README │ ├── target4 │ └── wget_panther_panther_library.log ├── pathway │ ├── BioPAX │ ├── BioPAX.tar.gz │ ├── sbml │ ├── sbml.tar.gz │ ├── SequenceAssociationPathway3.6.4.txt │ └── SequenceAssociationPathway3.6.5.txt └── sequence_classifications ├── LICENSE ├── PANTHER_Sequence_Classification_files ├── README └── species 12 directories, 19 files
hmm_classifications
This folder contains the classification files for versions 15 and 16. They contain the name, molecular functions, biological processes, and pathway for every PANTHER protein family and subfamily in Version 15.0 of the PANTHER HMM library.
The files are a tab-delimited file in the following format: 1) PANTHER ID: for example, PTHR11258 or PTHR12213:SF6. ":SF" indicates the subfamily ID 2) Name: The annotation assigned by curators to the PANTHER family or subfamily 3) Molecular function*: PANTHER GO slim molecular function terms assigned to families and subfamilies 4) Biological process*: PANTHER GO slim biological process terms assigned to families and subfamilies 5) Cellular components*: PANTHER GO slim cellular component terms assigned to families and subfamilies 6) Protein class* PANTHER protein class terms assigned to families and subfamilies 7) Pathway***: PANTHER pathways have been assigned to families and subfamilies.
For more information check the README file at /datashare/PANTHER/hmm_classifications
panther_library
This is the main folder, containing the panther HMM files along with the fasta inputs.
For more information check the README file at /datashare/PANTHER/panther_library
pathway
This folder contain the metabolic pathways and the annotation of the sequence association with each pathway. It contains some metabolic pathwaus in BioPAX and SMBL format.
sequence_classifications
The PANTHER website allows access to to pre-calculated HMM scoring results for the complete proteomes derived from the human, mouse, rat and Drosophila melanogaster genomes.
A total of 142 classification files are provided here, one for each organism.
For more information check the README file at /datashare/PANTHER/sequence_classifications
PFAM
Pfam is a database of protein families that includes their annotations and multiple sequence alignments generated using hidden Markov models
SILVA
The SILVA databases are developed and maintained by the Microbial Genomics and Bioinformatics Research Group in Bremen, Germany, in cooperation with the company Ribocon GmbH.
SILVA provides fully aligned and up to date small (16S/18S, SSU) and large (23S/28S, LSU) subunit ribosomal RNA "Parc" databases as well as ARB files preconfigured subsets of only high quality, full-length sequences as ARB & FASTA files (SSU/LSU Ref). It also has full compatibility with the ARB software and and to many common programs like Phylip or Paup via direct Fasta export or the ARB program.
On Graham, we provide a copy of the latest release, and will be updated twice a year.
Directory structure
Silva directory tree:
/datashare/SILVA ├── ARB_files │ ├── LICENSE.txt │ ├── SILVA_138.1_LSURef_NR99_30_06_20_opt.arb.gz │ ├── SILVA_138.1_LSURef_NR99_30_06_20_opt.arb.gz.md5 │ ├── SILVA_138.1_LSURef_opt.arb.gz │ ├── SILVA_138.1_LSURef_opt.arb.gz.md5 │ ├── SILVA_138.1_SSURef_NR99_12_06_20_opt.arb.gz │ ├── SILVA_138.1_SSURef_NR99_12_06_20_opt.arb.gz.md5 │ ├── SILVA_138.1_SSURef_opt.arb.gz │ └── SILVA_138.1_SSURef_opt.arb.gz.md5 ├── CITATION.txt ├── current │ ├── sina-1.2.11_centos5_amd64.tgz │ ├── sina-1.2.11_ubuntu1004_amd64.tgz │ ├── sina-1.2.11_ubuntu1004_i386.tgz │ ├── sina-1.2.11_ubuntu1204_amd64.tgz │ └── sina-1.2.11_ubuntu1204_i386.tgz ├── Exports │ ├── accession │ │ ├── LICENSE.txt │ │ ├── SILVA_138.1_LSUParc.acs.gz │ │ ├── SILVA_138.1_LSUParc.acs.gz.md5 │ │ ├── SILVA_138.1_LSURef.acs.gz │ │ ├── SILVA_138.1_LSURef.acs.gz.md5 │ │ ├── SILVA_138.1_LSURef_Nr99.acs.gz │ │ ├── SILVA_138.1_LSURef_Nr99.acs.gz.md5 │ │ ├── SILVA_138.1_SSUParc.acs.gz │ │ ├── SILVA_138.1_SSUParc.acs.gz.md5 │ │ ├── SILVA_138.1_SSURef.acs.gz │ │ ├── SILVA_138.1_SSURef.acs.gz.md5 │ │ ├── SILVA_138.1_SSURef_Nr99.acs.gz │ │ └── SILVA_138.1_SSURef_Nr99.acs.gz.md5 │ ├── cluster │ │ ├── LICENSE.txt │ │ ├── SILVA_138.1_LSURef_Nr99.clstr.gz │ │ ├── SILVA_138.1_LSURef_Nr99.clstr.gz.md5 │ │ ├── SILVA_138.1_SSURef_Nr99.clstr.gz │ │ └── SILVA_138.1_SSURef_Nr99.clstr.gz.md5 │ ├── country_locality │ │ ├── LICENSE.txt │ │ ├── SILVA_138.1_LSUParc.country_locality.gz │ │ ├── SILVA_138.1_LSUParc.country_locality.gz.md5 │ │ ├── SILVA_138.1_LSURef.country_locality.gz │ │ ├── SILVA_138.1_LSURef.country_locality.gz.md5 │ │ ├── SILVA_138.1_LSURef_Nr99.country_locality.gz │ │ ├── SILVA_138.1_LSURef_Nr99.country_locality.gz.md5 │ │ ├── SILVA_138.1_SSUParc.country_locality.gz │ │ ├── SILVA_138.1_SSUParc.country_locality.gz.md5 │ │ ├── SILVA_138.1_SSURef.country_locality.gz │ │ ├── SILVA_138.1_SSURef.country_locality.gz.md5 │ │ ├── SILVA_138.1_SSURef_Nr99.country_locality.gz │ │ └── SILVA_138.1_SSURef_Nr99.country_locality.gz.md5 │ ├── full_metadata │ │ ├── LICENSE.txt │ │ ├── SILVA_138.1_LSUParc.full_metadata.gz │ │ ├── SILVA_138.1_LSUParc.full_metadata.gz.md5 │ │ ├── SILVA_138.1_LSURef.full_metadata.gz │ │ ├── SILVA_138.1_LSURef.full_metadata.gz.md5 │ │ ├── SILVA_138.1_LSURef_Nr99.full_metadata.gz │ │ ├── SILVA_138.1_LSURef_Nr99.full_metadata.gz.md5 │ │ ├── SILVA_138.1_SSUParc.full_metadata.gz │ │ ├── SILVA_138.1_SSUParc.full_metadata.gz.md5 │ │ ├── SILVA_138.1_SSURef.full_metadata.gz │ │ ├── SILVA_138.1_SSURef.full_metadata.gz.md5 │ │ ├── SILVA_138.1_SSURef_Nr99.full_metadata.gz │ │ └── SILVA_138.1_SSURef_Nr99.full_metadata.gz.md5 │ ├── geographic_location │ │ ├── LICENSE.txt │ │ ├── SILVA_138.1_LSUParc.geographic_location.gz │ │ ├── SILVA_138.1_LSUParc.geographic_location.gz.md5 │ │ ├── SILVA_138.1_LSURef.geographic_location.gz │ │ ├── SILVA_138.1_LSURef.geographic_location.gz.md5 │ │ ├── SILVA_138.1_LSURef_Nr99.geographic_location.gz │ │ ├── SILVA_138.1_LSURef_Nr99.geographic_location.gz.md5 │ │ ├── SILVA_138.1_SSUParc.geographic_location.gz │ │ ├── SILVA_138.1_SSUParc.geographic_location.gz.md5 │ │ ├── SILVA_138.1_SSURef.geographic_location.gz │ │ ├── SILVA_138.1_SSURef.geographic_location.gz.md5 │ │ ├── SILVA_138.1_SSURef_Nr99.geographic_location.gz │ │ └── SILVA_138.1_SSURef_Nr99.geographic_location.gz.md5 │ ├── LICENSE.txt │ ├── quality │ │ ├── LICENSE.txt │ │ ├── SILVA_138.1_LSUParc.quality.gz │ │ ├── SILVA_138.1_LSUParc.quality.gz.md5 │ │ ├── SILVA_138.1_LSURef_Nr99.quality.gz │ │ ├── SILVA_138.1_LSURef_Nr99.quality.gz.md5 │ │ ├── SILVA_138.1_LSURef.quality.gz │ │ ├── SILVA_138.1_LSURef.quality.gz.md5 │ │ ├── SILVA_138.1_SSUParc.quality.gz │ │ ├── SILVA_138.1_SSUParc.quality.gz.md5 │ │ ├── SILVA_138.1_SSURef_Nr99.quality.gz │ │ ├── SILVA_138.1_SSURef_Nr99.quality.gz.md5 │ │ ├── SILVA_138.1_SSURef.quality.gz │ │ └── SILVA_138.1_SSURef.quality.gz.md5 │ ├── rast │ │ ├── LICENSE.txt │ │ ├── SILVA_138.1_LSUParc.rast.gz │ │ ├── SILVA_138.1_LSUParc.rast.gz.md5 │ │ ├── SILVA_138.1_LSURef_NR99.rast.gz │ │ ├── SILVA_138.1_LSURef_NR99.rast.gz.md5 │ │ ├── SILVA_138.1_LSURef.rast.gz │ │ ├── SILVA_138.1_LSURef.rast.gz.md5 │ │ ├── SILVA_138.1_SSUParc.rast.gz │ │ ├── SILVA_138.1_SSUParc.rast.gz.md5 │ │ ├── SILVA_138.1_SSURef_NR99.rast.gz │ │ ├── SILVA_138.1_SSURef_NR99.rast.gz.md5 │ │ ├── SILVA_138.1_SSURef.rast.gz │ │ └── SILVA_138.1_SSURef.rast.gz.md5 │ ├── README.txt │ ├── rnac │ │ ├── LICENSE.txt │ │ ├── SILVA_138.1_LSUParc.rnac.gz │ │ ├── SILVA_138.1_LSUParc.rnac.gz.md5 │ │ ├── SILVA_138.1_LSURef_NR99.rnac.gz │ │ ├── SILVA_138.1_LSURef_NR99.rnac.gz.md5 │ │ ├── SILVA_138.1_LSURef.rnac.gz │ │ ├── SILVA_138.1_LSURef.rnac.gz.md5 │ │ ├── SILVA_138.1_SSUParc.rnac.gz │ │ ├── SILVA_138.1_SSUParc.rnac.gz.md5 │ │ ├── SILVA_138.1_SSURef_NR99.rnac.gz │ │ ├── SILVA_138.1_SSURef_NR99.rnac.gz.md5 │ │ ├── SILVA_138.1_SSURef.rnac.gz │ │ └── SILVA_138.1_SSURef.rnac.gz.md5 │ ├── SILVA_138.1_LSUParc_tax_silva.fasta.gz │ ├── SILVA_138.1_LSUParc_tax_silva.fasta.gz.md5 │ ├── SILVA_138.1_LSUParc_tax_silva_trunc.fasta.gz │ ├── SILVA_138.1_LSUParc_tax_silva_trunc.fasta.gz.md5 │ ├── SILVA_138.1_LSURef_NR99_tax_silva.fasta.gz │ ├── SILVA_138.1_LSURef_NR99_tax_silva.fasta.gz.md5 │ ├── SILVA_138.1_LSURef_NR99_tax_silva_full_align_trunc.fasta.gz │ ├── SILVA_138.1_LSURef_NR99_tax_silva_full_align_trunc.fasta.gz.md5 │ ├── SILVA_138.1_LSURef_NR99_tax_silva_trunc.fasta.gz │ ├── SILVA_138.1_LSURef_NR99_tax_silva_trunc.fasta.gz.md5 │ ├── SILVA_138.1_LSURef_tax_silva.fasta.gz │ ├── SILVA_138.1_LSURef_tax_silva.fasta.gz.md5 │ ├── SILVA_138.1_LSURef_tax_silva_full_align_trunc.fasta.gz │ ├── SILVA_138.1_LSURef_tax_silva_full_align_trunc.fasta.gz.md5 │ ├── SILVA_138.1_LSURef_tax_silva_trunc.fasta.gz │ ├── SILVA_138.1_LSURef_tax_silva_trunc.fasta.gz.md5 │ ├── SILVA_138.1_SSUParc_tax_silva.fasta.gz │ ├── SILVA_138.1_SSUParc_tax_silva.fasta.gz.md5 │ ├── SILVA_138.1_SSUParc_tax_silva_trunc.fasta.gz │ ├── SILVA_138.1_SSUParc_tax_silva_trunc.fasta.gz.md5 │ ├── SILVA_138.1_SSURef_NR99_tax_silva.fasta.gz │ ├── SILVA_138.1_SSURef_NR99_tax_silva.fasta.gz.md5 │ ├── SILVA_138.1_SSURef_NR99_tax_silva_full_align_trunc.fasta.gz │ ├── SILVA_138.1_SSURef_NR99_tax_silva_full_align_trunc.fasta.gz.md5 │ ├── SILVA_138.1_SSURef_NR99_tax_silva_trunc.fasta.gz │ ├── SILVA_138.1_SSURef_NR99_tax_silva_trunc.fasta.gz.md5 │ ├── SILVA_138.1_SSURef_tax_silva.fasta.gz │ ├── SILVA_138.1_SSURef_tax_silva.fasta.gz.md5 │ ├── SILVA_138.1_SSURef_tax_silva_full_align_trunc.fasta.gz │ ├── SILVA_138.1_SSURef_tax_silva_full_align_trunc.fasta.gz.md5 │ ├── SILVA_138.1_SSURef_tax_silva_trunc.fasta.gz │ ├── SILVA_138.1_SSURef_tax_silva_trunc.fasta.gz.md5 │ └── taxonomy │ ├── LICENSE.txt │ ├── ncbi │ │ ├── taxmap_embl-ebi_ena_lsu_parc_138.1.txt.gz │ │ ├── taxmap_embl-ebi_ena_lsu_parc_138.1.txt.gz.md5 │ │ ├── taxmap_embl-ebi_ena_lsu_ref_138.1.txt.gz │ │ ├── taxmap_embl-ebi_ena_lsu_ref_138.1.txt.gz.md5 │ │ ├── taxmap_embl-ebi_ena_lsu_ref_nr99_138.1.txt.gz │ │ ├── taxmap_embl-ebi_ena_lsu_ref_nr99_138.1.txt.gz.md5 │ │ ├── taxmap_embl-ebi_ena_ssu_parc_138.1.txt.gz │ │ ├── taxmap_embl-ebi_ena_ssu_parc_138.1.txt.gz.md5 │ │ ├── taxmap_embl-ebi_ena_ssu_ref_138.1.txt.gz │ │ ├── taxmap_embl-ebi_ena_ssu_ref_138.1.txt.gz.md5 │ │ ├── taxmap_embl-ebi_ena_ssu_ref_nr99_138.1.txt.gz │ │ ├── taxmap_embl-ebi_ena_ssu_ref_nr99_138.1.txt.gz.md5 │ │ ├── taxmap_ncbi_lsu_parc_138.1.txt.gz │ │ ├── taxmap_ncbi_lsu_parc_138.1.txt.gz.md5 │ │ ├── taxmap_ncbi_lsu_ref_138.1.txt.gz │ │ ├── taxmap_ncbi_lsu_ref_138.1.txt.gz.md5 │ │ ├── taxmap_ncbi_lsu_ref_nr99_138.1.txt.gz │ │ ├── taxmap_ncbi_lsu_ref_nr99_138.1.txt.gz.md5 │ │ ├── taxmap_ncbi_ssu_parc_138.1.txt.gz │ │ ├── taxmap_ncbi_ssu_parc_138.1.txt.gz.md5 │ │ ├── taxmap_ncbi_ssu_ref_138.1.txt.gz │ │ ├── taxmap_ncbi_ssu_ref_138.1.txt.gz.md5 │ │ ├── taxmap_ncbi_ssu_ref_nr99_138.1.txt.gz │ │ ├── taxmap_ncbi_ssu_ref_nr99_138.1.txt.gz.md5 │ │ ├── tax_ncbi_lsu_parc_138.1.txt.gz │ │ ├── tax_ncbi_lsu_parc_138.1.txt.gz.md5 │ │ ├── tax_ncbi_lsu_ref_138.1.txt.gz │ │ ├── tax_ncbi_lsu_ref_138.1.txt.gz.md5 │ │ ├── tax_ncbi_lsu_ref_nr99_138.1.txt.gz │ │ ├── tax_ncbi_lsu_ref_nr99_138.1.txt.gz.md5 │ │ ├── tax_ncbi-species_lsu_parc_138.1.txt.gz │ │ ├── tax_ncbi-species_lsu_parc_138.1.txt.gz.md5 │ │ ├── tax_ncbi-species_lsu_ref_138.1.txt.gz │ │ ├── tax_ncbi-species_lsu_ref_138.1.txt.gz.md5 │ │ ├── tax_ncbi-species_lsu_ref_nr99_138.1.txt.gz │ │ ├── tax_ncbi-species_lsu_ref_nr99_138.1.txt.gz.md5 │ │ ├── tax_ncbi-species_ssu_parc_138.1.txt.gz │ │ ├── tax_ncbi-species_ssu_parc_138.1.txt.gz.md5 │ │ ├── tax_ncbi-species_ssu_ref_138.1.txt.gz │ │ ├── tax_ncbi-species_ssu_ref_138.1.txt.gz.md5 │ │ ├── tax_ncbi-species_ssu_ref_nr99_138.1.txt.gz │ │ ├── tax_ncbi-species_ssu_ref_nr99_138.1.txt.gz.md5 │ │ ├── tax_ncbi_ssu_parc_138.1.txt.gz │ │ ├── tax_ncbi_ssu_parc_138.1.txt.gz.md5 │ │ ├── tax_ncbi_ssu_ref_138.1.txt.gz │ │ ├── tax_ncbi_ssu_ref_138.1.txt.gz.md5 │ │ ├── tax_ncbi_ssu_ref_nr99_138.1.txt.gz │ │ └── tax_ncbi_ssu_ref_nr99_138.1.txt.gz.md5 │ ├── taxmap_slv_lsu_parc_138.1.txt.gz │ ├── taxmap_slv_lsu_parc_138.1.txt.gz.md5 │ ├── taxmap_slv_lsu_ref_138.1.txt.gz │ ├── taxmap_slv_lsu_ref_138.1.txt.gz.md5 │ ├── taxmap_slv_lsu_ref_nr_138.1.txt.gz │ ├── taxmap_slv_lsu_ref_nr_138.1.txt.gz.md5 │ ├── taxmap_slv_ssu_parc_138.1.txt.gz │ ├── taxmap_slv_ssu_parc_138.1.txt.gz.md5 │ ├── taxmap_slv_ssu_ref_138.1.txt.gz │ ├── taxmap_slv_ssu_ref_138.1.txt.gz.md5 │ ├── taxmap_slv_ssu_ref_nr_138.1.txt.gz │ ├── taxmap_slv_ssu_ref_nr_138.1.txt.gz.md5 │ ├── tax_slv_lsu_138.1.acc_taxid.gz │ ├── tax_slv_lsu_138.1.acc_taxid.gz.md5 │ ├── tax_slv_lsu_138.1.diff.gz │ ├── tax_slv_lsu_138.1.diff.gz.md5 │ ├── tax_slv_lsu_138.1.map.gz │ ├── tax_slv_lsu_138.1.map.gz.md5 │ ├── tax_slv_lsu_138.1.tre.gz │ ├── tax_slv_lsu_138.1.tre.gz.md5 │ ├── tax_slv_lsu_138.1.txt.gz │ ├── tax_slv_lsu_138.1.txt.gz.md5 │ ├── tax_slv_ssu_138.1.acc_taxid.gz │ ├── tax_slv_ssu_138.1.acc_taxid.gz.md5 │ ├── tax_slv_ssu_138.1.diff.gz │ ├── tax_slv_ssu_138.1.diff.gz.md5 │ ├── tax_slv_ssu_138.1.map.gz │ ├── tax_slv_ssu_138.1.map.gz.md5 │ ├── tax_slv_ssu_138.1.tre.gz │ ├── tax_slv_ssu_138.1.tre.gz.md5 │ ├── tax_slv_ssu_138.1.txt.gz │ └── tax_slv_ssu_138.1.txt.gz.md5 ├── Fields_description │ ├── LICENSE.txt │ ├── SILVA_description_of_fields_21_09_2016.htm │ └── SILVA_description_of_fields_21_09_2016.pdf ├── LICENSE.txt ├── README.txt └── VERSION.txt 14 directories, 232 files
UNIPROT
UniProt is a freely accessible database of protein sequence and functional information, many entries being derived from genome sequencing projects. It contains a large amount of information about the biological function of proteins derived from the research literature.
In Graham we keep the latest release of uniprot at /datashare/UNIPROT
Directory Structure
AI
CIFAR-10
The CIFAR-10 dataset consists of 60000 32x32 colour images in 10 classes, with 6000 images per class. There are 50000 training images and 10000 test images.
The dataset is divided into five training batches and one test batch, each with 10000 images. The test batch contains exactly 1000 randomly-selected images from each class. The training batches contain the remaining images in random order, but some training batches may contain more images from one class than another. Between them, the training batches contain exactly 5000 images from each class.
We provide the matlab, and python files with the test and training sets of CIFAR-10, along with the labels
Directory structure
CIFAR-10 directory tree (up to level 2):
/datashare/CIFAR-10 ├── cifar-10-batches-bin │ ├── batches.meta.txt │ ├── data_batch_1.bin │ ├── data_batch_2.bin │ ├── data_batch_3.bin │ ├── data_batch_4.bin │ ├── data_batch_5.bin │ ├── readme.html │ └── test_batch.bin ├── cifar-10-batches-mat │ ├── batches.meta.mat │ ├── data_batch_1.mat │ ├── data_batch_2.mat │ ├── data_batch_3.mat │ ├── data_batch_4.mat │ ├── data_batch_5.mat │ ├── readme.html │ └── test_batch.mat ├── cifar-10-batches-py │ ├── batches.meta │ ├── data_batch_1 │ ├── data_batch_2 │ ├── data_batch_3 │ ├── data_batch_4 │ ├── data_batch_5 │ ├── readme.html │ └── test_batch ├── cifar-10-binary.tar.gz ├── cifar-10-matlab.tar.gz └── cifar-10-python.tar.gz 3 directories, 27 files
CIFAR-100
This dataset is just like the CIFAR-10, except it has 100 classes containing 600 images each. There are 500 training images and 100 testing images per class. The 100 classes in the CIFAR-100 are grouped into 20 superclasses. Each image comes with a "fine" label (the class to which it belongs) and a "coarse" label (the superclass to which it belongs). For more information https://www.cs.toronto.edu/~kriz/cifar.html.
We provide the matlab, and python files with the test and training sets of CIFAR-10, along with the labels
Directory structure
CIFAR-100 directory tree (up to level 2):
/datashare/CIFAR-100 ├── cifar-100-binary │ ├── coarse_label_names.txt │ ├── fine_label_names.txt │ ├── test.bin │ └── train.bin ├── cifar-100-binary.tar.gz ├── cifar-100-matlab │ ├── meta.mat │ ├── test.mat │ └── train.mat ├── cifar-100-matlab.tar.gz ├── cifar-100-python │ ├── file.txt │ ├── meta │ ├── test │ └── train └── cifar-100-python.tar.gz 3 directories, 13 files
COCO
ImageNet
See https://docs.computecanada.ca/wiki/ImageNet